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content ;\tqs:internal snow heat content ;\ttransix:ice mass transport (x) on East side ;\ttransiy:ice mass transport (y) on North side ;\tfswdn:down solar flux ;\tfswdn_ai:down solar flux weighted with respect to ice area ;\tfswup:upward solar flux ;\tfswup_ai:upward solar flux weighted with sea ice area ;\tflwdn:down longwave flux ;\tflwdn_ai:down longwave flux weighted with respect to ice area ;\tsnow:snowfall rate (cpl) ;\tsnow_ai:snowfall rate ;\train:rainfall rate (cpl) ;\train_ai:rainfall rate ;\tfswfac:shortwave scaling factor ;\tfswabs:snow/ice/ocn absorbed solar flux (cpl) ;\tfswabs_ai:snow/ice/ocn absorbed solar flux ;\talvdr:visible direct albedo ;\talidr:near IR direct albedo ;\talbice:bare ice albedo ;\talbsno:snow albedo ;\talbpnd:melt pond albedo ;\tcoszen:cosine of the zenith angle ;\tflat:latent heat flux (cpl) ;\tflat_ai:latent heat flux ;\tfsens:sensible heat flux (cpl) ;\tfsens_ai:sensible heat flux ;\tflwup:upward longwave flux (cpl) ;\tflwup_ai:upward longwave 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"@value" : "Norwegian Earth System Model version 1 (medium resolution) output prepared for the CMIP5 4xCO2 AMIP experiment.\n\nTechnical details:\nProduction machine: Cray XT3 in Bergen (hexagon)\nModel source: LINK\nModel revision number: 112\nModel components: atmosphere=CAM4; ocean=MICOM; land=CLM; sea ice=CICE\nHorizontal resolution: atmosphere/land=1.9x2.5 degree; ocean/sea ice=~1 degree \nOutput frequency: monthly + daily + 6-hourly + 3-hourly as requested by CMIP5\nExperiment type: fully coupled\nInitialisation: branched from CMIP5 historical simulation r1 (N20TRAERCN_f19_g16_01) at 1979-01-01\nChanging forcing agents: prescribed GHG concentration changes (see Kirkevåg et al. 2013)\nTuning parameters changed relative to the host model CAM4: rhminl=0.90 (0.91 in CAM4) reduced RH threshold for formation of low stratiform clouds; critrp=5.0 mm/day (0.5 mm/day in CAM4) maximum precipitation rate for suppression of autoconversion of cloud water; r3lc=14 um (10 um in CAM4) critical mean droplet volume radius for onset of autoconversion\nOther comments: -\n\nExternal references:\nLINK (experimental design)\nLINK (model system, boundary conditions, experiments, etc)\nLINK (Norwegian ESGF portal with post-processed CMIP5 data)\nLINK (NorESM special issue)\n Data description: case = NF20054XAERAMIPO_f19_f19_01; NF20084XAERAMIPO_f19_f19_01; Source = CAM ; Variables =\t\tP0:reference pressure ;\tlat:latitude ;\tlon:longitude ;\tslat:staggered latitude ;\tslon:staggered longitude ;\tw_stag:staggered latitude weights ;\tlev:hybrid level at midpoints (1000*(A+B)) ;\tilev:hybrid level at interfaces (1000*(A+B)) ;\tisccp_prs:Mean ISCCP pressure ;\tisccp_tau:Mean ISCCP optical depth ;\tisccp_prstau:Mean pressure (mb).mean optical depth (unitless)/1000 ;\ttime:time ;\ttime_bnds:time interval endpoints ;\tntrm:spectral truncation parameter M ;\tntrn:spectral truncation parameter N ;\tntrk:spectral truncation parameter K ;\tndbase:base day ;\tnsbase:seconds of base day 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;\tQ:Specific humidity ;\tQC:Q tendency - shallow convection LW export ;\tQFLX:Surface water flux ;\tQREFHT:Reference height humidity ;\tQRL:Longwave heating rate ;\tQRS:Solar heating rate ;\tREFFL:Effective Radius of Cloud Droplets ;\tREHANA:Effective radius as seen from satellite ;\tRELH:Fictive relative humidity ;\tRELHUM:Relative humidity ;\tRHREFHT:Reference height relative humidity ;\tS2GA:SO2 gas-phase prod ;\tS4AQ:Sulphate aq.phase prod ;\tS4GA:Sulphate gas-phase prod ;\tSELFX:Selfcollection of cloud droplets ;\tSFCDNCIX:CDNCIX surface flux ;\tSFCLDICE:CLDICE surface flux ;\tSFCLDLIQ:CLDLIQ surface flux ;\tSFCLDLIX:CLDLIX surface flux ;\tSHFLX:Surface sensible heat flux ;\tSNOWHICE:Water equivalent snow depth ;\tSNOWHLND:Water equivalent snow depth ;\tSO2:SO2 ;\tSO2CO:Concentration ;\tSO4:Concentration ;\tSO4_A1:SO4_A1 ;\tSO4_A2:SO4_A2 ;\tSO4_AC:SO4_AC ;\tSO4_N:SO4_N ;\tSO4_NA:SO4_NA ;\tSO4_PR:SO4_PR ;\tSOLIN:Solar insolation ;\tSOLLD:Solar downward near infrared diffuse to 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;\tlongxy:longitude ;\tlatixy:latitude ;\tarea:grid cell areas ;\tareaupsc:normalized grid cell areas related to upscaling ;\ttopo:grid cell topography ;\ttopodnsc:normalized grid cell topography related to downscaling ;\tlandfrac:land fraction ;\tlandmask:land/ocean mask (0.=ocean and 1.=land) ;\tpftmask:pft real/fake mask (0.=fake and 1.=real) ;\tindxupsc:upscaling atm global grid index ;\tlongxyatm:atm longitude ;\tlatixyatm:atm latitude ;\tareaatm:atm grid cell areas ;\tZSOI:soil depth ;\tDZSOI:soil thickness ;\tWATSAT:saturated soil water content (porosity) ;\tSUCSAT:saturated soil matric potential ;\tBSW:slope of soil water retention curve ;\tHKSAT:saturated hydraulic conductivity ;\tBCDEP:total BC deposition (dry+wet) from atmosphere ;\tBIOGENCO:biogenic CO flux ;\tBTRAN:transpiration beta factor ;\tBUILDHEAT:heat flux from urban building interior to walls and roof ;\tDSTDEP:total dust deposition (dry+wet) from atmosphere ;\tDSTFLXT:total surface dust emission ;\tEFLX_DYNBAL:dynamic land cover change conversion energy flux ;\tEFLX_LH_TOT_R:Rural total evaporation ;\tEFLX_LH_TOT_U:Urban total evaporation ;\tELAI:exposed one-sided leaf area index ;\tERRH2O:total water conservation error ;\tERRSEB:surface energy conservation error ;\tERRSOI:soil/lake energy conservation error ;\tERRSOL:solar radiation conservation error ;\tESAI:exposed one-sided stem area index ;\tFCEV:canopy evaporation ;\tFCOV:fractional impermeable area ;\tFCTR:canopy transpiration ;\tFGEV:ground evaporation ;\tFGR:heat flux into soil/snow including snow melt ;\tFGR12:heat flux between soil layers 1 and 2 ;\tFGR_R:Rural heat flux into soil/snow including snow melt ;\tFGR_U:Urban heat flux into soil/snow including snow melt ;\tFIRA:net infrared (longwave) radiation ;\tFIRA_R:Rural net infrared (longwave) radiation ;\tFIRA_U:Urban net infrared (longwave) radiation ;\tFIRE:emitted infrared (longwave) radiation ;\tFLDS:atmospheric longwave radiation ;\tFLUXFM2A:heat flux for 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