Home | Overview | Browser | Access | Login | Cookbook

Glossary of VSA attributes
This Glossary alphabetically lists all attributes used in the VSAv20240304 database(s) held in the VSA. If you would like to have more information about the schema tables please use the VSAv20240304 Schema Browser (other Browser versions).

A

B

C

D

E

F

G

H

I

J

K

L

M

N

O

P

Q

R

S

T

U

V

W

X

Y

Z

F
Name	Schema Table	Database	Description	Type	Length	Unit	Default Value	Unified Content Descriptor
F1	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	Flux in IRAC band 1	real	4	mJy	-999.9
f1	hipparcos_new_reduction	GAIADR1	Percentage rejected data	int	4			arith.ratio;stat.value
F1_err	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	1sigma flux error (IRAC band 1)	real	4	mJy	-999.9
F1_rms	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	RMS dev. of detection from F1	real	4	mJy	-999.9
F2	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	Flux in IRAC band 2	real	4	mJy	-999.9
f2	hipparcos_new_reduction	GAIADR1	Goodness of fit	float	8			stat.fit.goodness
F24umMag	spitzer_smcSource	SPITZER	The SPITZER F24μm band magnitude.	real	4	mag
F2_err	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	1sigma flux error (IRAC band 2)	real	4	mJy	-999.9
F2_rms	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	RMS dev. of detection from F2	real	4	mJy	-999.9
F3	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	Flux in IRAC band 3	real	4	mJy	-999.9
F3_6	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	3.6um IRAC (Band 1) flux	real	4	mJy	-999.9
F3_6_err	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	3.6um IRAC (Band 1) 1 sigma error	real	4	mJy	-999.9
F3_6_rms	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	RMS deviation of the individual detections from the final flux for 3.6um IRAC (Band 1)	real	4	mJy	-999.9
F3_6umMag	spitzer_smcSource	SPITZER	The SPITZER F3.6μm band magnitude.	real	4	mag
F3_err	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	1sigma flux error (IRAC band 3)	real	4	mJy	-999.9
F3_rms	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	RMS dev. of detection from F3	real	4	mJy	-999.9
F4	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	Flux in IRAC band 4	real	4	mJy	-999.9
F4_5	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	4.5um IRAC (Band 2) flux	real	4	mJy	-999.9
F4_5_err	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	4.5um IRAC (Band 2) 1 sigma error	real	4	mJy	-999.9
F4_5_rms	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	RMS deviation of the individual detections from the final flux for 4.5um IRAC (Band 2)	real	4	mJy	-999.9
F4_5umMag	spitzer_smcSource	SPITZER	The SPITZER F4.5μm band magnitude.	real	4	mag
F4_err	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	1sigma flux error (IRAC band 4)	real	4	mJy	-999.9
F4_rms	glimpse_hrc_inter, glimpse_mca_inter	GLIMPSE	RMS dev. of detection from F4	real	4	mJy	-999.9
F5_8	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	5.8um IRAC (Band 3) flux	real	4	mJy	-999.9
F5_8_err	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	5.8um IRAC (Band 3) 1 sigma error	real	4	mJy	-999.9
F5_8_rms	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	RMS deviation of the individual detections from the final flux for 5.8um IRAC (Band 3)	real	4	mJy	-999.9
F5_8umMag	spitzer_smcSource	SPITZER	The SPITZER F5.8μm band magnitude.	real	4	mag
F70umMag	spitzer_smcSource	SPITZER	The SPITZER F70μm band magnitude.	real	4	mag
F8_0	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	8.0um IRAC (Band 4) flux	real	4	mJy	-999.9
F8_0_err	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	8.0um IRAC (Band 4) 1 sigma error	real	4	mJy	-999.9
F8_0_rms	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	RMS deviation of the individual detections from the final flux for 8.0um IRAC (Band 4)	real	4	mJy	-999.9
F8_0umMag	spitzer_smcSource	SPITZER	The SPITZER F8.0μm band magnitude.	real	4	mag
f_resFlux	nvssSource	NVSS	[PS* ] Residual Code	varchar	2			meta.code
faPcorrelation2	vvvVivaCatalogue	VVVDR5	False alarm probability for Kfi variability index {catalogue TType keyword: FAPcorrelation2}	float	8		-9.999995e8
fCor_100	iras_psc	IRAS	Flux correction factor applied (times 1000, 100 micron)	smallint	2			instr.param
fCor_12	iras_psc	IRAS	Flux correction factor applied (times 1000, 12 micron)	smallint	2			instr.param
fCor_25	iras_psc	IRAS	Flux correction factor applied (times 1000, 25 micron)	smallint	2			instr.param
fCor_60	iras_psc	IRAS	Flux correction factor applied (times 1000, 60 micron)	smallint	2			instr.param
Fe	ravedr5Source	RAVE	[Fe/H] abundance of Fe	real	4	dex		phys.abund.Z
Fe_N	ravedr5Source	RAVE	Number of used spectral lines in calc. of [Fe/H]	smallint	2			meta.number
fg_flg	twomass_xsc	TWOMASS	flux-growth convergence flag.	varchar	6			meta.code
FH	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	2MASS All-Sky PSC H Band flux	real	4	mJy	-999.9
FH_err	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	2MASS All-Sky PSC H Band 1 sigma error	real	4	mJy	-999.9
FiberNumber	ravedr5Source	RAVE	Instrument fiber number (2df) [1..150]	tinyint	1			meta.id;instr.part
FIBRE_R	spectra	SIXDF	fibre number (row on CCD)	smallint	2
FIBRE_V	spectra	SIXDF	fibre number (row on CCD)	smallint	2
field	nvssSource	NVSS	Name of the original survey image field from which the component was derived.	varchar	8			obs.field
field1	iras_asc	IRAS	object field #1 (magnitude/other)	smallint	2			obs.field
field2	iras_asc	IRAS	object field #2 (magnitude/other)	smallint	2			obs.field
field3	iras_asc	IRAS	object field #3 (size/other)	smallint	2			obs.field
fieldID	ExternalProductCatalogue	SHARKSv20210222	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	SHARKSv20210421	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	ULTRAVISTADR4	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSDR3	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSDR4	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSDR5	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSDR6	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSv20150108	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSv20160114	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSv20160507	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSv20170630	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSv20180419	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VHSv20201209	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VIDEODR4	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VIDEODR5	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VIKINGDR4	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VIKINGv20150421	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VIKINGv20151230	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VIKINGv20160406	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VIKINGv20161202	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VIKINGv20170715	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCDEEPv20230713	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCDR4	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCDR5	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20140428	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20140903	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20150309	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20151218	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20160311	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20160822	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20170109	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20170411	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20171101	ID of field	varchar	8		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20180702	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20181120	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20191212	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20210708	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20230816	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VMCv20240226	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VVVDR5	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue	VVVXDR1	ID of field	varchar	16		NONE	meta.id
fieldID	ExternalProductCatalogue, vmcCepheidVariables, vmcPsfCatalogue	VMCDR3	ID of field	varchar	8		NONE	meta.id
fieldID	ProgrammeFrame	SHARKSv20210222	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	SHARKSv20210421	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	ULTRAVISTADR4	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VHSDR6	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VHSv20180419	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VHSv20201209	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCDEEPv20230713	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCDR5	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCv20171101	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCv20180702	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCv20181120	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCv20191212	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCv20210708	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCv20230816	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VMCv20240226	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VSAQC	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VVVDR5	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	ProgrammeFrame	VVVXDR1	UID of position on sky, set just after ProgrammeBuilder runs	int	4		-99999999	meta.bib
fieldID	RegionFieldLinks	SHARKSv20210222	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	SHARKSv20210421	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	ULTRAVISTADR4	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VHSv20201209	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VMCDEEPv20230713	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VMCDR5	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VMCv20191212	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VMCv20210708	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VMCv20230816	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VMCv20240226	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VVVDR5	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RegionFieldLinks	VVVXDR1	Identifier assigned to each pointing in RequiredMosaic	int	4			??
fieldID	RequiredMergeLogMultiEpoch	SHARKSv20210222	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	SHARKSv20210421	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	ULTRAVISTADR4	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VHSDR5	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VHSDR6	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VHSv20160114	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VHSv20160507	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VHSv20170630	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VHSv20180419	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VHSv20201209	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VIKINGv20151230	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VIKINGv20160406	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VIKINGv20161202	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VIKINGv20170715	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCDEEPv20230713	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCDR4	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCDR5	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20151218	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20160311	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20160822	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20170109	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20170411	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20171101	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20180702	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20181120	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20191212	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20210708	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20230816	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VMCv20240226	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VVVDR5	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMergeLogMultiEpoch	VVVXDR1	UID of position on sky. References Required{productType}.fieldID	int	4		-99999999	??
fieldID	RequiredMosaic	SHARKSv20210421	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	ULTRAVISTADR4	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSDR1	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSDR2	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSDR3	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSDR4	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSDR5	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSDR6	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20120926	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20130417	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20150108	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20160114	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20160507	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20170630	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20180419	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VHSv20201209	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIDEODR2	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIDEODR3	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIDEODR4	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIDEODR5	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIDEOv20111208	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGDR2	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGDR3	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGDR4	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20110714	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20111019	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20130417	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20150421	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20151230	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20160406	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20161202	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VIKINGv20170715	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCDEEPv20230713	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCDR1	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCDR3	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCDR4	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCDR5	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20110816	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20110909	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20120126	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20121128	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20130304	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20130805	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20140428	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20140903	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20150309	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20151218	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20160311	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20160822	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20170109	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20170411	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20171101	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20180702	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20181120	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20191212	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20210708	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20230816	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VMCv20240226	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VVVDR1	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VVVDR2	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VVVDR5	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VVVXDR1	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VVVv20100531	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic	VVVv20110718	UID of position on sky.	int	4		-99999999	??
fieldID	RequiredMosaic, RequiredStack, RequiredTile	SHARKSv20210222	UID of position on sky.	int	4		-99999999	??
fieldID	StdFieldInfo	VIDEOv20100513	The fieldID is a UID identifying each of the 43 standard fields that are observed as part of the calibration observations	int	4			obs.field
fieldID	StdFieldInfo	VIKINGv20110714	The fieldID is a UID identifying each of the 43 standard fields that are observed as part of the calibration observations	int	4			obs.field
fieldID	StdFieldInfo	VVVv20100531	The fieldID is a UID identifying each of the 43 standard fields that are observed as part of the calibration observations	int	4			obs.field
fieldID	rosat_bsc, rosat_fsc	ROSAT	identification number of SASS field	varchar	8			obs.field
fieldID	ultravistaMapLcVarFrameSetInfo	ULTRAVISTADR4	fieldID, assigned in grouping procedure	bigint	8			meta.id;obs.field
fieldID	ultravistaMapLcVariability	ULTRAVISTADR4	field ID assigned by ProgrammeBuilder module when grouping.	bigint	8			meta.id;obs.field
fieldID	vmcRRlyraeVariables	VMCDR4	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20160822	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20170109	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20170411	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20171101	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20180702	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20181120	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20191212	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20210708	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20230816	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldID	vmcRRlyraeVariables	VMCv20240226	ID of field {catalogue TType keyword: FIELDID}	varchar	8		NONE	meta.id
fieldid	smashdr2_source	SMASH	Field ID	int	4
FieldName	ravedr5Source	RAVE	Center of Observed Field (RA/Dec)	varchar	8			meta.id;meta.file
fieldName	PreviousCalibParams	SHARKSv20210222	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	SHARKSv20210421	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	VHSv20201209	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	VMCDEEPv20230713	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	VMCv20210708	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	VMCv20230816	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	VMCv20240226	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	VVVDR5	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	PreviousCalibParams	VVVXDR1	Pointing within the table (if all updated in the same way, use ALL)	varchar	16
fieldName	StdFieldInfo	VIDEOv20100513	reference name of field	varchar	16		NONE	????
fieldName	StdFieldInfo	VIKINGv20110714	reference name of field	varchar	16		NONE	????
fieldName	StdFieldInfo	VVVv20100531	reference name of field	varchar	16		NONE	????
fieldName	first08Jul16Source, firstSource, firstSource12Feb16	FIRST	Name of the coadded image containing the source (encodes the position of the field center).	varchar	12			obs.image
fieldName	vmcPointings	VMCDR4	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCDR5	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20160311	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20160822	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20170109	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20170411	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20171101	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20180702	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20181120	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20191212	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20210708	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20230816	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPointings	VMCv20240226	Pointing name, region_tile e.g. LMC_8_8	varchar	16		NONE	meta.id,meta.main
fieldName	vmcPsfDetections	VMCv20181120	ID of field	varchar	8		NONE	meta.id
fieldName	vmcPsfDetections, vmcPsfSource	VMCv20180702	ID of field	varchar	8		NONE	meta.id
fieldName	vvvPointings	VVVDR5	Pointing name, region_tile e.g. B318	varchar	16		NONE	meta.id,meta.main
fieldName	vvvProperMotionCatalogue, vvvVivaCatalogue	VVVDR5	UID of the pointing that this object comes from	varchar	16			meta.id
fieldName	vvvPsfDaophotJKsMergeLog, vvvPsfDophotZYJHKsMergeLog	VVVDR5	the name of the pointing e.g. B418	varchar	16			meta.id,meta.main
fileName	ExternalProductCatalogue	SHARKSv20210222	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	SHARKSv20210421	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	ULTRAVISTADR4	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSDR3	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSDR4	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSDR5	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSDR6	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSv20150108	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSv20160114	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSv20160507	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSv20170630	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSv20180419	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VHSv20201209	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIDEODR4	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIDEODR5	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIKINGDR4	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIKINGv20150421	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIKINGv20151230	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIKINGv20160406	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIKINGv20161202	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VIKINGv20170715	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCDEEPv20230713	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCDR3	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCDR4	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCDR5	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20140428	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20140903	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20150309	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20151218	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20160311	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20160822	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20170109	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20170411	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20171101	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20180702	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20181120	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20191212	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20210708	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20230816	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VMCv20240226	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VVVDR5	Filename of file sent from survey team	varchar	128
fileName	ExternalProductCatalogue	VVVXDR1	Filename of file sent from survey team	varchar	128
fileName	Multiframe	SHARKSv20210222	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	SHARKSv20210421	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	ULTRAVISTADR4	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSDR1	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSDR2	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSDR3	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSDR4	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSDR5	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSDR6	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20120926	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20130417	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20140409	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20150108	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20160114	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20160507	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20170630	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20180419	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VHSv20201209	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIDEODR2	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIDEODR3	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIDEODR4	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIDEODR5	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIDEOv20100513	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIDEOv20111208	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGDR2	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGDR3	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGDR4	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20110714	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20111019	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20130417	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20140402	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20150421	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20151230	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20160406	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20161202	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VIKINGv20170715	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCDEEPv20230713	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCDR1	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCDR2	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCDR3	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCDR4	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCDR5	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20110816	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20110909	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20120126	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20121128	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20130304	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20130805	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20140428	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20140903	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20150309	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20151218	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20160311	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20160822	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20170109	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20170411	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20171101	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20180702	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20181120	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20191212	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20210708	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20230816	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VMCv20240226	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VVVDR1	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VVVDR2	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VVVDR5	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VVVXDR1	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VVVv20100531	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	Multiframe	VVVv20110718	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256		'NONE'	meta.id;meta.file
fileName	sharksMultiframe, ultravistaMultiframe, vhsMultiframe, videoMultiframe, vikingMultiframe, vmcMultiframe, vvvMultiframe	VSAQC	the filename for the multiframe, eg. server:/path/filename.fit	varchar	256			meta.id;meta.file
fileNameRoot	ExternalProduct	SHARKSv20210222	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	SHARKSv20210421	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	ULTRAVISTADR4	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSDR3	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSDR4	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSDR5	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSDR6	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSv20150108	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSv20160114	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSv20160507	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSv20170630	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSv20180419	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VHSv20201209	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIDEODR4	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIDEODR5	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIDEOv20111208	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIKINGDR4	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIKINGv20150421	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIKINGv20151230	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIKINGv20160406	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIKINGv20161202	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VIKINGv20170715	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCDEEPv20230713	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCDR3	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCDR4	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCDR5	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20140428	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20140903	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20150309	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20151218	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20160311	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20160822	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20170109	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20170411	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20171101	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20180702	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20181120	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20191212	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20210708	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20230816	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VMCv20240226	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VVVDR5	File name root of the products	varchar	32
fileNameRoot	ExternalProduct	VVVXDR1	File name root of the products	varchar	32
fileTimeStamp	Multiframe	SHARKSv20210222	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	SHARKSv20210421	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	ULTRAVISTADR4	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSDR1	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSDR2	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSDR3	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSDR4	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSDR5	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSDR6	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20120926	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20130417	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20140409	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20150108	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20160114	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20160507	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20170630	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20180419	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VHSv20201209	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIDEODR2	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIDEODR3	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIDEODR4	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIDEODR5	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIDEOv20100513	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIDEOv20111208	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGDR2	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGDR3	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGDR4	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20110714	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20111019	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20130417	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20140402	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20150421	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20151230	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20160406	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20161202	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VIKINGv20170715	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCDEEPv20230713	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCDR1	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCDR2	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCDR3	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCDR4	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCDR5	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20110816	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20110909	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20120126	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20121128	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20130304	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20130805	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20140428	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20140903	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20150309	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20151218	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20160311	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20160822	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20170109	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20170411	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20171101	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20180702	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20181120	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20191212	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20210708	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20230816	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VMCv20240226	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VVVDR1	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VVVDR2	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VVVDR5	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VVVXDR1	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VVVv20100531	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	Multiframe	VVVv20110718	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8		-99999999	??
fileTimeStamp	sharksMultiframe, ultravistaMultiframe, vhsMultiframe, videoMultiframe, vikingMultiframe, vmcMultiframe, vvvMultiframe	VSAQC	Time stamp digits (from the original CASU directory name and file time stamp) for enforcing uniqueness	bigint	8			??
filter	smashdr2_source	SMASH	Filter, u, g, r, i, or z	varchar	1
filter1	RequiredDiffImage	SHARKSv20210222	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	SHARKSv20210421	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	ULTRAVISTADR4	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSDR1	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSDR2	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSDR3	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSDR4	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSDR5	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSDR6	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20120926	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20130417	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20150108	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20160114	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20160507	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20170630	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20180419	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VHSv20201209	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIDEODR2	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIDEODR3	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIDEODR4	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIDEODR5	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIDEOv20100513	UID of WFCAM narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIDEOv20111208	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGDR2	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGDR3	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGDR4	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20110714	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20111019	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20130417	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20150421	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20151230	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20160406	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20161202	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VIKINGv20170715	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCDEEPv20230713	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCDR1	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCDR3	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCDR4	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCDR5	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20110816	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20110909	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20120126	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20121128	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20130304	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20130805	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20140428	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20140903	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20150309	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20151218	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20160311	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20160822	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20170109	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20170411	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20171101	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20180702	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20181120	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20191212	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20210708	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20230816	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VMCv20240226	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VVVDR1	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VVVDR2	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VVVDR5	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VVVXDR1	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VVVv20100531	UID of WFCAM narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1	RequiredDiffImage	VVVv20110718	UID of narrow band (primary) filter	tinyint	1			meta.code;instr.filter
filter1_bfilmax	machoLMCSource, machoSMCSource	MACHO	Filter 1, blue: max value of optimum filter for LC	real	4
filter1_bfiltime	machoLMCSource, machoSMCSource	MACHO	Filter 1, blue: LC time at which maximum occurred	real	4
filter1_bNhi	machoLMCSource, machoSMCSource	MACHO	Filter 1, blue: number points sigmathreshold high within duration of filter at peak (bfiltime)	smallint	2
filter1_rfilmax	machoLMCSource, machoSMCSource	MACHO	Filter 1, red: max value of optimum filter for LC	real	4
filter1_rfiltime	machoLMCSource, machoSMCSource	MACHO	Filter 1, red: LC time at which maximum occurred	real	4
filter1_rNhi	machoLMCSource, machoSMCSource	MACHO	Filter 1, red: number points sigmathreshold high within duration of filter at peak (rfiltime)	smallint	2
filter2	RequiredDiffImage	SHARKSv20210222	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	SHARKSv20210421	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	ULTRAVISTADR4	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSDR1	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSDR2	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSDR3	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSDR4	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSDR5	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSDR6	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20120926	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20130417	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20150108	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20160114	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20160507	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20170630	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20180419	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VHSv20201209	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIDEODR2	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIDEODR3	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIDEODR4	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIDEODR5	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIDEOv20100513	UID of WFCAM broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIDEOv20111208	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGDR2	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGDR3	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGDR4	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20110714	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20111019	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20130417	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20150421	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20151230	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20160406	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20161202	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VIKINGv20170715	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCDEEPv20230713	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCDR1	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCDR3	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCDR4	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCDR5	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20110816	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20110909	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20120126	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20121128	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20130304	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20130805	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20140428	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20140903	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20150309	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20151218	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20160311	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20160822	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20170109	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20170411	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20171101	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20180702	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20181120	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20191212	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20210708	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20230816	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VMCv20240226	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VVVDR1	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VVVDR2	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VVVDR5	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VVVXDR1	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VVVv20100531	UID of WFCAM broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2	RequiredDiffImage	VVVv20110718	UID of broad band (reference) filter to be subtracted	tinyint	1			meta.code;instr.filter
filter2_bfilmax	machoLMCSource, machoSMCSource	MACHO	Filter 2, blue: max value of optimum filter for LC	real	4
filter2_bfiltime	machoLMCSource, machoSMCSource	MACHO	Filter 2, blue: LC time at which maximum occurred	real	4
filter2_bNhi	machoLMCSource, machoSMCSource	MACHO	Filter 2, blue: number points sigmathreshold high within duration of filter at peak (bfiltime)	smallint	2
filter2_rfilmax	machoLMCSource, machoSMCSource	MACHO	Filter 2, red: max value of optimum filter for LC	real	4
filter2_rfiltime	machoLMCSource, machoSMCSource	MACHO	Filter 2, red: LC time at which maximum occurred	real	4
filter2_rNhi	machoLMCSource, machoSMCSource	MACHO	Filter 2, red: number points sigmathreshold high within duration of filter at peak (rfiltime)	smallint	2
filter3_bfilmax	machoLMCSource, machoSMCSource	MACHO	Filter 3, blue: max value of optimum filter for LC	real	4
filter3_bfiltime	machoLMCSource, machoSMCSource	MACHO	Filter 3, blue: LC time at which maximum occurred	real	4
filter3_bNhi	machoLMCSource, machoSMCSource	MACHO	Filter 3, blue: number points sigmathreshold high within duration of filter at peak (bfiltime)	smallint	2
filter3_rfilmax	machoLMCSource, machoSMCSource	MACHO	Filter 3, red: max value of optimum filter for LC	real	4
filter3_rfiltime	machoLMCSource, machoSMCSource	MACHO	Filter 3, red: LC time at which maximum occurred	real	4
filter3_rNhi	machoLMCSource, machoSMCSource	MACHO	Filter 3, red: number points sigmathreshold high within duration of filter at peak (rfiltime)	smallint	2
filteredImageName	MapFrameStatus	SHARKSv20210222	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	SHARKSv20210421	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	ULTRAVISTADR4	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VHSv20201209	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VMCDEEPv20230713	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VMCDR5	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VMCv20191212	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VMCv20210708	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VMCv20230816	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VMCv20240226	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VVVDR5	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filteredImageName	MapFrameStatus	VVVXDR1	the filename of the associated filtered image name, eg. server:/path/filename_st_tl_two.fit	varchar	256		NONE
filterID	CombinedFilters	SHARKSv20210222	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	SHARKSv20210421	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	ULTRAVISTADR4	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VHSv20201209	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VMCDEEPv20230713	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VMCDR5	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VMCv20191212	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VMCv20210708	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VMCv20230816	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VMCv20240226	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VVVDR5	UID of combined filter	tinyint	1			meta.code
filterID	CombinedFilters	VVVXDR1	UID of combined filter	tinyint	1			meta.code
filterID	Detection	PS1DR2	Filter identifier. Details in the Filter table.	tinyint	1
filterID	Filter	SHARKSv20210421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	ULTRAVISTADR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSDR6	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20120926	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20150108	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20160114	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20160507	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20170630	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20180419	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VHSv20201209	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIDEODR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIDEODR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIDEODR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIDEODR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIDEOv20100513	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIDEOv20111208	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20110714	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20111019	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20150421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20151230	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20160406	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20161202	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VIKINGv20170715	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCDEEPv20230713	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20110816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20110909	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20120126	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20121128	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20130304	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20130805	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20140428	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20140903	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20150309	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20151218	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20160311	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20160822	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20170109	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20170411	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20171101	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20180702	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20181120	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20191212	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20210708	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20230816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VMCv20240226	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VSAQC	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VVVDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VVVDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VVVDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VVVXDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VVVv20100531	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter	VVVv20110718	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	Filter, MapFilterLupt, RequiredFilters, RequiredMosaic, RequiredStack, RequiredTile	SHARKSv20210222	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	FilterExtinctionCoefficients	EXTINCT	UID of filter	smallint	2			meta.id;meta.main
filterID	FilterSections	SHARKSv20210421	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	ULTRAVISTADR4	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSDR3	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSDR4	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSDR5	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSDR6	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSv20150108	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSv20160114	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSv20160507	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSv20170630	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSv20180419	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VHSv20201209	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIDEODR4	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIDEODR5	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIKINGDR4	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIKINGv20150421	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIKINGv20151230	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIKINGv20160406	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIKINGv20161202	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VIKINGv20170715	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCDEEPv20230713	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCDR3	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCDR4	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCDR5	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20140428	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20140903	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20150309	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20151218	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20160311	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20160822	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20170109	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20170411	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20171101	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20180702	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20181120	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20191212	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20210708	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20230816	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VMCv20240226	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VSAQC	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VVVDR5	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections	VVVXDR1	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	FilterSections, RequiredMergeLogMultiEpoch	SHARKSv20210222	UID of combined filter (assigned in OSA: 1=u,2=g,3=r,4=i,5=z,6=blank)	tinyint	1			meta.code;instr.filter
filterID	Multiframe	SHARKSv20210222	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	SHARKSv20210421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	ULTRAVISTADR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSDR6	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20120926	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20140409	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20150108	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20160114	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20160507	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20170630	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20180419	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VHSv20201209	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIDEODR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIDEODR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIDEODR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIDEODR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIDEOv20100513	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIDEOv20111208	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20110714	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20111019	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20140402	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20150421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20151230	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20160406	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20161202	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VIKINGv20170715	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCDEEPv20230713	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20110816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20110909	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20120126	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20121128	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20130304	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20130805	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20140428	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20140903	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20150309	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20151218	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20160311	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20160822	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20170109	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20170411	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20171101	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20180702	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20181120	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20191212	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20210708	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20230816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VMCv20240226	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VVVDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VVVDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VVVDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VVVXDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VVVv20100531	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	Multiframe	VVVv20110718	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	SHARKSv20210222	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	SHARKSv20210421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	ULTRAVISTADR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSDR6	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20120926	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20140409	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20150108	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20160114	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20160507	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20170630	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20180419	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VHSv20201209	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIDEODR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIDEODR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIDEODR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIDEODR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIDEOv20100513	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIDEOv20111208	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20110714	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20111019	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20140402	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20150421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20151230	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20160406	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20161202	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VIKINGv20170715	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCDEEPv20230713	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20110816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20110909	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20120126	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20121128	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20130304	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20130805	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20140428	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20140903	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20150309	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20151218	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20160311	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20160822	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20170109	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20170411	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20171101	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20180702	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20181120	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20191212	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20210708	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20230816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VMCv20240226	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VVVDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VVVDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VVVDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VVVXDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VVVv20100531	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	MultiframeDetector	VVVv20110718	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks) {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	tinyint	1		0	meta.code;instr.filter
filterID	RequiredListDrivenProduct	VHSv20120926	filterID of the data that the list is driven from. If 0, then take the source list.	tinyint	1		0
filterID	RequiredListDrivenProduct	VIDEODR3	filterID of the data that the list is driven from. If 0, then take the source list.	tinyint	1		0
filterID	RequiredListDrivenProduct	VIKINGDR3	filterID of the data that the list is driven from. If 0, then take the source list.	tinyint	1		0
filterID	RequiredListDrivenProduct	VMCv20121128	filterID of the data that the list is driven from. If 0, then take the source list.	tinyint	1		0
filterID	RequiredListDrivenProduct	VMCv20130304	filterID of the data that the list is driven from. If 0, then take the source list.	tinyint	1		0
filterID	RequiredListDrivenProduct	VVVDR1	filterID of the data that the list is driven from. If 0, then take the source list.	tinyint	1		0
filterID	sharksDetection	SHARKSv20210222	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	sharksDetection	SHARKSv20210421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	sharksMultiframe, sharksMultiframeDetector, ultravistaMultiframe, ultravistaMultiframeDetector, vhsMultiframe, vhsMultiframeDetector, videoMultiframe, videoMultiframeDetector, vikingMultiframe, vikingMultiframeDetector, vmcMultiframe, vmcMultiframeDetector, vvvMultiframe, vvvMultiframeDetector	VSAQC	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks)	tinyint	1			meta.code;instr.filter
filterID	ultravistaDetection	ULTRAVISTADR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	ultravistaMapRemeasAver	ULTRAVISTADR4	UID of combined filter (assigned in VSA)	tinyint	1			meta.code;instr.filter
filterID	ultravistaMapRemeasurement	ULTRAVISTADR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSDR6	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20120926	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20140409	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20150108	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20160114	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20160507	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20170630	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20180419	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsDetection	VHSv20201209	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vhsListRemeasurement	VHSDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	videoDetection	VIDEODR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	videoDetection	VIDEODR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	videoDetection	VIDEODR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	videoDetection	VIDEODR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	videoDetection	VIDEOv20100513	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	videoDetection	VIDEOv20111208	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	videoListRemeasurement	VIDEOv20100513	UID of combined filter (assigned in WSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20110714	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20111019	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20130417	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20140402	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20150421	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20151230	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20160406	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20161202	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingDetection	VIKINGv20170715	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingListRemeasurement	VIKINGv20110714	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingListRemeasurement	VIKINGv20111019	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingMapRemeasAver	VIKINGZYSELJv20170124	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vikingMapRemeasAver, vikingMapRemeasurement	VIKINGZYSELJv20160909	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCDR3	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCDR4	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20110816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20110909	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20120126	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20121128	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20130304	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20130805	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20140428	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20140903	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20150309	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20151218	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20160311	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20160822	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20170109	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20170411	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20171101	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20180702	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20181120	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20191212	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20210708	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20230816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcDetection	VMCv20240226	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcListRemeasurement	VMCv20110816	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcListRemeasurement	VMCv20110909	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vmcdeepDetection	VMCDEEPv20230713	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vvvDetection	VVVDR1	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vvvDetection	VVVDR2	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vvvDetection	VVVv20100531	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vvvDetection, vvvDetectionPawPrints, vvvDetectionTiles	VVVDR5	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=Ks,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vvvListRemeasurement	VVVv20100531	UID of combined filter (assigned in WSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterID	vvvListRemeasurement	VVVv20110718	UID of combined filter (assigned in VSA: 1=Z,2=Y,3=J,4=H,5=K,6=H2,7=Br,8=blank)	tinyint	1			meta.code;instr.filter
filterIDList	CombinedFilters	SHARKSv20210222	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	SHARKSv20210421	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	ULTRAVISTADR4	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VHSv20201209	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VMCDEEPv20230713	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VMCDR5	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VMCv20191212	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VMCv20210708	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VMCv20230816	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VMCv20240226	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VVVDR5	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterIDList	CombinedFilters	VVVXDR1	List of filters as comma separated string. Optional put archive in front if filters from multiple archives: eg. WSA-1,2,3;SDSS-2,3,4	varchar	64
filterList	RequiredListDrivenProduct	VHSv20130417	the list of filters used in initial selection? (standard programmeFilters) if NONE	varchar	64		NONE
filterList	RequiredListDrivenProduct	VIKINGv20130417	the list of filters used in initial selection? (standard programmeFilters) if NONE	varchar	64		NONE
filterList	RequiredListDrivenProduct	VMCv20130805	the list of filters used in initial selection? (standard programmeFilters) if NONE	varchar	64		NONE
filterN	machoLMCSource, machoSMCSource	MACHO	number of filters applied; always 3	smallint	2
filterName	Multiframe	SHARKSv20210222	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	SHARKSv20210421	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	ULTRAVISTADR4	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSDR1	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSDR2	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSDR3	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSDR4	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSDR5	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSDR6	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20120926	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20130417	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20140409	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20150108	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20160114	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20160507	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20170630	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20180419	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VHSv20201209	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIDEODR2	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIDEODR3	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIDEODR4	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIDEODR5	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIDEOv20100513	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIDEOv20111208	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGDR2	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGDR3	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGDR4	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20110714	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20111019	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20130417	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20140402	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20150421	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20151230	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20160406	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20161202	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VIKINGv20170715	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCDEEPv20230713	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCDR1	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCDR2	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCDR3	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCDR4	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCDR5	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20110816	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20110909	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20120126	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20121128	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20130304	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20130805	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20140428	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20140903	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20150309	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20151218	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20160311	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20160822	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20170109	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20170411	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20171101	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20180702	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20181120	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20191212	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20210708	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20230816	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VMCv20240226	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VVVDR1	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VVVDR2	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VVVDR5	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VVVXDR1	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VVVv20100531	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	Multiframe	VVVv20110718	VISTA combined filter name {image primary HDU keyword: HIERARCH ESO INS FILT1 NAME}	varchar	16		'NONE'	??
filterName	sharksMultiframe, ultravistaMultiframe, vhsMultiframe, videoMultiframe, vikingMultiframe, vmcMultiframe, vvvMultiframe	VSAQC	VISTA combined filter name	varchar	16			??
filterType	Filter	SHARKSv20210222	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	SHARKSv20210421	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	ULTRAVISTADR4	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSDR4	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSDR5	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSDR6	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSv20150108	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSv20160114	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSv20160507	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSv20170630	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSv20180419	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VHSv20201209	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VIDEODR4	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VIDEODR5	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VIKINGv20150421	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VIKINGv20151230	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VIKINGv20160406	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VIKINGv20161202	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VIKINGv20170715	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCDEEPv20230713	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCDR4	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCDR5	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20140903	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20150309	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20151218	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20160311	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20160822	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20170109	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20170411	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20171101	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20180702	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20181120	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20191212	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20210708	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20230816	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VMCv20240226	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VSAQC	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VVVDR5	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
filterType	Filter	VVVXDR1	The type of filter BROAD, NARROW, BROADLIST	varchar	16		NONE
finalProductTable	RequiredMatchedApertureProduct	SHARKSv20210222	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	SHARKSv20210421	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	ULTRAVISTADR4	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VHSv20201209	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VMCDEEPv20230713	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VMCDR5	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VMCv20191212	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VMCv20210708	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VMCv20230816	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VMCv20240226	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VVVDR5	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
finalProductTable	RequiredMatchedApertureProduct	VVVXDR1	the name of the final product table for this product	varchar	64			meta.id;meta.dataset
fInt	first08Jul16Source, firstSource, firstSource12Feb16	FIRST	integrated flux densities	real	4	mJy		phot.flux.density;em.radio.750-1500MHz
Fit_Flag_Binney	ravedr5Source	RAVE	See final paragraph 3 (Binney et al. 2014)	int	4			meta.code.qual
Fitmag_I	denisDR3Source	DENIS	Magnitude in I band from PSF fit	float	8	mag
Fitmag_J	denisDR3Source	DENIS	Magnitude in J band from PSF fit	float	8	mag
Fitmag_K	denisDR3Source	DENIS	Magnitude in K band from PSF fit	float	8	mag
FitQuality_Binney	ravedr5Source	RAVE	Given by symbol F in eq 15 of Binney et al. (2014)	real	4			meta.code.qual
FJ	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	2MASS All-Sky PSC J Band flux	real	4	mJy	-999.9
FJ_err	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	2MASS All-Sky PSC J Band 1 sigma error	real	4	mJy	-999.9
FKs	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	2MASS All-Sky PSC Ks Band flux	real	4	mJy	-999.9
FKs_err	glimpse1_hrc, glimpse1_mca, glimpse2_hrc, glimpse2_mca	GLIMPSE	2MASS All-Sky PSC Ks Band 1 sigma error	real	4	mJy	-999.9
flag	sharksSourceXDetectionBestMatch	SHARKSv20210222	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	sharksSourceXDetectionBestMatch	SHARKSv20210421	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	smashdr2_deep, smashdr2_object	SMASH	OR-combined Source Extractor FLAG value from coadd image	smallint	2
flag	smashdr2_source	SMASH	Source Extractor FLAG value from coadd image	smallint	2
flag	ultravistaSourceXDetectionBestMatch	ULTRAVISTADR4	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	videoSourceXDetectionBestMatch	VIDEODR2	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	videoSourceXDetectionBestMatch	VIDEODR3	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	videoSourceXDetectionBestMatch	VIDEODR4	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	videoSourceXDetectionBestMatch	VIDEODR5	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	videoSourceXDetectionBestMatch	VIDEOv20100513	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	videoSourceXDetectionBestMatch	VIDEOv20111208	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGDR2	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGDR3	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGDR4	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20110714	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20111019	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20130417	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20140402	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20150421	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20151230	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20160406	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20161202	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vikingSourceXDetectionBestMatch	VIKINGv20170715	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCDR1	Flag for potential matching problems	int	4		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCDR2	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCDR3	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCDR4	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCDR5	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20110816	Flag for potential matching problems	int	4		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20110909	Flag for potential matching problems	int	4		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20120126	Flag for potential matching problems	int	4		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20121128	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20130304	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20130805	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20140428	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20140903	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20150309	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20151218	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20160311	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20160822	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20170109	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20170411	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20171101	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20180702	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20181120	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20191212	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20210708	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20230816	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcSourceXSynopticSourceBestMatch	VMCv20240226	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vmcdeepSourceXSynopticSourceBestMatch	VMCDEEPv20230713	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vvvSourceXDetectionBestMatch	VVVDR1	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vvvSourceXDetectionBestMatch	VVVDR2	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vvvSourceXDetectionBestMatch	VVVDR5	Flag for potential matching problems	tinyint	1		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vvvSourceXDetectionBestMatch	VVVv20100531	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vvvSourceXDetectionBestMatch	VVVv20110718	Flag for potential matching problems	tinyint	1		0
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag	vvvSourceXSynopticSourceBestMatch	VVVDR1	Flag for potential matching problems	int	4		0	meta.code.qual
			flag=1 if the same intermediate stack detection is linked to two different unique sources. This can happen in images where the seeing was poorer than average or if a source has moved over time and overlaps with another source. flag=2 no intermediate stack detection, but the expected location is in 1 dither offset of the edge of the stack.
flag160	sage_lmcMips160Source	SPITZER	How many times a source was observed by different AORs in a single epoch	int	4
flag24	sage_lmcMips24Source	SPITZER	How many times a source was observed by different AORs in a single epoch	int	4
flag70	sage_lmcMips70Source	SPITZER	How many times a source was observed by different AORs in a single epoch	int	4
Flag_I	denisDR3Source	DENIS	Image and source flag in I band This flag is the concatenation of image and source flags, in hexadecimal format. For the image flag, the first two digits contain: Bit 0 - clouds during observation; Bit 1 - electronic Read-Out problem; Bit 2 - internal temperature problem; Bit 3 - very bright star; Bit 4 - bright star; Bit 5 - stray light; Bit 6 - unknown problem. For the source flag, the last two digits contain: Bit 0 - source might be a dust on mirror; Bit 1 - source is a ghost detection of a bright star; Bit 2 - source is saturated; Bit 3 - source is multiple detect.	varchar	5
Flag_J	denisDR3Source	DENIS	Image and source flag in J band This flag is the concatenation of image and source flags, in hexadecimal format. For the image flag, the first two digits contain: Bit 0 - clouds during observation; Bit 1 - electronic Read-Out problem; Bit 2 - internal temperature problem; Bit 3 - very bright star; Bit 4 - bright star; Bit 5 - stray light; Bit 6 - unknown problem. For the source flag, the last two digits contain: Bit 0 - source might be a dust on mirror; Bit 1 - source is a ghost detection of a bright star; Bit 2 - source is saturated; Bit 3 - source is multiple detect.	varchar	5
Flag_K	denisDR3Source	DENIS	Image and source flag in K band This flag is the concatenation of image and source flags, in hexadecimal format. For the image flag, the first two digits contain: Bit 0 - clouds during observation; Bit 1 - electronic Read-Out problem; Bit 2 - internal temperature problem; Bit 3 - very bright star; Bit 4 - bright star; Bit 5 - stray light; Bit 6 - unknown problem. For the source flag, the last two digits contain: Bit 0 - source might be a dust on mirror; Bit 1 - source is a ghost detection of a bright star; Bit 2 - source is saturated; Bit 3 - source is multiple detect.	varchar	5
Flag_mult	denisDR3Source	DENIS	Multiplicity flag; if set to 1, this flag indicates that the source was detected in two consecutive images, and that the 2 measurements have been combined.	tinyint	1
flagDataType	vvvVivaCatalogue	VVVDR5	Flag about data type, i.e correlated data (CCD) or non-correlated data (NCD) {catalogue TType keyword: FlagDataType}	varchar	4		NONE
FLAGEQ	akari_lmc_psa_v1, akari_lmc_psc_v1	AKARI	Eqband flag that indicates the band at which the coordinates are determined (0:N3, 1:S7, 2:S11, 3:L15, 4:L24)	char	1
flagFbias6	vvvVivaCatalogue	VVVDR5	Counts of periods within $10^{-6}$ periods, calculated per tile (for more details see Sect. \ref{sec_mainperiod}) related with FreqLSG {catalogue TType keyword: FlagFbias6}	int	4		-9999
flagFbias7	vvvVivaCatalogue	VVVDR5	Counts of periods within $10^{-7}$ periods, calculated per tile (for more details see Sect. \ref{sec_mainperiod}) related with FreqLSG {catalogue TType keyword: FlagFbias7}	int	4		-9999
flagNfreq	vvvVivaCatalogue	VVVDR5	Number of frequencies in agreement with FreqLSG or its harmonic or subharmonic. It assumes values from 1 to 5 {catalogue TType keyword: FlagNfreq}	smallint	2		-9999
FLAGS	mgcDetection	MGC	Extraction flags	int	4
flags	masterDR2	SKYMAPPER	Bitwise OR of Source Extractor flags across all observations	smallint	2			meta.code
flags_psf	masterDR2	SKYMAPPER	Bitmask indicating whether photometry is likely biased by neighbours at >1%; bits 0-5 correspond to filters z-u	int	4			meta.code
FLAGSL15	akari_lmc_psa_v1, akari_lmc_psc_v1	AKARI	Star designation The flag consist of seven characters: exposure, photometry, saturation, mux bleed, column pulldown, artifact, and multiple flags.	char	7		9999999
FLAGSL24	akari_lmc_psa_v1, akari_lmc_psc_v1	AKARI	Star designation The flag consist of seven characters: exposure, photometry, saturation, mux bleed, column pulldown, artifact, and multiple flags.	char	7		9999999
FLAGSN3	akari_lmc_psa_v1, akari_lmc_psc_v1	AKARI	Star designation The flag consist of seven characters: exposure, photometry, saturation, mux bleed, column pulldown, artifact, and multiple flags.	char	7		9999999
FLAGSS11	akari_lmc_psa_v1, akari_lmc_psc_v1	AKARI	Star designation The flag consist of seven characters: exposure, photometry, saturation, mux bleed, column pulldown, artifact, and multiple flags.	char	7		9999999
FLAGSS7	akari_lmc_psa_v1, akari_lmc_psc_v1	AKARI	Star designation The flag consist of seven characters: exposure, photometry, saturation, mux bleed, column pulldown, artifact, and multiple flags.	char	7		9999999
flame_flags	gaia_source	GAIADR2	Flags from Apsis-FLAME analysis	bigint	8			meta.code
flatID	Multiframe	SHARKSv20210222	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	SHARKSv20210421	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	ULTRAVISTADR4	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSDR1	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSDR2	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSDR3	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSDR4	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSDR5	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSDR6	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20120926	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20130417	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20140409	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20150108	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20160114	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20160507	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20170630	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20180419	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VHSv20201209	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIDEODR2	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIDEODR3	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIDEODR4	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIDEODR5	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIDEOv20100513	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIDEOv20111208	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGDR2	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGDR3	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGDR4	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20110714	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20111019	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20130417	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20140402	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20150421	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20151230	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20160406	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20161202	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VIKINGv20170715	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCDEEPv20230713	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCDR1	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCDR2	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCDR3	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCDR4	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCDR5	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20110816	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20110909	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20120126	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20121128	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20130304	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20130805	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20140428	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20140903	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20150309	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20151218	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20160311	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20160822	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20170109	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20170411	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20171101	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20180702	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20181120	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20191212	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20210708	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20230816	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VMCv20240226	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VVVDR1	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VVVDR2	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VVVDR5	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VVVXDR1	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VVVv20100531	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	Multiframe	VVVv20110718	UID of library calibration flatfield frame {image extension keyword: FLATCOR}	bigint	8		-99999999	obs.field
flatID	sharksMultiframe, ultravistaMultiframe, vhsMultiframe, videoMultiframe, vikingMultiframe, vmcMultiframe, vvvMultiframe	VSAQC	UID of library calibration flatfield frame	bigint	8		-99999999	obs.field
flux160	sage_lmcMips160Source	SPITZER	160um flux	float	8	mJy
flux24	sage_lmcMips24Source	SPITZER	24um flux	float	8	mJy
flux3_6	sage_lmcIracSource	SPITZER	3.6um flux	real	4	mJy
flux3_6	sage_smcIRACv1_5Source	SPITZER	3.6um IRAC (Band 1) flux	real	4	mJy
flux4_5	sage_lmcIracSource	SPITZER	4.5um flux	real	4	mJy
flux4_5	sage_smcIRACv1_5Source	SPITZER	4.5um IRAC (Band 1) flux	real	4	mJy
flux5_8	sage_lmcIracSource	SPITZER	5.8um flux	real	4	mJy
flux5_8	sage_smcIRACv1_5Source	SPITZER	5.8um IRAC (Band 1) flux	real	4	mJy
flux70	sage_lmcMips70Source	SPITZER	70um flux	float	8	mJy
flux8_0	sage_lmcIracSource	SPITZER	8.0um flux	real	4	mJy
flux8_0	sage_smcIRACv1_5Source	SPITZER	8.0um IRAC (Band 1) flux	real	4	mJy
flux_100	iras_psc	IRAS	Averaged non-color corrected 100 micron flux density	real	4	Jansky (1.0E-26 W/m**2/Hz)		phot.flux.density;em.IR.60-100um
flux_12	iras_psc	IRAS	Averaged non-color corrected 12 micron flux density	real	4	Jansky (1.0E-26 W/m**2/Hz)		phot.flux.density;em.IR.8-15um
flux_25	iras_psc	IRAS	Averaged non-color corrected 25 micron flux density	real	4	Jansky (1.0E-26 W/m**2/Hz)		phot.flux.density;em.IR.15-30um
flux_60	iras_psc	IRAS	Averaged non-color corrected 60 micron flux density	real	4	Jansky (1.0E-26 W/m**2/Hz)		phot.flux.density;em.IR.30-60um
fluxH	sage_lmcIracSource	SPITZER	H band flux	real	4	mJy
fluxH	sage_smcIRACv1_5Source	SPITZER	2MASS All-Sky PSC H band flux	real	4	mJy
fluxJ	sage_lmcIracSource	SPITZER	J band flux	real	4	mJy
fluxJ	sage_smcIRACv1_5Source	SPITZER	2MASS All-Sky PSC J band flux	real	4	mJy
fluxK	sage_lmcIracSource	SPITZER	K band flux	real	4	mJy
fluxK	sage_smcIRACv1_5Source	SPITZER	2MASS All-Sky PSC K band flux	real	4	mJy
FMAG	grs_ngpSource, grs_ranSource, grs_sgpSource	TWODFGRS	Unmatched raw APM 2" profile integrated mag	real	4
fMaj	first08Jul16Source, firstSource, firstSource12Feb16	FIRST	major axes derived from the elliptical Gaussian model for the source before deconvolution.	real	4	arcsec		phys.angSize.smajAxis
fMin	first08Jul16Source, firstSource, firstSource12Feb16	FIRST	minor axes derived from the elliptical Gaussian model for the source before deconvolution.	real	4	arcsec		phys.angSize.sminAxis
focus	twomass_scn	TWOMASS	Focus setting of telescope at beginning of scan.	smallint	2			instr.tel.focalLength
focus	twomass_sixx2_scn	TWOMASS	telescope focus setting	smallint	2
FOCUS_R	spectra	SIXDF	R frame spectrograph focus value	real	4
FOCUS_V	spectra	SIXDF	V frame spectrograph focus value	real	4
FootPrint_Flag	ravedr5Source	RAVE	1 => in RAVE selection function footprint, 0 => outside footprint	tinyint	1			meta.code.qual
forced	smashdr2_source	SMASH	Boolean flag indicating if this is forced (ALLFRAME) photometry	smallint	2
fPA	first08Jul16Source, firstSource, firstSource12Feb16	FIRST	position angle (east of north) derived from the elliptical Gaussian model for the source before deconvolution.	real	4	degrees		pos.posAng
fPeak	first08Jul16Source, firstSource, firstSource12Feb16	FIRST	peak flux densities	real	4	mJy		phot.flux.density;em.radio.750-1500MHz
fQual_100	iras_psc	IRAS	100 micron flux density quality.	smallint	2			meta.code.qual
fQual_12	iras_psc	IRAS	12 micron flux density quality.	smallint	2			meta.code.qual
fQual_25	iras_psc	IRAS	25 micron flux density quality.	smallint	2			meta.code.qual
fQual_60	iras_psc	IRAS	60 micron flux density quality.	smallint	2			meta.code.qual
frac_c	ravedr5Source	RAVE	Fraction of spectrum used [Chemical pipeline] (Note 2)	real	4			stat.value
frame_rotator_object_type	gaia_source	GAIADR2	The type of the source mainly used for frame rotation	int	4			meta.code
frameCode	videoDetection	VIDEOv20100513	Code for frameType of science frame from which these data were extracted	tinyint	1		0
			Post-processing bit flag assigned to represent the frameType of the image that the detections were extracted from. Catalogues come from frames that are interleaved (leav) and stacked or simply stacked (stack). These may be filtered (filt) to remove variations in the background at certain scales. 6 VISTA pawprint stacks are typically tiled (tile) to make a 1.5 square degree tile. Pawprints or tiles may be stacked to produce deep stacks or tiles (deep) and multiple tiles may be mosaicked together to produce a mosaic (mosaic). Thus a science image may be one of several types and the catalogue data from these images may or may not be used in different curation use cases or by different users. The error bit flag allows users to select or reject different data. Bit FrameType Decimal Hexadecimal -- NONE 0 0x00000000 0 leav 1 0x00000001 1 stack 2 0x00000010 2 filt 4 0x00000100 3 tile 8 0x00001000 4 deep 16 0x00010000 5 mosaic 32 0x00100000 Different frame types can be built up from these bit flags. E.g., a mosaicdeepstack would be 0x00110010 or 50 in decimal. A tile would always have bit 3 set to 1. The decimal threshold (column 4) gives the minimum value of the quality flag for a detection having the given condition (since other bits in the flag may be set also; the corresponding hexadecimal value, where each digit corresponds to 4 bits in the flag, can be easier to compute when writing SQL queries to test for a given condition). For example, to exclude all detections in the VHS from tile frames, but not deep tile frames, include a predicate ... AND frameCode & 0x00001000 = 1 AND frameCode & 0x00010000 = 0. See the SQL Cookbook and other online pages for further information. All other frameTypes, such as normal, sky, dark, conf have frameCode=0.
frameCode	vvvDetection	VVVv20100531	Code for frameType of science frame from which these data were extracted	tinyint	1		0
			Post-processing bit flag assigned to represent the frameType of the image that the detections were extracted from. Catalogues come from frames that are interleaved (leav) and stacked or simply stacked (stack). These may be filtered (filt) to remove variations in the background at certain scales. 6 VISTA pawprint stacks are typically tiled (tile) to make a 1.5 square degree tile. Pawprints or tiles may be stacked to produce deep stacks or tiles (deep) and multiple tiles may be mosaicked together to produce a mosaic (mosaic). Thus a science image may be one of several types and the catalogue data from these images may or may not be used in different curation use cases or by different users. The error bit flag allows users to select or reject different data. Bit FrameType Decimal Hexadecimal -- NONE 0 0x00000000 0 leav 1 0x00000001 1 stack 2 0x00000010 2 filt 4 0x00000100 3 tile 8 0x00001000 4 deep 16 0x00010000 5 mosaic 32 0x00100000 Different frame types can be built up from these bit flags. E.g., a mosaicdeepstack would be 0x00110010 or 50 in decimal. A tile would always have bit 3 set to 1. The decimal threshold (column 4) gives the minimum value of the quality flag for a detection having the given condition (since other bits in the flag may be set also; the corresponding hexadecimal value, where each digit corresponds to 4 bits in the flag, can be easier to compute when writing SQL queries to test for a given condition). For example, to exclude all detections in the VHS from tile frames, but not deep tile frames, include a predicate ... AND frameCode & 0x00001000 = 1 AND frameCode & 0x00010000 = 0. See the SQL Cookbook and other online pages for further information. All other frameTypes, such as normal, sky, dark, conf have frameCode=0.
frameSetID	sharksMergeLog	SHARKSv20210421	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	sharksMergeLog, sharksVarFrameSetInfo, sharksVariability	SHARKSv20210222	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	sharksSource	SHARKSv20210222	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	sharksSource	SHARKSv20210421	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	ultravistaMergeLog, ultravistaRemeasMergeLog, ultravistaVarFrameSetInfo, ultravistaVariability	ULTRAVISTADR4	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	ultravistaSource	ULTRAVISTADR4	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	ultravistaSourceRemeasurement	ULTRAVISTADR4	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vhsMergeLog	VHSDR1	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSDR2	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSDR3	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSDR4	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSDR5	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSDR6	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20120926	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20130417	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20140409	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20150108	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20160114	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20160507	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20170630	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20180419	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsMergeLog	VHSv20201209	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSDR1	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSDR2	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSDR3	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSDR4	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSDR5	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSDR6	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20120926	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20130417	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20140409	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20150108	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20160114	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20160507	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20170630	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20180419	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSource	VHSv20201209	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vhsSourceRemeasurement	VHSDR1	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	videoMergeLog	VIDEODR3	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoMergeLog	VIDEODR4	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoMergeLog	VIDEODR5	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoMergeLog	VIDEOv20100513	frame set ID, unique over the whole WSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoMergeLog	VIDEOv20111208	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoMergeLog, videoVarFrameSetInfo, videoVariability	VIDEODR2	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoSource	VIDEODR2	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoSource	VIDEODR3	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoSource	VIDEODR4	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoSource	VIDEODR5	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoSource	VIDEOv20100513	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoSource	VIDEOv20111208	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	videoSourceRemeasurement	VIDEOv20100513	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vikingMergeLog	VIKINGDR3	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGDR4	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20110714	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20111019	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20130417	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20140402	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20150421	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20151230	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20160406	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20161202	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog	VIKINGv20170715	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingMergeLog, vikingVarFrameSetInfo, vikingVariability	VIKINGDR2	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGDR2	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGDR3	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGDR4	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20110714	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20111019	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20130417	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20140402	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20150421	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20151230	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20160406	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20161202	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSource	VIKINGv20170715	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingSourceRemeasurement	VIKINGv20110714	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vikingSourceRemeasurement	VIKINGv20111019	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vikingZY_selJ_RemeasMergeLog	VIKINGZYSELJv20160909	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingZY_selJ_RemeasMergeLog	VIKINGZYSELJv20170124	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vikingZY_selJ_SourceRemeasurement	VIKINGZYSELJv20160909	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vikingZY_selJ_SourceRemeasurement	VIKINGZYSELJv20170124	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vmcMergeLog	VMCDR2	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCDR3	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCDR4	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCDR5	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20110816	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20110909	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20120126	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20121128	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20130304	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20130805	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20140428	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20140903	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20150309	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20151218	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20160311	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20160822	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20170109	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20170411	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20171101	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20180702	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20181120	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20191212	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20210708	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20230816	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog	VMCv20240226	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcMergeLog, vmcVarFrameSetInfo, vmcVariability	VMCDR1	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcPsfDetections	VMCv20181120	frame set ID, linked to vmcMergeLog, assigned by merging procedure	bigint	8			meta.id
frameSetID	vmcPsfDetections, vmcPsfSource	VMCv20180702	frame set ID, linked to vmcMergeLog, assigned by merging procedure	bigint	8			meta.id
frameSetID	vmcSource	VMCDR1	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCDR2	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCDR3	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCDR4	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCDR5	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20110816	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20110909	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20120126	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20121128	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20130304	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20130805	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20140428	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20140903	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20150309	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20151218	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20160311	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20160822	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20170109	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20170411	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20171101	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20180702	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20181120	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20191212	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20210708	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20230816	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSource	VMCv20240226	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcSourceRemeasurement	VMCv20110816	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vmcSourceRemeasurement	VMCv20110909	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vmcdeepMergeLog, vmcdeepVarFrameSetInfo, vmcdeepVariability	VMCDEEPv20230713	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vmcdeepSource	VMCDEEPv20230713	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvMergeLog	VVVDR2	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvMergeLog	VVVv20100531	frame set ID, unique over the whole WSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvMergeLog	VVVv20110718	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvMergeLog, vvvPsfDophotZYJHKsMergeLog	VVVDR5	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvMergeLog, vvvVarFrameSetInfo, vvvVariability	VVVDR1	frame set ID, unique over the whole VSA via programme ID prefix, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvPsfDaophotJKsMergeLog	VVVDR5	frame set ID, assigned by merging procedure	bigint	8			meta.id;obs.field
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvPsfDaophotJKsSource, vvvPsfDophotZYJHKsSource	VVVDR5	UID of the set of frames that this merged source comes from	bigint	8			meta.id
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvSource	VVVDR1	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvSource	VVVDR2	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvSource	VVVDR5	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvSource	VVVv20100531	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvSource	VVVv20110718	UID of the set of frames that this merged source comes from	bigint	8			meta.bib
			Each merged source in the merged source tables come from a set of individual passband frames (with different filters and/or different epochs of observation). In the WSA, a frame is generally the image provided by one detector (dither-stacked and interlaced as appropriate); hence a frame set comprises a set of individual detector frames in different passbands and/or at different observation epochs. Each frame set is uniquely identified by the attribute frameSetID, and this references a row in the corresponding merge log for the source table (for example, vhsSource.frameSetID references whsMergeLog.frameSetID. The merge log in turn references the full set of image descriptive data held in the tables MultiframeDetector and ultimately Multiframe (these two tables map directly onto the multi-extension FITS file hierarchy of extension FITS headers beneath a single primary HDU FITS header - primary HDU FITS keys will be found in Multiframe, while the corresponding extension FITS keys for each primary set will be found in table MultiframeDetector). In this way, you can trace the provenance of a merged source record right back to the individual image frames from which it is derived.
frameSetID	vvvSourceRemeasurement	VVVv20100531	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetID	vvvSourceRemeasurement	VVVv20110718	UID of the set of frames that this remeasured source comes from	bigint	8			meta.bib
frameSetTolerance	Programme	SHARKSv20210222	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	SHARKSv20210421	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	ULTRAVISTADR4	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSDR1	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSDR2	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSDR3	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSDR4	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSDR5	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSDR6	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20120926	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20130417	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20150108	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20160114	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20160507	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20170630	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20180419	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VHSv20201209	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIDEODR2	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIDEODR3	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIDEODR4	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIDEODR5	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIDEOv20100513	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIDEOv20111208	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGDR2	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGDR3	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGDR4	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20110714	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20111019	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20130417	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20150421	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20151230	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20160406	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20161202	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VIKINGv20170715	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCDEEPv20230713	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCDR1	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCDR3	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCDR4	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCDR5	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20110816	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20110909	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20120126	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20121128	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20130304	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20130805	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20140428	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20140903	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20150309	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20151218	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20160311	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20160822	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20170109	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20170411	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20171101	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20180702	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20181120	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20191212	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20210708	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20230816	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VMCv20240226	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VSAQC	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VVVDR1	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VVVDR2	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VVVDR5	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VVVXDR1	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VVVv20100531	The match tolerance for different passband frames	real	4	Degrees		??
frameSetTolerance	Programme	VVVv20110718	The match tolerance for different passband frames	real	4	Degrees		??
frameType	Multiframe	SHARKSv20210222	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	SHARKSv20210421	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	ULTRAVISTADR4	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSDR1	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSDR2	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSDR3	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSDR4	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSDR5	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSDR6	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20120926	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20130417	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20140409	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20150108	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20160114	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20160507	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20170630	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20180419	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VHSv20201209	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIDEODR2	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIDEODR3	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIDEODR4	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIDEODR5	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIDEOv20100513	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIDEOv20111208	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGDR2	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGDR3	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGDR4	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20110714	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20111019	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20130417	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20140402	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20150421	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20151230	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20160406	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20161202	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VIKINGv20170715	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCDEEPv20230713	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCDR1	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCDR2	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCDR3	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCDR4	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCDR5	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20110816	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20110909	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20120126	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20121128	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20130304	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20130805	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20140428	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20140903	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20150309	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20151218	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20160311	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20160822	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20170109	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20170411	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20171101	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20180702	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20181120	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20191212	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20210708	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20230816	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VMCv20240226	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VVVDR1	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VVVDR2	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VVVDR5	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VVVXDR1	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VVVv20100531	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	Multiframe	VVVv20110718	The type of multiframe (e.g. stack|tile|mosaic etc.) A multiframe can have a combination of different types.	varchar	64		normal	meta.code.class
			The frame types and their abbreviations are: confidence = "conf" dark = "dark" deep = "deep" difference = "diff" filtered = "filt" flat = "flat" interleaved = "leav" mosaic = "mosaic" sky = "sky" stack = "stack" default value = "normal"
frameType	sharksMultiframe, ultravistaMultiframe, vhsMultiframe, videoMultiframe, vikingMultiframe, vmcMultiframe, vvvMultiframe	VSAQC	The type of multiframe (e.g. stack|tile|mosaic etc.)	varchar	64		normal	meta.code.class
freqLSG	vvvVivaCatalogue	VVVDR5	main variability frequency using Lomb-Scargle generalized method {catalogue TType keyword: FreqLSG}	float	8	days^{-1}	-9.999995e8
freqPDM	vvvVivaCatalogue	VVVDR5	Main variability frequency using Phase Dispersion Minimization method {catalogue TType keyword: FreqPDM}	float	8	days^{-1}	-9.999995e8
freqPKfi2	vvvVivaCatalogue	VVVDR5	Main variability frequency using flux independent period method {catalogue TType keyword: FreqPKfi2}	float	8	days^{-1}	-9.999995e8
freqPLfi2	vvvVivaCatalogue	VVVDR5	Main variability frequency using panchromatic period method {catalogue TType keyword: FreqPLfi2}	float	8	days^{-1}	-9.999995e8
freqSTR	vvvVivaCatalogue	VVVDR5	Main variability frequency using String Length Method method {catalogue TType keyword: FreqSTR}	float	8	days^{-1}	-9.999995e8
frinID	Multiframe	SHARKSv20210222	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	SHARKSv20210421	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	ULTRAVISTADR4	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSDR1	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSDR2	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSDR3	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSDR4	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSDR5	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSDR6	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20120926	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20130417	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20140409	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20150108	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20160114	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20160507	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20170630	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20180419	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VHSv20201209	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIDEODR2	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIDEODR3	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIDEODR4	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIDEODR5	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIDEOv20100513	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIDEOv20111208	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGDR2	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGDR3	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGDR4	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20110714	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20111019	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20130417	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20140402	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20150421	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20151230	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20160406	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20161202	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VIKINGv20170715	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCDEEPv20230713	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCDR1	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCDR2	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCDR3	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCDR4	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCDR5	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20110816	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20110909	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20120126	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20121128	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20130304	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20130805	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20140428	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20140903	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20150309	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20151218	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20160311	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20160822	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20170109	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20170411	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20171101	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20180702	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20181120	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20191212	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20210708	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20230816	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VMCv20240226	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VVVDR1	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VVVDR2	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VVVDR5	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VVVXDR1	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VVVv20100531	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	Multiframe	VVVv20110718	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
frinID	sharksMultiframe, ultravistaMultiframe, vhsMultiframe, videoMultiframe, vikingMultiframe, vmcMultiframe, vvvMultiframe	VSAQC	UID of library calibration fringe frame	bigint	8		-99999999	obs.field
fromAllSky	twompzPhotoz	TWOMPZ	Is the WISE designation from the wise_allskysc catalogue 0 NO/1 YES	tinyint	1		0
fromAllSky	wiseScosPhotoz, wiseScosPhotozRejects, wiseScosSvm	WISExSCOSPZ	Is the WISE designation from the wise_allskysc catalogue 0 NO/1 YES {image primary HDU keyword: fromAllSky}	tinyint	1		0
FWHM_IMAGE	mgcDetection	MGC	FWHM assuming a gaussian core	real	4	pixel