netcdf HRMIP_mp120a_prod04.cam.h0.2014-12 {
dimensions:
	ncol = 40962 ;
	time = UNLIMITED ; // (1 currently)
	nbnd = 2 ;
	chars = 8 ;
	lev = 32 ;
	ilev = 33 ;
variables:
	double lat(ncol) ;
		lat:_FillValue = -900. ;
		lat:long_name = "latitude" ;
		lat:units = "degrees_north" ;
	double lon(ncol) ;
		lon:_FillValue = -900. ;
		lon:long_name = "longitude" ;
		lon:units = "degrees_east" ;
	double area(ncol) ;
		area:_FillValue = -900. ;
		area:long_name = "MPAS cell areas" ;
	double lev(lev) ;
		lev:long_name = "zeta level index at vertical midpoints" ;
		lev:units = "-" ;
	double ilev(ilev) ;
		ilev:long_name = "zeta level index at vertical interfaces" ;
		ilev:units = "-" ;
	double time(time) ;
		time:long_name = "time" ;
		time:units = "days since 1950-01-01 00:00:00" ;
		time:calendar = "noleap" ;
		time:bounds = "time_bnds" ;
	int date(time) ;
		date:long_name = "current date (YYYYMMDD)" ;
	int datesec(time) ;
		datesec:long_name = "current seconds of current date" ;
	double time_bnds(time, nbnd) ;
		time_bnds:long_name = "time interval endpoints" ;
	char date_written(time, chars) ;
	char time_written(time, chars) ;
	int ndbase ;
		ndbase:long_name = "base day" ;
	int nsbase ;
		nsbase:long_name = "seconds of base day" ;
	int nbdate ;
		nbdate:long_name = "base date (YYYYMMDD)" ;
	int nbsec ;
		nbsec:long_name = "seconds of base date" ;
	int mdt ;
		mdt:long_name = "timestep" ;
		mdt:units = "s" ;
	int ndcur(time) ;
		ndcur:long_name = "current day (from base day)" ;
	int nscur(time) ;
		nscur:long_name = "current seconds of current day" ;
	double co2vmr(time) ;
		co2vmr:long_name = "co2 volume mixing ratio" ;
	double ch4vmr(time) ;
		ch4vmr:long_name = "ch4 volume mixing ratio" ;
	double n2ovmr(time) ;
		n2ovmr:long_name = "n2o volume mixing ratio" ;
	double f11vmr(time) ;
		f11vmr:long_name = "f11 volume mixing ratio" ;
	double f12vmr(time) ;
		f12vmr:long_name = "f12 volume mixing ratio" ;
	double sol_tsi(time) ;
		sol_tsi:long_name = "total solar irradiance" ;
		sol_tsi:units = "W/m2" ;
	int nsteph(time) ;
		nsteph:long_name = "current timestep" ;
	float ABSORB(time, lev, ncol) ;
		ABSORB:mdims = 1 ;
		ABSORB:_FillValue = 1.e+36f ;
		ABSORB:missing_value = 1.e+36f ;
		ABSORB:units = "/m" ;
		ABSORB:long_name = "Aerosol absorption, day only" ;
		ABSORB:cell_methods = "time: mean" ;
	float ABSORB_d1(time, lev, ncol) ;
		ABSORB_d1:mdims = 1 ;
		ABSORB_d1:_FillValue = 1.e+36f ;
		ABSORB_d1:missing_value = 1.e+36f ;
		ABSORB_d1:units = "/m" ;
		ABSORB_d1:long_name = "Aerosol absorption" ;
		ABSORB_d1:cell_methods = "time: mean" ;
	float ABSORBdn(time, lev, ncol) ;
		ABSORBdn:mdims = 1 ;
		ABSORBdn:_FillValue = 1.e+36f ;
		ABSORBdn:missing_value = 1.e+36f ;
		ABSORBdn:units = "/m" ;
		ABSORBdn:long_name = "Aerosol absorption, day night" ;
		ABSORBdn:cell_methods = "time: mean" ;
	float ADRAIN(time, lev, ncol) ;
		ADRAIN:mdims = 1 ;
		ADRAIN:units = "Micron" ;
		ADRAIN:long_name = "Average rain effective Diameter" ;
		ADRAIN:cell_methods = "time: mean" ;
	float ADSNOW(time, lev, ncol) ;
		ADSNOW:mdims = 1 ;
		ADSNOW:units = "Micron" ;
		ADSNOW:long_name = "Average snow effective Diameter" ;
		ADSNOW:cell_methods = "time: mean" ;
	float AEROD_v(time, ncol) ;
		AEROD_v:_FillValue = 1.e+36f ;
		AEROD_v:missing_value = 1.e+36f ;
		AEROD_v:units = "1" ;
		AEROD_v:long_name = "Total Aerosol Optical Depth in visible band" ;
		AEROD_v:cell_methods = "time: mean" ;
	float ANRAIN(time, lev, ncol) ;
		ANRAIN:mdims = 1 ;
		ANRAIN:units = "m-3" ;
		ANRAIN:long_name = "Average rain number conc" ;
		ANRAIN:cell_methods = "time: mean" ;
	float ANSNOW(time, lev, ncol) ;
		ANSNOW:mdims = 1 ;
		ANSNOW:units = "m-3" ;
		ANSNOW:long_name = "Average snow number conc" ;
		ANSNOW:cell_methods = "time: mean" ;
	float AODABS(time, ncol) ;
		AODABS:_FillValue = 1.e+36f ;
		AODABS:missing_value = 1.e+36f ;
		AODABS:long_name = "Aerosol absorption optical depth 550 nm, day only" ;
		AODABS:cell_methods = "time: mean" ;
	float AODABSBC(time, ncol) ;
		AODABSBC:_FillValue = 1.e+36f ;
		AODABSBC:missing_value = 1.e+36f ;
		AODABSBC:long_name = "Aerosol absorption optical depth 550 nm from BC, day only" ;
		AODABSBC:cell_methods = "time: mean" ;
	float AODABSBCdn(time, ncol) ;
		AODABSBCdn:_FillValue = 1.e+36f ;
		AODABSBCdn:missing_value = 1.e+36f ;
		AODABSBCdn:long_name = "Aerosol absorption optical depth 550 nm from BC, day night" ;
		AODABSBCdn:cell_methods = "time: mean" ;
	float AODABS_d1(time, ncol) ;
		AODABS_d1:_FillValue = 1.e+36f ;
		AODABS_d1:missing_value = 1.e+36f ;
		AODABS_d1:long_name = "Aerosol absorption optical depth 550 nm" ;
		AODABS_d1:cell_methods = "time: mean" ;
	float AODABSdn(time, ncol) ;
		AODABSdn:_FillValue = 1.e+36f ;
		AODABSdn:missing_value = 1.e+36f ;
		AODABSdn:long_name = "Aerosol absorption optical depth 550 nm, day night" ;
		AODABSdn:cell_methods = "time: mean" ;
	float AODBC(time, ncol) ;
		AODBC:_FillValue = 1.e+36f ;
		AODBC:missing_value = 1.e+36f ;
		AODBC:long_name = "Aerosol optical depth 550 nm from BC, day only" ;
		AODBC:cell_methods = "time: mean" ;
	float AODBCdn(time, ncol) ;
		AODBCdn:_FillValue = 1.e+36f ;
		AODBCdn:missing_value = 1.e+36f ;
		AODBCdn:long_name = "Aerosol optical depth 550 nm from BC, day night" ;
		AODBCdn:cell_methods = "time: mean" ;
	float AODDUST(time, ncol) ;
		AODDUST:_FillValue = 1.e+36f ;
		AODDUST:missing_value = 1.e+36f ;
		AODDUST:long_name = "Aerosol optical depth 550 nm from dust, day only" ;
		AODDUST:cell_methods = "time: mean" ;
	float AODDUSTdn(time, ncol) ;
		AODDUSTdn:_FillValue = 1.e+36f ;
		AODDUSTdn:missing_value = 1.e+36f ;
		AODDUSTdn:long_name = "Aerosol optical depth 550 nm from dust, day night" ;
		AODDUSTdn:cell_methods = "time: mean" ;
	float AODMODE1(time, ncol) ;
		AODMODE1:_FillValue = 1.e+36f ;
		AODMODE1:missing_value = 1.e+36f ;
		AODMODE1:long_name = "Aerosol optical depth, day only, 550 nm mode 1" ;
		AODMODE1:cell_methods = "time: mean" ;
	float AODMODE2(time, ncol) ;
		AODMODE2:_FillValue = 1.e+36f ;
		AODMODE2:missing_value = 1.e+36f ;
		AODMODE2:long_name = "Aerosol optical depth, day only, 550 nm mode 2" ;
		AODMODE2:cell_methods = "time: mean" ;
	float AODMODE3(time, ncol) ;
		AODMODE3:_FillValue = 1.e+36f ;
		AODMODE3:missing_value = 1.e+36f ;
		AODMODE3:long_name = "Aerosol optical depth, day only, 550 nm mode 3" ;
		AODMODE3:cell_methods = "time: mean" ;
	float AODNIR(time, ncol) ;
		AODNIR:_FillValue = 1.e+36f ;
		AODNIR:missing_value = 1.e+36f ;
		AODNIR:long_name = "Aerosol optical depth 1020 nm, day only" ;
		AODNIR:cell_methods = "time: mean" ;
	float AODNIRdn(time, ncol) ;
		AODNIRdn:_FillValue = 1.e+36f ;
		AODNIRdn:missing_value = 1.e+36f ;
		AODNIRdn:long_name = "Aerosol optical depth 1020 nm, day night" ;
		AODNIRdn:cell_methods = "time: mean" ;
	float AODPOM(time, ncol) ;
		AODPOM:_FillValue = 1.e+36f ;
		AODPOM:missing_value = 1.e+36f ;
		AODPOM:long_name = "Aerosol optical depth 550 nm from POM, day only" ;
		AODPOM:cell_methods = "time: mean" ;
	float AODPOMdn(time, ncol) ;
		AODPOMdn:_FillValue = 1.e+36f ;
		AODPOMdn:missing_value = 1.e+36f ;
		AODPOMdn:long_name = "Aerosol optical depth 550 nm from POM, day night" ;
		AODPOMdn:cell_methods = "time: mean" ;
	float AODSO4(time, ncol) ;
		AODSO4:_FillValue = 1.e+36f ;
		AODSO4:missing_value = 1.e+36f ;
		AODSO4:long_name = "Aerosol optical depth 550 nm from SO4, day only" ;
		AODSO4:cell_methods = "time: mean" ;
	float AODSO4dn(time, ncol) ;
		AODSO4dn:_FillValue = 1.e+36f ;
		AODSO4dn:missing_value = 1.e+36f ;
		AODSO4dn:long_name = "Aerosol optical depth 550 nm from SO4, day night" ;
		AODSO4dn:cell_methods = "time: mean" ;
	float AODSOA(time, ncol) ;
		AODSOA:_FillValue = 1.e+36f ;
		AODSOA:missing_value = 1.e+36f ;
		AODSOA:long_name = "Aerosol optical depth 550 nm from SOA, day only" ;
		AODSOA:cell_methods = "time: mean" ;
	float AODSOAdn(time, ncol) ;
		AODSOAdn:_FillValue = 1.e+36f ;
		AODSOAdn:missing_value = 1.e+36f ;
		AODSOAdn:long_name = "Aerosol optical depth 550 nm from SOA, day night" ;
		AODSOAdn:cell_methods = "time: mean" ;
	float AODSS(time, ncol) ;
		AODSS:_FillValue = 1.e+36f ;
		AODSS:missing_value = 1.e+36f ;
		AODSS:long_name = "Aerosol optical depth 550 nm from seasalt, day only" ;
		AODSS:cell_methods = "time: mean" ;
	float AODSSdn(time, ncol) ;
		AODSSdn:_FillValue = 1.e+36f ;
		AODSSdn:missing_value = 1.e+36f ;
		AODSSdn:long_name = "Aerosol optical depth 550 nm from seasalt, day night" ;
		AODSSdn:cell_methods = "time: mean" ;
	float AODUV(time, ncol) ;
		AODUV:_FillValue = 1.e+36f ;
		AODUV:missing_value = 1.e+36f ;
		AODUV:long_name = "Aerosol optical depth 350 nm, day only" ;
		AODUV:cell_methods = "time: mean" ;
	float AODUVdn(time, ncol) ;
		AODUVdn:_FillValue = 1.e+36f ;
		AODUVdn:missing_value = 1.e+36f ;
		AODUVdn:long_name = "Aerosol optical depth 350 nm, day night" ;
		AODUVdn:cell_methods = "time: mean" ;
	float AODVIS(time, ncol) ;
		AODVIS:_FillValue = 1.e+36f ;
		AODVIS:missing_value = 1.e+36f ;
		AODVIS:long_name = "Aerosol optical depth 550 nm, day only" ;
		AODVIS:cell_methods = "time: mean" ;
	float AODVIS_d1(time, ncol) ;
		AODVIS_d1:_FillValue = 1.e+36f ;
		AODVIS_d1:missing_value = 1.e+36f ;
		AODVIS_d1:long_name = "Aerosol optical depth 550 nm" ;
		AODVIS_d1:cell_methods = "time: mean" ;
	float AODVISdn(time, ncol) ;
		AODVISdn:_FillValue = 1.e+36f ;
		AODVISdn:missing_value = 1.e+36f ;
		AODVISdn:long_name = "Aerosol optical depth 550 nm, day night" ;
		AODVISdn:cell_methods = "time: mean" ;
	float AODVISst_d1(time, ncol) ;
		AODVISst_d1:_FillValue = 1.e+36f ;
		AODVISst_d1:missing_value = 1.e+36f ;
		AODVISst_d1:long_name = "Stratospheric aerosol optical depth 550 nm" ;
		AODVISst_d1:cell_methods = "time: mean" ;
	float AODdnDUST1(time, ncol) ;
		AODdnDUST1:_FillValue = 1.e+36f ;
		AODdnDUST1:missing_value = 1.e+36f ;
		AODdnDUST1:long_name = "Aerosol optical depth 550 nm, day night, mode 1 from dust" ;
		AODdnDUST1:cell_methods = "time: mean" ;
	float AODdnDUST3(time, ncol) ;
		AODdnDUST3:_FillValue = 1.e+36f ;
		AODdnDUST3:missing_value = 1.e+36f ;
		AODdnDUST3:long_name = "Aerosol optical depth 550 nm, day night, mode 3 from dust" ;
		AODdnDUST3:cell_methods = "time: mean" ;
	float AODdnMODE1(time, ncol) ;
		AODdnMODE1:_FillValue = 1.e+36f ;
		AODdnMODE1:missing_value = 1.e+36f ;
		AODdnMODE1:long_name = "Aerosol optical depth 550 nm, day night, mode 1" ;
		AODdnMODE1:cell_methods = "time: mean" ;
	float AODdnMODE2(time, ncol) ;
		AODdnMODE2:_FillValue = 1.e+36f ;
		AODdnMODE2:missing_value = 1.e+36f ;
		AODdnMODE2:long_name = "Aerosol optical depth 550 nm, day night, mode 2" ;
		AODdnMODE2:cell_methods = "time: mean" ;
	float AODdnMODE3(time, ncol) ;
		AODdnMODE3:_FillValue = 1.e+36f ;
		AODdnMODE3:missing_value = 1.e+36f ;
		AODdnMODE3:long_name = "Aerosol optical depth 550 nm, day night, mode 3" ;
		AODdnMODE3:cell_methods = "time: mean" ;
	float AODxASYM(time, ncol) ;
		AODxASYM:_FillValue = 1.e+36f ;
		AODxASYM:missing_value = 1.e+36f ;
		AODxASYM:long_name = "Aerosol optical depth 550 * asymmetry factor, day only" ;
		AODxASYM:cell_methods = "time: mean" ;
	float AODxASYMdn(time, ncol) ;
		AODxASYMdn:_FillValue = 1.e+36f ;
		AODxASYMdn:missing_value = 1.e+36f ;
		AODxASYMdn:long_name = "Aerosol optical depth 550 * asymmetry factor, day night" ;
		AODxASYMdn:cell_methods = "time: mean" ;
	float AQRAIN(time, lev, ncol) ;
		AQRAIN:mdims = 1 ;
		AQRAIN:units = "kg/kg" ;
		AQRAIN:long_name = "Average rain mixing ratio" ;
		AQRAIN:cell_methods = "time: mean" ;
	float AQSNOW(time, lev, ncol) ;
		AQSNOW:mdims = 1 ;
		AQSNOW:units = "kg/kg" ;
		AQSNOW:long_name = "Average snow mixing ratio" ;
		AQSNOW:cell_methods = "time: mean" ;
	float AREI(time, lev, ncol) ;
		AREI:mdims = 1 ;
		AREI:units = "Micron" ;
		AREI:long_name = "Average ice effective radius" ;
		AREI:cell_methods = "time: mean" ;
	float AREL(time, lev, ncol) ;
		AREL:mdims = 1 ;
		AREL:units = "Micron" ;
		AREL:long_name = "Average droplet effective radius" ;
		AREL:cell_methods = "time: mean" ;
	float ATENDKE(time, ncol) ;
		ATENDKE:units = "W/m2" ;
		ATENDKE:long_name = "Adjustment Tendency of Total (vertically integrated) kinetic energy" ;
		ATENDKE:cell_methods = "time: mean" ;
	float ATENDSE(time, ncol) ;
		ATENDSE:units = "W/m2" ;
		ATENDSE:long_name = "Adjustment Tendency of Total (vertically integrated) static energy" ;
		ATENDSE:cell_methods = "time: mean" ;
	float AWNC(time, lev, ncol) ;
		AWNC:mdims = 1 ;
		AWNC:units = "m-3" ;
		AWNC:long_name = "Average cloud water number conc" ;
		AWNC:cell_methods = "time: mean" ;
	float AWNI(time, lev, ncol) ;
		AWNI:mdims = 1 ;
		AWNI:units = "m-3" ;
		AWNI:long_name = "Average cloud ice number conc" ;
		AWNI:cell_methods = "time: mean" ;
	float BURDENBCdn(time, ncol) ;
		BURDENBCdn:_FillValue = 1.e+36f ;
		BURDENBCdn:missing_value = 1.e+36f ;
		BURDENBCdn:units = "kg/m2" ;
		BURDENBCdn:long_name = "Black carbon aerosol burden, day night" ;
		BURDENBCdn:cell_methods = "time: mean" ;
	float BURDENDUSTdn(time, ncol) ;
		BURDENDUSTdn:_FillValue = 1.e+36f ;
		BURDENDUSTdn:missing_value = 1.e+36f ;
		BURDENDUSTdn:units = "kg/m2" ;
		BURDENDUSTdn:long_name = "Dust aerosol burden, day night" ;
		BURDENDUSTdn:cell_methods = "time: mean" ;
	float BURDENPOMdn(time, ncol) ;
		BURDENPOMdn:_FillValue = 1.e+36f ;
		BURDENPOMdn:missing_value = 1.e+36f ;
		BURDENPOMdn:units = "kg/m2" ;
		BURDENPOMdn:long_name = "POM aerosol burden, day night" ;
		BURDENPOMdn:cell_methods = "time: mean" ;
	float BURDENSEASALTdn(time, ncol) ;
		BURDENSEASALTdn:_FillValue = 1.e+36f ;
		BURDENSEASALTdn:missing_value = 1.e+36f ;
		BURDENSEASALTdn:units = "kg/m2" ;
		BURDENSEASALTdn:long_name = "Seasalt aerosol burden, day night" ;
		BURDENSEASALTdn:cell_methods = "time: mean" ;
	float BURDENSO4dn(time, ncol) ;
		BURDENSO4dn:_FillValue = 1.e+36f ;
		BURDENSO4dn:missing_value = 1.e+36f ;
		BURDENSO4dn:units = "kg/m2" ;
		BURDENSO4dn:long_name = "Sulfate aerosol burden, day night" ;
		BURDENSO4dn:cell_methods = "time: mean" ;
	float BURDENSOAdn(time, ncol) ;
		BURDENSOAdn:_FillValue = 1.e+36f ;
		BURDENSOAdn:missing_value = 1.e+36f ;
		BURDENSOAdn:units = "kg/m2" ;
		BURDENSOAdn:long_name = "SOA aerosol burden, day night" ;
		BURDENSOAdn:cell_methods = "time: mean" ;
	float BURDENdn1(time, ncol) ;
		BURDENdn1:_FillValue = 1.e+36f ;
		BURDENdn1:missing_value = 1.e+36f ;
		BURDENdn1:units = "kg/m2" ;
		BURDENdn1:long_name = "Aerosol burden, day night, mode 1" ;
		BURDENdn1:cell_methods = "time: mean" ;
	float BURDENdn2(time, ncol) ;
		BURDENdn2:_FillValue = 1.e+36f ;
		BURDENdn2:missing_value = 1.e+36f ;
		BURDENdn2:units = "kg/m2" ;
		BURDENdn2:long_name = "Aerosol burden, day night, mode 2" ;
		BURDENdn2:cell_methods = "time: mean" ;
	float BURDENdn3(time, ncol) ;
		BURDENdn3:_FillValue = 1.e+36f ;
		BURDENdn3:missing_value = 1.e+36f ;
		BURDENdn3:units = "kg/m2" ;
		BURDENdn3:long_name = "Aerosol burden, day night, mode 3" ;
		BURDENdn3:cell_methods = "time: mean" ;
	float CDNUMC(time, ncol) ;
		CDNUMC:units = "1/m2" ;
		CDNUMC:long_name = "Vertically-integrated droplet concentration" ;
		CDNUMC:cell_methods = "time: mean" ;
	float CLDBOT(time, ncol) ;
		CLDBOT:units = "1" ;
		CLDBOT:long_name = "Vertical index of cloud base" ;
		CLDBOT:cell_methods = "time: mean" ;
	float CLDHGH(time, ncol) ;
		CLDHGH:units = "fraction" ;
		CLDHGH:long_name = "Vertically-integrated high cloud" ;
		CLDHGH:cell_methods = "time: mean" ;
	float CLDICE(time, lev, ncol) ;
		CLDICE:mdims = 1 ;
		CLDICE:units = "kg/kg" ;
		CLDICE:long_name = "Grid box averaged cloud ice amount" ;
		CLDICE:cell_methods = "time: mean" ;
	float CLDLIQ(time, lev, ncol) ;
		CLDLIQ:mdims = 1 ;
		CLDLIQ:units = "kg/kg" ;
		CLDLIQ:long_name = "Grid box averaged cloud liquid amount" ;
		CLDLIQ:cell_methods = "time: mean" ;
	float CLDLOW(time, ncol) ;
		CLDLOW:units = "fraction" ;
		CLDLOW:long_name = "Vertically-integrated low cloud" ;
		CLDLOW:cell_methods = "time: mean" ;
	float CLDMED(time, ncol) ;
		CLDMED:units = "fraction" ;
		CLDMED:long_name = "Vertically-integrated mid-level cloud" ;
		CLDMED:cell_methods = "time: mean" ;
	float CLDTOP(time, ncol) ;
		CLDTOP:units = "1" ;
		CLDTOP:long_name = "Vertical index of cloud top" ;
		CLDTOP:cell_methods = "time: mean" ;
	float CLDTOT(time, ncol) ;
		CLDTOT:units = "fraction" ;
		CLDTOT:long_name = "Vertically-integrated total cloud" ;
		CLDTOT:cell_methods = "time: mean" ;
	float CLOUD(time, lev, ncol) ;
		CLOUD:mdims = 1 ;
		CLOUD:units = "fraction" ;
		CLOUD:long_name = "Cloud fraction" ;
		CLOUD:cell_methods = "time: mean" ;
	float CMFMC(time, ilev, ncol) ;
		CMFMC:mdims = 2 ;
		CMFMC:units = "kg/m2/s" ;
		CMFMC:long_name = "Moist convection (deep+shallow) mass flux" ;
		CMFMC:cell_methods = "time: mean" ;
	float CMFMCDZM(time, ilev, ncol) ;
		CMFMCDZM:mdims = 2 ;
		CMFMCDZM:units = "kg/m2/s" ;
		CMFMCDZM:long_name = "Convection mass flux from ZM deep" ;
		CMFMCDZM:cell_methods = "time: mean" ;
	float DTCOND(time, lev, ncol) ;
		DTCOND:mdims = 1 ;
		DTCOND:units = "K/s" ;
		DTCOND:long_name = "T tendency - moist processes" ;
		DTCOND:cell_methods = "time: mean" ;
	float DTENDKE(time, ncol) ;
		DTENDKE:units = "W/m2" ;
		DTENDKE:long_name = "Dynamic Tendency of Total (vertically integrated) kinetic energy" ;
		DTENDKE:cell_methods = "time: mean" ;
	float DTENDSE(time, ncol) ;
		DTENDSE:units = "W/m2" ;
		DTENDSE:long_name = "Dynamic Tendency of Total (vertically integrated) static energy" ;
		DTENDSE:cell_methods = "time: mean" ;
	float DTENDWI(time, ncol) ;
		DTENDWI:units = "kg/m2/s" ;
		DTENDWI:long_name = "Dynamic Tendency of Total (vertically integrated) water ice" ;
		DTENDWI:cell_methods = "time: mean" ;
	float DTENDWL(time, ncol) ;
		DTENDWL:units = "kg/m2/s" ;
		DTENDWL:long_name = "Dynamic Tendency of Total (vertically integrated) water liquid" ;
		DTENDWL:cell_methods = "time: mean" ;
	float DTENDWV(time, ncol) ;
		DTENDWV:units = "kg/m2/s" ;
		DTENDWV:long_name = "Dynamic Tendency of Total (vertically integrated) water vapor" ;
		DTENDWV:cell_methods = "time: mean" ;
	float DTV(time, lev, ncol) ;
		DTV:mdims = 1 ;
		DTV:units = "K/s" ;
		DTV:long_name = "T vertical diffusion" ;
		DTV:cell_methods = "time: mean" ;
	float EFIX(time, ncol) ;
		EFIX:units = "W/m2" ;
		EFIX:long_name = "Effective sensible heat flux due to energy fixer" ;
		EFIX:cell_methods = "time: mean" ;
	float EXTINCT(time, lev, ncol) ;
		EXTINCT:mdims = 1 ;
		EXTINCT:_FillValue = 1.e+36f ;
		EXTINCT:missing_value = 1.e+36f ;
		EXTINCT:units = "/m" ;
		EXTINCT:long_name = "Aerosol extinction 550 nm, day only" ;
		EXTINCT:cell_methods = "time: mean" ;
	float EXTINCT_d1(time, lev, ncol) ;
		EXTINCT_d1:mdims = 1 ;
		EXTINCT_d1:_FillValue = 1.e+36f ;
		EXTINCT_d1:missing_value = 1.e+36f ;
		EXTINCT_d1:units = "/m" ;
		EXTINCT_d1:long_name = "Aerosol extinction" ;
		EXTINCT_d1:cell_methods = "time: mean" ;
	float EXTINCTdn(time, lev, ncol) ;
		EXTINCTdn:mdims = 1 ;
		EXTINCTdn:_FillValue = 1.e+36f ;
		EXTINCTdn:missing_value = 1.e+36f ;
		EXTINCTdn:units = "/m" ;
		EXTINCTdn:long_name = "Aerosol extinction 550 nm, day night" ;
		EXTINCTdn:cell_methods = "time: mean" ;
	float EXTxASYM(time, lev, ncol) ;
		EXTxASYM:mdims = 1 ;
		EXTxASYM:_FillValue = 1.e+36f ;
		EXTxASYM:missing_value = 1.e+36f ;
		EXTxASYM:long_name = "extinction 550 nm * asymmetry factor, day only" ;
		EXTxASYM:cell_methods = "time: mean" ;
	float EXTxASYMdn(time, lev, ncol) ;
		EXTxASYMdn:mdims = 1 ;
		EXTxASYMdn:_FillValue = 1.e+36f ;
		EXTxASYMdn:missing_value = 1.e+36f ;
		EXTxASYMdn:long_name = "extinction 550 * asymmetry factor, day night" ;
		EXTxASYMdn:cell_methods = "time: mean" ;
	float FICE(time, lev, ncol) ;
		FICE:mdims = 1 ;
		FICE:units = "fraction" ;
		FICE:long_name = "Fractional ice content within cloud" ;
		FICE:cell_methods = "time: mean" ;
	float FLDS(time, ncol) ;
		FLDS:Sampling_Sequence = "rad_lwsw" ;
		FLDS:units = "W/m2" ;
		FLDS:long_name = "Downwelling longwave flux at surface" ;
		FLDS:cell_methods = "time: mean" ;
	float FLDSC(time, ncol) ;
		FLDSC:Sampling_Sequence = "rad_lwsw" ;
		FLDSC:units = "W/m2" ;
		FLDSC:long_name = "Clearsky Downwelling longwave flux at surface" ;
		FLDSC:cell_methods = "time: mean" ;
	float FLDS_d1(time, ncol) ;
		FLDS_d1:Sampling_Sequence = "rad_lwsw" ;
		FLDS_d1:units = "W/m2" ;
		FLDS_d1:long_name = "Downwelling longwave flux at surface" ;
		FLDS_d1:cell_methods = "time: mean" ;
	float FLNS(time, ncol) ;
		FLNS:Sampling_Sequence = "rad_lwsw" ;
		FLNS:units = "W/m2" ;
		FLNS:long_name = "Net longwave flux at surface" ;
		FLNS:cell_methods = "time: mean" ;
	float FLNSC(time, ncol) ;
		FLNSC:Sampling_Sequence = "rad_lwsw" ;
		FLNSC:units = "W/m2" ;
		FLNSC:long_name = "Clearsky net longwave flux at surface" ;
		FLNSC:cell_methods = "time: mean" ;
	float FLNSC_d1(time, ncol) ;
		FLNSC_d1:Sampling_Sequence = "rad_lwsw" ;
		FLNSC_d1:units = "W/m2" ;
		FLNSC_d1:long_name = "Clearsky net longwave flux at surface" ;
		FLNSC_d1:cell_methods = "time: mean" ;
	float FLNS_d1(time, ncol) ;
		FLNS_d1:Sampling_Sequence = "rad_lwsw" ;
		FLNS_d1:units = "W/m2" ;
		FLNS_d1:long_name = "Net longwave flux at surface" ;
		FLNS_d1:cell_methods = "time: mean" ;
	float FLNT(time, ncol) ;
		FLNT:Sampling_Sequence = "rad_lwsw" ;
		FLNT:units = "W/m2" ;
		FLNT:long_name = "Net longwave flux at top of model" ;
		FLNT:cell_methods = "time: mean" ;
	float FLNTC(time, ncol) ;
		FLNTC:Sampling_Sequence = "rad_lwsw" ;
		FLNTC:units = "W/m2" ;
		FLNTC:long_name = "Clearsky net longwave flux at top of model" ;
		FLNTC:cell_methods = "time: mean" ;
	float FLNTCLR(time, ncol) ;
		FLNTCLR:Sampling_Sequence = "rad_lwsw" ;
		FLNTCLR:units = "W/m2" ;
		FLNTCLR:long_name = "Clearsky ONLY points net longwave flux at top of model" ;
		FLNTCLR:cell_methods = "time: mean" ;
	float FLNTCLR_d1(time, ncol) ;
		FLNTCLR_d1:Sampling_Sequence = "rad_lwsw" ;
		FLNTCLR_d1:units = "W/m2" ;
		FLNTCLR_d1:long_name = "Clearsky ONLY points net longwave flux at top of model" ;
		FLNTCLR_d1:cell_methods = "time: mean" ;
	float FLNTC_d1(time, ncol) ;
		FLNTC_d1:Sampling_Sequence = "rad_lwsw" ;
		FLNTC_d1:units = "W/m2" ;
		FLNTC_d1:long_name = "Clearsky net longwave flux at top of model" ;
		FLNTC_d1:cell_methods = "time: mean" ;
	float FLNT_d1(time, ncol) ;
		FLNT_d1:Sampling_Sequence = "rad_lwsw" ;
		FLNT_d1:units = "W/m2" ;
		FLNT_d1:long_name = "Net longwave flux at top of model" ;
		FLNT_d1:cell_methods = "time: mean" ;
	float FLUT(time, ncol) ;
		FLUT:Sampling_Sequence = "rad_lwsw" ;
		FLUT:units = "W/m2" ;
		FLUT:long_name = "Upwelling longwave flux at top of model" ;
		FLUT:cell_methods = "time: mean" ;
	float FLUTC(time, ncol) ;
		FLUTC:Sampling_Sequence = "rad_lwsw" ;
		FLUTC:units = "W/m2" ;
		FLUTC:long_name = "Clearsky upwelling longwave flux at top of model" ;
		FLUTC:cell_methods = "time: mean" ;
	float FLUTC_d1(time, ncol) ;
		FLUTC_d1:Sampling_Sequence = "rad_lwsw" ;
		FLUTC_d1:units = "W/m2" ;
		FLUTC_d1:long_name = "Clearsky upwelling longwave flux at top of model" ;
		FLUTC_d1:cell_methods = "time: mean" ;
	float FLUT_d1(time, ncol) ;
		FLUT_d1:Sampling_Sequence = "rad_lwsw" ;
		FLUT_d1:units = "W/m2" ;
		FLUT_d1:long_name = "Upwelling longwave flux at top of model" ;
		FLUT_d1:cell_methods = "time: mean" ;
	float FREQCLR(time, ncol) ;
		FREQCLR:Sampling_Sequence = "rad_lwsw" ;
		FREQCLR:units = "Frac" ;
		FREQCLR:long_name = "Frequency of Occurrence of Clearsky" ;
		FREQCLR:cell_methods = "time: mean" ;
	float FREQCLR_d1(time, ncol) ;
		FREQCLR_d1:Sampling_Sequence = "rad_lwsw" ;
		FREQCLR_d1:units = "Frac" ;
		FREQCLR_d1:long_name = "Frequency of Occurrence of Clearsky" ;
		FREQCLR_d1:cell_methods = "time: mean" ;
	float FREQI(time, lev, ncol) ;
		FREQI:mdims = 1 ;
		FREQI:units = "fraction" ;
		FREQI:long_name = "Fractional occurrence of ice" ;
		FREQI:cell_methods = "time: mean" ;
	float FREQL(time, lev, ncol) ;
		FREQL:mdims = 1 ;
		FREQL:units = "fraction" ;
		FREQL:long_name = "Fractional occurrence of liquid" ;
		FREQL:cell_methods = "time: mean" ;
	float FREQR(time, lev, ncol) ;
		FREQR:mdims = 1 ;
		FREQR:units = "fraction" ;
		FREQR:long_name = "Fractional occurrence of rain" ;
		FREQR:cell_methods = "time: mean" ;
	float FREQS(time, lev, ncol) ;
		FREQS:mdims = 1 ;
		FREQS:units = "fraction" ;
		FREQS:long_name = "Fractional occurrence of snow" ;
		FREQS:cell_methods = "time: mean" ;
	float FREQSH(time, ncol) ;
		FREQSH:units = "fraction" ;
		FREQSH:long_name = "Fractional occurance of shallow convection" ;
		FREQSH:cell_methods = "time: mean" ;
	float FREQZM(time, ncol) ;
		FREQZM:units = "fraction" ;
		FREQZM:long_name = "Fractional occurance of ZM convection" ;
		FREQZM:cell_methods = "time: mean" ;
	float FSDS(time, ncol) ;
		FSDS:Sampling_Sequence = "rad_lwsw" ;
		FSDS:units = "W/m2" ;
		FSDS:long_name = "Downwelling solar flux at surface" ;
		FSDS:cell_methods = "time: mean" ;
	float FSDSC(time, ncol) ;
		FSDSC:Sampling_Sequence = "rad_lwsw" ;
		FSDSC:units = "W/m2" ;
		FSDSC:long_name = "Clearsky downwelling solar flux at surface" ;
		FSDSC:cell_methods = "time: mean" ;
	float FSDSC_d1(time, ncol) ;
		FSDSC_d1:Sampling_Sequence = "rad_lwsw" ;
		FSDSC_d1:units = "W/m2" ;
		FSDSC_d1:long_name = "Clearsky downwelling solar flux at surface" ;
		FSDSC_d1:cell_methods = "time: mean" ;
	float FSDS_d1(time, ncol) ;
		FSDS_d1:Sampling_Sequence = "rad_lwsw" ;
		FSDS_d1:units = "W/m2" ;
		FSDS_d1:long_name = "Downwelling solar flux at surface" ;
		FSDS_d1:cell_methods = "time: mean" ;
	float FSNS(time, ncol) ;
		FSNS:Sampling_Sequence = "rad_lwsw" ;
		FSNS:units = "W/m2" ;
		FSNS:long_name = "Net solar flux at surface" ;
		FSNS:cell_methods = "time: mean" ;
	float FSNSC(time, ncol) ;
		FSNSC:Sampling_Sequence = "rad_lwsw" ;
		FSNSC:units = "W/m2" ;
		FSNSC:long_name = "Clearsky net solar flux at surface" ;
		FSNSC:cell_methods = "time: mean" ;
	float FSNSC_d1(time, ncol) ;
		FSNSC_d1:Sampling_Sequence = "rad_lwsw" ;
		FSNSC_d1:units = "W/m2" ;
		FSNSC_d1:long_name = "Clearsky net solar flux at surface" ;
		FSNSC_d1:cell_methods = "time: mean" ;
	float FSNS_d1(time, ncol) ;
		FSNS_d1:Sampling_Sequence = "rad_lwsw" ;
		FSNS_d1:units = "W/m2" ;
		FSNS_d1:long_name = "Net solar flux at surface" ;
		FSNS_d1:cell_methods = "time: mean" ;
	float FSNT(time, ncol) ;
		FSNT:Sampling_Sequence = "rad_lwsw" ;
		FSNT:units = "W/m2" ;
		FSNT:long_name = "Net solar flux at top of model" ;
		FSNT:cell_methods = "time: mean" ;
	float FSNTC(time, ncol) ;
		FSNTC:Sampling_Sequence = "rad_lwsw" ;
		FSNTC:units = "W/m2" ;
		FSNTC:long_name = "Clearsky net solar flux at top of model" ;
		FSNTC:cell_methods = "time: mean" ;
	float FSNTC_d1(time, ncol) ;
		FSNTC_d1:Sampling_Sequence = "rad_lwsw" ;
		FSNTC_d1:units = "W/m2" ;
		FSNTC_d1:long_name = "Clearsky net solar flux at top of model" ;
		FSNTC_d1:cell_methods = "time: mean" ;
	float FSNTOA(time, ncol) ;
		FSNTOA:Sampling_Sequence = "rad_lwsw" ;
		FSNTOA:units = "W/m2" ;
		FSNTOA:long_name = "Net solar flux at top of atmosphere" ;
		FSNTOA:cell_methods = "time: mean" ;
	float FSNTOAC(time, ncol) ;
		FSNTOAC:Sampling_Sequence = "rad_lwsw" ;
		FSNTOAC:units = "W/m2" ;
		FSNTOAC:long_name = "Clearsky net solar flux at top of atmosphere" ;
		FSNTOAC:cell_methods = "time: mean" ;
	float FSNTOAC_d1(time, ncol) ;
		FSNTOAC_d1:Sampling_Sequence = "rad_lwsw" ;
		FSNTOAC_d1:units = "W/m2" ;
		FSNTOAC_d1:long_name = "Clearsky net solar flux at top of atmosphere" ;
		FSNTOAC_d1:cell_methods = "time: mean" ;
	float FSNTOA_d1(time, ncol) ;
		FSNTOA_d1:Sampling_Sequence = "rad_lwsw" ;
		FSNTOA_d1:units = "W/m2" ;
		FSNTOA_d1:long_name = "Net solar flux at top of atmosphere" ;
		FSNTOA_d1:cell_methods = "time: mean" ;
	float FSNT_d1(time, ncol) ;
		FSNT_d1:Sampling_Sequence = "rad_lwsw" ;
		FSNT_d1:units = "W/m2" ;
		FSNT_d1:long_name = "Net solar flux at top of model" ;
		FSNT_d1:cell_methods = "time: mean" ;
	float FSUTOA(time, ncol) ;
		FSUTOA:Sampling_Sequence = "rad_lwsw" ;
		FSUTOA:units = "W/m2" ;
		FSUTOA:long_name = "Upwelling solar flux at top of atmosphere" ;
		FSUTOA:cell_methods = "time: mean" ;
	float FSUTOA_d1(time, ncol) ;
		FSUTOA_d1:Sampling_Sequence = "rad_lwsw" ;
		FSUTOA_d1:units = "W/m2" ;
		FSUTOA_d1:long_name = "Upwelling solar flux at top of atmosphere" ;
		FSUTOA_d1:cell_methods = "time: mean" ;
	float ICEFRAC(time, ncol) ;
		ICEFRAC:units = "fraction" ;
		ICEFRAC:long_name = "Fraction of sfc area covered by sea-ice" ;
		ICEFRAC:cell_methods = "time: mean" ;
	float ICIMR(time, lev, ncol) ;
		ICIMR:mdims = 1 ;
		ICIMR:units = "kg/kg" ;
		ICIMR:long_name = "Prognostic in-cloud ice mixing ratio" ;
		ICIMR:cell_methods = "time: mean" ;
	float ICWMR(time, lev, ncol) ;
		ICWMR:mdims = 1 ;
		ICWMR:units = "kg/kg" ;
		ICWMR:long_name = "Prognostic in-cloud water mixing ratio" ;
		ICWMR:cell_methods = "time: mean" ;
	float IWC(time, lev, ncol) ;
		IWC:mdims = 1 ;
		IWC:units = "kg/m3" ;
		IWC:long_name = "Grid box average ice water content" ;
		IWC:cell_methods = "time: mean" ;
	float KPBL(time, ncol) ;
		KPBL:units = "index" ;
		KPBL:long_name = "PBL top layer" ;
		KPBL:cell_methods = "time: mean" ;
	float LANDFRAC(time, ncol) ;
		LANDFRAC:units = "fraction" ;
		LANDFRAC:long_name = "Fraction of sfc area covered by land" ;
		LANDFRAC:cell_methods = "time: mean" ;
	float LHFLX(time, ncol) ;
		LHFLX:units = "W/m2" ;
		LHFLX:long_name = "Surface latent heat flux" ;
		LHFLX:cell_methods = "time: mean" ;
	float LWCF(time, ncol) ;
		LWCF:Sampling_Sequence = "rad_lwsw" ;
		LWCF:units = "W/m2" ;
		LWCF:long_name = "Longwave cloud forcing" ;
		LWCF:cell_methods = "time: mean" ;
	float LWCF_d1(time, ncol) ;
		LWCF_d1:Sampling_Sequence = "rad_lwsw" ;
		LWCF_d1:units = "W/m2" ;
		LWCF_d1:long_name = "Longwave cloud forcing" ;
		LWCF_d1:cell_methods = "time: mean" ;
	float OCNFRAC(time, ncol) ;
		OCNFRAC:units = "fraction" ;
		OCNFRAC:long_name = "Fraction of sfc area covered by ocean" ;
		OCNFRAC:cell_methods = "time: mean" ;
	float ODV_VOLC_MMR(time, ncol) ;
		ODV_VOLC_MMR:_FillValue = 1.e+36f ;
		ODV_VOLC_MMR:missing_value = 1.e+36f ;
		ODV_VOLC_MMR:units = "1" ;
		ODV_VOLC_MMR:long_name = "VOLC_MMR optical depth in visible band" ;
		ODV_VOLC_MMR:cell_methods = "time: mean" ;
	float OMEGA(time, lev, ncol) ;
		OMEGA:mdims = 1 ;
		OMEGA:units = "Pa/s" ;
		OMEGA:long_name = "Vertical velocity (pressure)" ;
		OMEGA:cell_methods = "time: mean" ;
	float OMEGAT(time, lev, ncol) ;
		OMEGAT:mdims = 1 ;
		OMEGAT:units = "K Pa/s" ;
		OMEGAT:long_name = "Vertical heat flux" ;
		OMEGAT:cell_methods = "time: mean" ;
	float PBLH(time, ncol) ;
		PBLH:units = "m" ;
		PBLH:long_name = "PBL height" ;
		PBLH:cell_methods = "time: mean" ;
	float PCONVB(time, ncol) ;
		PCONVB:units = "Pa" ;
		PCONVB:long_name = "convection base pressure" ;
		PCONVB:cell_methods = "time: mean" ;
	float PCONVT(time, ncol) ;
		PCONVT:units = "Pa" ;
		PCONVT:long_name = "convection top  pressure" ;
		PCONVT:cell_methods = "time: mean" ;
	float PHIS(time, ncol) ;
		PHIS:units = "m2/s2" ;
		PHIS:long_name = "Surface geopotential" ;
		PHIS:cell_methods = "time: mean" ;
	float PRECC(time, ncol) ;
		PRECC:units = "m/s" ;
		PRECC:long_name = "Convective precipitation rate (liq + ice)" ;
		PRECC:cell_methods = "time: mean" ;
	float PRECL(time, ncol) ;
		PRECL:units = "m/s" ;
		PRECL:long_name = "Large-scale (stable) precipitation rate (liq + ice)" ;
		PRECL:cell_methods = "time: mean" ;
	float PRECSC(time, ncol) ;
		PRECSC:units = "m/s" ;
		PRECSC:long_name = "Convective snow rate (water equivalent)" ;
		PRECSC:cell_methods = "time: mean" ;
	float PRECSL(time, ncol) ;
		PRECSL:units = "m/s" ;
		PRECSL:long_name = "Large-scale (stable) snow rate (water equivalent)" ;
		PRECSL:cell_methods = "time: mean" ;
	float PRECT(time, ncol) ;
		PRECT:units = "m/s" ;
		PRECT:long_name = "Total (convective and large-scale) precipitation rate (liq + ice)" ;
		PRECT:cell_methods = "time: mean" ;
	float PRESSURE(time, lev, ncol) ;
		PRESSURE:mdims = 1 ;
		PRESSURE:units = "Pa" ;
		PRESSURE:long_name = "Pressure" ;
		PRESSURE:cell_methods = "time: mean" ;
	float PRESSUREi(time, ilev, ncol) ;
		PRESSUREi:mdims = 2 ;
		PRESSUREi:units = "Pa" ;
		PRESSUREi:long_name = "Pressure" ;
		PRESSUREi:cell_methods = "time: mean" ;
	float PS(time, ncol) ;
		PS:units = "Pa" ;
		PS:long_name = "Surface pressure" ;
		PS:cell_methods = "time: mean" ;
	float PSL(time, ncol) ;
		PSL:units = "Pa" ;
		PSL:long_name = "Sea level pressure" ;
		PSL:cell_methods = "time: mean" ;
	float Q(time, lev, ncol) ;
		Q:mdims = 1 ;
		Q:units = "kg/kg" ;
		Q:long_name = "Specific humidity" ;
		Q:cell_methods = "time: mean" ;
	float QFLX(time, ncol) ;
		QFLX:units = "kg/m2/s" ;
		QFLX:long_name = "Surface water flux" ;
		QFLX:cell_methods = "time: mean" ;
	float QREFHT(time, ncol) ;
		QREFHT:units = "kg/kg" ;
		QREFHT:long_name = "Reference height humidity" ;
		QREFHT:cell_methods = "time: mean" ;
	float QRL(time, lev, ncol) ;
		QRL:mdims = 1 ;
		QRL:Sampling_Sequence = "rad_lwsw" ;
		QRL:units = "K/s" ;
		QRL:long_name = "Longwave heating rate" ;
		QRL:cell_methods = "time: mean" ;
	float QRL_d1(time, lev, ncol) ;
		QRL_d1:mdims = 1 ;
		QRL_d1:Sampling_Sequence = "rad_lwsw" ;
		QRL_d1:units = "K/s" ;
		QRL_d1:long_name = "Longwave heating rate" ;
		QRL_d1:cell_methods = "time: mean" ;
	float QRS(time, lev, ncol) ;
		QRS:mdims = 1 ;
		QRS:Sampling_Sequence = "rad_lwsw" ;
		QRS:units = "K/s" ;
		QRS:long_name = "Solar heating rate" ;
		QRS:cell_methods = "time: mean" ;
	float QRS_d1(time, lev, ncol) ;
		QRS_d1:mdims = 1 ;
		QRS_d1:Sampling_Sequence = "rad_lwsw" ;
		QRS_d1:units = "K/s" ;
		QRS_d1:long_name = "Solar heating rate" ;
		QRS_d1:cell_methods = "time: mean" ;
	float RAINQM(time, lev, ncol) ;
		RAINQM:mdims = 1 ;
		RAINQM:units = "kg/kg" ;
		RAINQM:long_name = "Grid box averaged rain amount" ;
		RAINQM:cell_methods = "time: mean" ;
	float RELHUM(time, lev, ncol) ;
		RELHUM:mdims = 1 ;
		RELHUM:units = "percent" ;
		RELHUM:long_name = "Relative humidity" ;
		RELHUM:cell_methods = "time: mean" ;
	float RHREFHT(time, ncol) ;
		RHREFHT:units = "fraction" ;
		RHREFHT:long_name = "Reference height relative humidity" ;
		RHREFHT:cell_methods = "time: mean" ;
	float SHFLX(time, ncol) ;
		SHFLX:units = "W/m2" ;
		SHFLX:long_name = "Surface sensible heat flux" ;
		SHFLX:cell_methods = "time: mean" ;
	float SNOWHICE(time, ncol) ;
		SNOWHICE:units = "m" ;
		SNOWHICE:long_name = "Snow depth over ice" ;
		SNOWHICE:cell_methods = "time: mean" ;
	float SNOWHLND(time, ncol) ;
		SNOWHLND:units = "m" ;
		SNOWHLND:long_name = "Water equivalent snow depth" ;
		SNOWHLND:cell_methods = "time: mean" ;
	float SNOWQM(time, lev, ncol) ;
		SNOWQM:mdims = 1 ;
		SNOWQM:units = "kg/kg" ;
		SNOWQM:long_name = "Grid box averaged snow amount" ;
		SNOWQM:cell_methods = "time: mean" ;
	float SOLIN(time, ncol) ;
		SOLIN:Sampling_Sequence = "rad_lwsw" ;
		SOLIN:units = "W/m2" ;
		SOLIN:long_name = "Solar insolation" ;
		SOLIN:cell_methods = "time: mean" ;
	float SOLIN_d1(time, ncol) ;
		SOLIN_d1:Sampling_Sequence = "rad_lwsw" ;
		SOLIN_d1:units = "W/m2" ;
		SOLIN_d1:long_name = "Solar insolation" ;
		SOLIN_d1:cell_methods = "time: mean" ;
	float SSAVIS(time, ncol) ;
		SSAVIS:_FillValue = 1.e+36f ;
		SSAVIS:missing_value = 1.e+36f ;
		SSAVIS:long_name = "Aerosol single-scatter albedo, day only" ;
		SSAVIS:cell_methods = "time: mean" ;
	float SSAVISdn(time, ncol) ;
		SSAVISdn:_FillValue = 1.e+36f ;
		SSAVISdn:missing_value = 1.e+36f ;
		SSAVISdn:long_name = "Aerosol single-scatter albedo, day night" ;
		SSAVISdn:cell_methods = "time: mean" ;
	float SWCF(time, ncol) ;
		SWCF:Sampling_Sequence = "rad_lwsw" ;
		SWCF:units = "W/m2" ;
		SWCF:long_name = "Shortwave cloud forcing" ;
		SWCF:cell_methods = "time: mean" ;
	float SWCF_d1(time, ncol) ;
		SWCF_d1:Sampling_Sequence = "rad_lwsw" ;
		SWCF_d1:units = "W/m2" ;
		SWCF_d1:long_name = "Shortwave cloud forcing" ;
		SWCF_d1:cell_methods = "time: mean" ;
	float T(time, lev, ncol) ;
		T:mdims = 1 ;
		T:units = "K" ;
		T:long_name = "Temperature" ;
		T:cell_methods = "time: mean" ;
	float TAUGWX(time, ncol) ;
		TAUGWX:units = "N/m2" ;
		TAUGWX:long_name = "Zonal gravity wave surface stress" ;
		TAUGWX:cell_methods = "time: mean" ;
	float TAUGWY(time, ncol) ;
		TAUGWY:units = "N/m2" ;
		TAUGWY:long_name = "Meridional gravity wave surface stress" ;
		TAUGWY:cell_methods = "time: mean" ;
	float TAUTMSX(time, ncol) ;
		TAUTMSX:units = "N/m2" ;
		TAUTMSX:long_name = "Zonal      turbulent mountain surface stress" ;
		TAUTMSX:cell_methods = "time: mean" ;
	float TAUTMSY(time, ncol) ;
		TAUTMSY:units = "N/m2" ;
		TAUTMSY:long_name = "Meridional turbulent mountain surface stress" ;
		TAUTMSY:cell_methods = "time: mean" ;
	float TAUX(time, ncol) ;
		TAUX:units = "N/m2" ;
		TAUX:long_name = "Zonal surface stress" ;
		TAUX:cell_methods = "time: mean" ;
	float TAUY(time, ncol) ;
		TAUY:units = "N/m2" ;
		TAUY:long_name = "Meridional surface stress" ;
		TAUY:cell_methods = "time: mean" ;
	float TGCLDCWP(time, ncol) ;
		TGCLDCWP:units = "kg/m2" ;
		TGCLDCWP:long_name = "Total grid-box cloud water path (liquid and ice)" ;
		TGCLDCWP:cell_methods = "time: mean" ;
	float TGCLDIWP(time, ncol) ;
		TGCLDIWP:units = "kg/m2" ;
		TGCLDIWP:long_name = "Total grid-box cloud ice water path" ;
		TGCLDIWP:cell_methods = "time: mean" ;
	float TGCLDLWP(time, ncol) ;
		TGCLDLWP:units = "kg/m2" ;
		TGCLDLWP:long_name = "Total grid-box cloud liquid water path" ;
		TGCLDLWP:cell_methods = "time: mean" ;
	float TMKE(time, ncol) ;
		TMKE:units = "J/m2" ;
		TMKE:long_name = "Total (vertically integrated) kinetic energy" ;
	float TMQ(time, ncol) ;
		TMQ:units = "kg/m2" ;
		TMQ:long_name = "Total (vertically integrated) precipitable water" ;
		TMQ:cell_methods = "time: mean" ;
	float TMSE(time, ncol) ;
		TMSE:units = "J/m2" ;
		TMSE:long_name = "Total (vertically integrated) static energy" ;
	float TMWI(time, ncol) ;
		TMWI:units = "kg/m2" ;
		TMWI:long_name = "Total (vertically integrated) water ice" ;
	float TMWL(time, ncol) ;
		TMWL:units = "kg/m2" ;
		TMWL:long_name = "Total (vertically integrated) water liquid" ;
	float TMWV(time, ncol) ;
		TMWV:units = "kg/m2" ;
		TMWV:long_name = "Total (vertically integrated) water vapor" ;
	float TREFHT(time, ncol) ;
		TREFHT:units = "K" ;
		TREFHT:long_name = "Reference height temperature" ;
		TREFHT:cell_methods = "time: mean" ;
	float TS(time, ncol) ;
		TS:units = "K" ;
		TS:long_name = "Surface temperature (radiative)" ;
		TS:cell_methods = "time: mean" ;
	float TSMN(time, ncol) ;
		TSMN:units = "K" ;
		TSMN:long_name = "Minimum surface temperature over output period" ;
		TSMN:cell_methods = "time: mean" ;
	float TSMX(time, ncol) ;
		TSMX:units = "K" ;
		TSMX:long_name = "Maximum surface temperature over output period" ;
		TSMX:cell_methods = "time: mean" ;
	float TUH(time, ncol) ;
		TUH:units = "W/m" ;
		TUH:long_name = "Total (vertically integrated) zonal moist static energy flux" ;
		TUH:cell_methods = "time: mean" ;
	float TUQ(time, ncol) ;
		TUQ:units = "kg/m2" ;
		TUQ:long_name = "Total (vertically integrated) zonal water vapor flux" ;
		TUQ:cell_methods = "time: mean" ;
	float TVH(time, ncol) ;
		TVH:units = "W/m" ;
		TVH:long_name = "Total (vertically integrated) meridional moist static energy flux" ;
		TVH:cell_methods = "time: mean" ;
	float TVQ(time, ncol) ;
		TVQ:units = "kg/m/s" ;
		TVQ:long_name = "Total (vertically integrated) meridional water vapor flux" ;
		TVQ:cell_methods = "time: mean" ;
	float U(time, lev, ncol) ;
		U:mdims = 1 ;
		U:units = "m/s" ;
		U:long_name = "Zonal wind" ;
		U:cell_methods = "time: mean" ;
	float U10(time, ncol) ;
		U10:units = "m/s" ;
		U10:long_name = "10m wind speed" ;
		U10:cell_methods = "time: mean" ;
	float UBOT(time, ncol) ;
		UBOT:units = "m/s" ;
		UBOT:long_name = "Lowest model level zonal wind" ;
		UBOT:cell_methods = "time: mean" ;
	float UU(time, lev, ncol) ;
		UU:mdims = 1 ;
		UU:units = "m2/s2" ;
		UU:long_name = "Zonal velocity squared" ;
		UU:cell_methods = "time: mean" ;
	float V(time, lev, ncol) ;
		V:mdims = 1 ;
		V:units = "m/s" ;
		V:long_name = "Meridional wind" ;
		V:cell_methods = "time: mean" ;
	float VBOT(time, ncol) ;
		VBOT:units = "m/s" ;
		VBOT:long_name = "Lowest model level meridional wind" ;
		VBOT:cell_methods = "time: mean" ;
	float VD01(time, lev, ncol) ;
		VD01:mdims = 1 ;
		VD01:units = "kg/kg/s" ;
		VD01:long_name = "Vertical diffusion of Q" ;
		VD01:cell_methods = "time: mean" ;
	float VQ(time, lev, ncol) ;
		VQ:mdims = 1 ;
		VQ:units = "m/skg/kg" ;
		VQ:long_name = "Meridional water transport" ;
		VQ:cell_methods = "time: mean" ;
	float VT(time, lev, ncol) ;
		VT:mdims = 1 ;
		VT:units = "K m/s" ;
		VT:long_name = "Meridional heat transport" ;
		VT:cell_methods = "time: mean" ;
	float VU(time, lev, ncol) ;
		VU:mdims = 1 ;
		VU:units = "m2/s2" ;
		VU:long_name = "Meridional flux of zonal momentum" ;
		VU:cell_methods = "time: mean" ;
	float VV(time, lev, ncol) ;
		VV:mdims = 1 ;
		VV:units = "m2/s2" ;
		VV:long_name = "Meridional velocity squared" ;
		VV:cell_methods = "time: mean" ;
	float WGUSTD(time, ncol) ;
		WGUSTD:units = "m/s" ;
		WGUSTD:long_name = "wind gusts from turbulence" ;
		WGUSTD:cell_methods = "time: mean" ;
	float WSUB(time, lev, ncol) ;
		WSUB:mdims = 1 ;
		WSUB:units = "m/s" ;
		WSUB:long_name = "Diagnostic sub-grid vertical velocity" ;
		WSUB:cell_methods = "time: mean" ;
	float XPH_LWC(time, lev, ncol) ;
		XPH_LWC:mdims = 1 ;
		XPH_LWC:units = "kg/kg" ;
		XPH_LWC:long_name = "pH value multiplied by lwc" ;
		XPH_LWC:cell_methods = "time: mean" ;
	float Z3(time, lev, ncol) ;
		Z3:mdims = 1 ;
		Z3:units = "m" ;
		Z3:long_name = "Geopotential Height (above sea level)" ;
		Z3:cell_methods = "time: mean" ;
	float dgnd_a01(time, lev, ncol) ;
		dgnd_a01:mdims = 1 ;
		dgnd_a01:units = "m" ;
		dgnd_a01:long_name = "dry dgnum, interstitial, mode 01" ;
		dgnd_a01:cell_methods = "time: mean" ;
	float dgnd_a02(time, lev, ncol) ;
		dgnd_a02:mdims = 1 ;
		dgnd_a02:units = "m" ;
		dgnd_a02:long_name = "dry dgnum, interstitial, mode 02" ;
		dgnd_a02:cell_methods = "time: mean" ;
	float dgnd_a03(time, lev, ncol) ;
		dgnd_a03:mdims = 1 ;
		dgnd_a03:units = "m" ;
		dgnd_a03:long_name = "dry dgnum, interstitial, mode 03" ;
		dgnd_a03:cell_methods = "time: mean" ;
	float dgnw_a01(time, lev, ncol) ;
		dgnw_a01:mdims = 1 ;
		dgnw_a01:units = "m" ;
		dgnw_a01:long_name = "wet dgnum, interstitial, mode 01" ;
		dgnw_a01:cell_methods = "time: mean" ;
	float dgnw_a02(time, lev, ncol) ;
		dgnw_a02:mdims = 1 ;
		dgnw_a02:units = "m" ;
		dgnw_a02:long_name = "wet dgnum, interstitial, mode 02" ;
		dgnw_a02:cell_methods = "time: mean" ;
	float dgnw_a03(time, lev, ncol) ;
		dgnw_a03:mdims = 1 ;
		dgnw_a03:units = "m" ;
		dgnw_a03:long_name = "wet dgnum, interstitial, mode 03" ;
		dgnw_a03:cell_methods = "time: mean" ;
	float wat_a1(time, lev, ncol) ;
		wat_a1:mdims = 1 ;
		wat_a1:units = "m" ;
		wat_a1:long_name = "aerosol water, interstitial, mode 01" ;
		wat_a1:cell_methods = "time: mean" ;
	float wat_a2(time, lev, ncol) ;
		wat_a2:mdims = 1 ;
		wat_a2:units = "m" ;
		wat_a2:long_name = "aerosol water, interstitial, mode 02" ;
		wat_a2:cell_methods = "time: mean" ;
	float wat_a3(time, lev, ncol) ;
		wat_a3:mdims = 1 ;
		wat_a3:units = "m" ;
		wat_a3:long_name = "aerosol water, interstitial, mode 03" ;
		wat_a3:cell_methods = "time: mean" ;

// global attributes:
		:nCells = 40962 ;
		:Conventions = "CF-1.0" ;
		:source = "CAM" ;
		:case = "HRMIP_mp120a_prod04" ;
		:logname = "beharrop" ;
		:host = "login33" ;
		:initial_file = "/global/cfs/cdirs/m1867/MPASinput/HighResMIP/init/mp120a/mp120a_HRM-GFMACv2spin01_FC54.cam.r.2001-01-01-00000.nc" ;
		:topography_file = "/global/cfs/cdirs/m1867/MPASinput/mp120a/mp40962a_topo.nc" ;
		:model_doi_url = "https://doi.org/10.5065/D67H1H0V" ;
		:time_period_freq = "month_1" ;
}