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This is a working document showing the conversion status for publishing E3SM data to CMIP6. The variables listed are unordered, and pulled from the priority 1 request list as well as scientist input. If you think that an important variable is missing please add it.

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CMIP6 nameCMIP6 descriptionE3SM variable(s)conversion formulaCMOR handler completeconversion formula verified by
tasNear-Surface Air TemperatureTREFHTtas = TREFHT, no changeyesJ.Zhang
tsSurface TemperatureTSts = TS, no changeyesJ.Zhang
pslSea Level PressurePSLpsl = PSL, no changeyesJ.Zhang
psSurface Air PressurePSps = PS, no changeyesJ.Zhang
sfcWindNear-Surface Wind SpeedU10sfcWind = U10, no changeyesJ.Zhang
hussNear-Surface Specific HumidityQREFHThuss = QREFHT, no changeyesJ.Zhang
prPrecipitationPRECC PRECLpr = (PRECC  + PRECL) * 1000yesJ.Zhang
prcConvective PrecipitationPRECCprc = PRECC * 1000
J.Zhang
prsnSnowfall FluxPRECSC, PRECSLprsn = (PRECSC + PRECSL) * 1000yesJ.Zhang
evspsblEvaporation Including Sublimation and TranspirationQFLXevspsbl = QFLX, no changeyesJ.Zhang
tauuSurface Downward Eastward Wind StressTAUXtauu = TAUX, no changeyesJ.Zhang
tauvSurface Downward Northward Wind StressTAUYtauv = TAUY, no changeyesJ.Zhang
hflsSurface Upward Latent Heat FluxLHFLXhfls = LHFLX, no changeyesJ.Zhang
cltTotal Cloud Cover PercentageCLDTOTclt = CLDTOT * 100., unit conversion
yesChris Golaz
rldsSurface Downwelling Longwave RadiationFLDSrlds = FLDS, no changeyes

J.Zhang

Chris Golaz

rlusSurface Upwelling Longwave RadiationFLDS, FLNSrlus = FLDS + FLNSyes

J.Zhang

Chris Golaz

rsdsSurface Downwelling Shortwave RadiationFSDSrsds = FSDSyes

J.Zhang

Chris Golaz

rsusSurface Upwelling Shortwave RadiationFSDS, FSNSrsus = FSDS - FSNSyes

J.Zhang

Chris Golaz

hfssSurface Upward Sensible Heat FluxSHFLXhfss = SHFLXyesJ.Zhang
Suggested additions if available (Chris Golaz)
clPercentage Cloud CoverCLOUDcl = CLOUD *100., on model levels, unit conversion

Chris Golaz
cliMass Fraction of Cloud IceCLDICEcli = CLDICE on model levels

Kai Zhang

Note: for consistency with clivi, cli doesn't include snow.

cliviIce Water PathTGCLDIWPclivi = TGCLDIWP

Kai Zhang

Note: clivi doesn't include snow water path.

clwMass Fraction of Cloud Liquid WaterCLDLIQclw = CLDLIQ on model levels

Kai Zhang

Note: for consistency with clwvi, clw doesn't include rain. 

clwviCondensed Water PathTGCLDCWPclwvi = TGCLDCWP

Kai Zhang

Note: clwvi doesn't include rain and snow water path.

hurRelative HumidityRELHUMhur = RELUM interpolated to 19 pressure levels
Chris Golaz
hursNear-Surface Relative HumidityRHREFHThurs = RHREFHT

husSpecific HumidityQhus = Q interpolated to 19 pressure levels
Chris Golaz
mcConvective Mass Flux



o3Mole Fraction of O3O3To verify, interpolated to 19 pressure levelsNeed input from Philip Cameron-Smith (Unlicensed)
pfullPressure at Model Full-LevelsP0, PS, hyam, hybmpfull = P0*hyam + PS*hybm
Chris Golaz
phalfPressure on Model Half-LevelsP0, PS, hyai, hybiphalf = P0*hyai + PS*hybi
Chris Golaz
prwWater Vapor PathTMQprw = TMQ
Chris Golaz
rldscsSurface Downwelling Clear-Sky Longwave RadiationFLDS, FLNS, FLNSC
rldscs = FLDS + FLNS - FLNSC

Chris Golaz
rlutTOA Outgoing Longwave RadiationFSNTOA, FSNT, FLNT

rlut = FSNTOA - FSNT + FLNT


Note: equation originally from NCAR. Using this ensures that individual TOA terms (SW, LW, up/down) are consistent with TOM net flux (rtmt):

rtmt = rsdt - rsut - rlut

Chris Golaz

rlutcsTOA Outgoing Clear-Sky Longwave RadiationFLUTCrlutcs = FLUTC

Note: slight approximation here since we are using TOM, but NCAR does the same.

Chris Golaz

rsdscsSurface Downwelling Clear-Sky Shortwave RadiationFSDSCrsdscs = FSDSC
Chris Golaz
rsdtTOA Incident Shortwave RadiationSOLINrsdt = SOLIN
Chris Golaz
rsuscsSurface Upwelling Clear-Sky Shortwave RadiationFSDSC, FSNSCrsuscs = FSDSC - FSNSC
Chris Golaz
rsutTOA Outgoing Shortwave RadiationFSUTOArsut = FSUTOA
Chris Golaz
rsutcsTOA Outgoing Clear-Sky Shortwave RadiationFSUTOACrsutcs = FSUTOAC
Chris Golaz
rtmtNet Downward Radiative Flux at Top of ModelFSNT, FLNTrtmt = FSNT - FLNT
Chris Golaz
taAir TemperatureTta = T, interpolated to 19 pressure levels
Chris Golaz
tasmaxDaily Maximum Near-Surface Air TemperatureTREFHTMXWe cannot use monthly h0 output for this. But the necessary data is in daily h1 files. We would have to create time series of monthly averages from these daily files.

tasminDaily Minimum Near-Surface Air TemperatureTREFHTMNSame as above

uaEastward WindUua = U, interpolated to 19 pressure levels
Chris Golaz
uasEastward Near-Surface Wind



vaNorthward WindVva = V, interpolated to 19 pressure levels
Chris Golaz
vasNorthward Near-Surface Wind



wapOmega (=dp/dt)OMEGAwap = OMEGA, interpolated to 19 pressure levels
Chris Golaz
zgGeopotential HeightZ3zg = Z3, interpolated to 19 pressure levels
Chris Golaz
AERmon
abs550aerAmbient Aerosol Absorption Optical Thickness at 550nmAODABSabs550aer = AODABS

od550aerAmbient Aerosol Optical Thickness at 550nmAODVISod550aer = AODVIS

reffclwtopCloud-Top Effective Droplet RadiusARELreffclwtop = AREL

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CMIP6 nameE3SM variable(s)conversion formulaCMOR handler completeverified
mrsosSOILWATER_10CMmrsos = SOILWATER_10CM, no changeyes
mrsoSOILICE, SOILLIQmrso = sum_over_z(SOILICE + SOILLIQ, capped_at=5000)yes
mrfsoSOILICEmrfso = sum_over_z(SOILICE, capped_at=5000)yes
mrrosQOVERmrros = QOVER, no changeyes
mrroQRUNOFF


prvegQINTRprveg = QINTR, no changeyes
evspsblvegQVEGEevspsblveg = QVEGE, no changeyes
evspsblsoiQSOILevspsblsoi = QSOIL, no changeyes
tranQSOIL, QVEGTtran = QSOIL + QVEGTyes
tslTSOItsl = TSOI, no changeyes
laiLAISHA, LAISUNlai = LAISHA + LAISUNyes
cLitterTOTLITC, CWDCcLitter = TOTLITC + CWDC

cProductTOTPRODCcProduct = TOTPRODC, no change

cSoilTOTSOMCcSoil = TOTSOMC, no change

fFireCOL_FIRE_CLOSSfFire = COL_FIRE_CLOSS, no change

fHarvest

WOOD_HARVESTC

fHarvest = WOOD_HARVESTC, no change

fVegLitterLITFALL, gap_mortality_c_to_cwdc_col, fire_mortality_c_to_cwdc_col, harvest_c_to_cwdc_col, dwt_livecrootc_to_cwdc_col, dwt_deadcrootc_to_cwdc_col fVegLitter = LITFALL + gap_mortality_c_to_cwdc_col + fire_mortality_c_to_cwdc_col + harvest_c_to_cwdc_col + dwt_livecrootc_to_cwdc_col  + dwt_deadcrootc_to_cwdc_col 

fLitterSoilLITTERC_LOSS, LITTERC_HR, M_LITR1C_TO_FIRE, M_LITR2C_TO_FIRE, M_LITR3C_TO_FIREfLitterSoil = LITTERC_LOSS - LITTERC_HR - M_LITR1C_TO_FIRE - M_LITR2C_TO_FIRE - M_LITR3C_TO_FIRE

cVegTOTVEGCcVeg = TOTVEGC, no change

nbpNBPnbp = NBP, no change

gppGPPgpp = GPP, no change

raARra = AR, no change

rhHRrh = HR, no change

OCN

CMIP6 nameE3SM variable(s)conversion formulaCMOR handler completeverified
masso



sf6



cfc11



pbo



cfc12



pso



dissicnatos



fgsf6



volo



dissicabioos



fgcfc11



zos



dissi14cabioos



fgcfc12



zossq



dissi13cos



zostoga



masscello



ICE. – Notz et al. 2016 – https://www.geosci-model-dev.net/9/3427/2016/gmd-9-3427-2016.pdf

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