netcdf classic (CDF-1) {
dimensions:
	base_timed1 = 1 ;
	time_offset1d1 = 1440 ;
	time_offset2d1 = 48 ;
	latd1 = 1 ;
	lond1 = 1 ;
	altd1 = 1 ;
	instHtd1 = 1440 ;
	ud1 = 1440 ;
	vd1 = 1440 ;
	wd1 = 1440 ;
	Td1 = 1440 ;
	qd1 = 1440 ;
	qcFlagd1 = 18 ;
	qcFlagd2 = 48 ;
	lh_fluxd1 = 48 ;
	lh_flux_wpld1 = 48 ;
	sh_fluxd1 = 48 ;
	sh_flux_xd1 = 48 ;
	ustard1 = 48 ;
	tstard1 = 48 ;
	Cdd1 = 48 ;
	zeta_level_nd1 = 48 ;
	epsilond1 = 48 ;
	usigd1 = 48 ;
	vsigd1 = 48 ;
	wsigd1 = 48 ;
	Tsigd1 = 48 ;
	qsigd1 = 48 ;
	urmd1 = 48 ;
	vrmd1 = 48 ;
	wrmd1 = 48 ;
	Ntd1 = 48 ;
	nSud1 = 48 ;
	nSvd1 = 48 ;
	nSwd1 = 48 ;
	nStd1 = 48 ;
	nSqd1 = 48 ;
	Phixd1 = 48 ;
	DeltaUd1 = 48 ;
	DeltaVd1 = 48 ;
	DeltaTd1 = 48 ;
	Deltaqd1 = 48 ;
	fsd1 = 74 ;
	susd1 = 48 ;
	susd2 = 74 ;
	svsd1 = 48 ;
	svsd2 = 74 ;
	swsd1 = 48 ;
	swsd2 = 74 ;
	sTsd1 = 48 ;
	sTsd2 = 74 ;
	sqsd1 = 48 ;
	sqsd2 = 74 ;
	swdirsd1 = 48 ;
	swdirsd2 = 74 ;
	cwusd1 = 48 ;
	cwusd2 = 74 ;
	cuvsd1 = 48 ;
	cuvsd2 = 74 ;
	cuTsd1 = 48 ;
	cuTsd2 = 74 ;
	cvTsd1 = 48 ;
	cvTsd2 = 74 ;
	cwTsd1 = 48 ;
	cwTsd2 = 74 ;
	cuqsd1 = 48 ;
	cuqsd2 = 74 ;
	cvqsd1 = 48 ;
	cvqsd2 = 74 ;
	cwqsd1 = 48 ;
	cwqsd2 = 74 ;
	us_dtr_md1 = 48 ;
	vs_dtr_md1 = 48 ;
	ws_dtr_md1 = 48 ;
	Ts_dtr_md1 = 48 ;
	qs_dtr_md1 = 48 ;
	phi_ud1 = 48 ;
	phi_vd1 = 48 ;
	phi_wd1 = 48 ;
	phi_Td1 = 48 ;
	phi_uTd1 = 48 ;
	Phi_epsilond1 = 48 ;
	Phi_Ntd1 = 48 ;
	ustar_hid1 = 48 ;
	Hs_hid1 = 48 ;
	Tstar_hid1 = 48 ;
	zeta_level_n_hid1 = 48 ;
	Cd_hid1 = 48 ;
	phi_u_hid1 = 48 ;
	phi_v_hid1 = 48 ;
	phi_w_hid1 = 48 ;
	phi_T_hid1 = 48 ;
	phi_uT_hid1 = 48 ;
	Phi_epsilon_hid1 = 48 ;
	Phi_Nt_hid1 = 48 ;
	wu_cspd1 = 48 ;
	wv_cspd1 = 48 ;
	uv_cspd1 = 48 ;
	wT_cspd1 = 48 ;
	uT_cspd1 = 48 ;
	vT_cspd1 = 48 ;
	wq_cspd1 = 48 ;
	uq_cspd1 = 48 ;
	vq_cspd1 = 48 ;
	sigu_spcd1 = 48 ;
	sigv_spcd1 = 48 ;
	sigw_spcd1 = 48 ;
	sigT_spcd1 = 48 ;
	sigq_spcd1 = 48 ;
	sigwdir_spcd1 = 48 ;
	wu_csp_hid1 = 48 ;
	wv_csp_hid1 = 48 ;
	uv_csp_hid1 = 48 ;
	wT_csp_hid1 = 48 ;
	uT_csp_hid1 = 48 ;
	vT_csp_hid1 = 48 ;
	wq_csp_hid1 = 48 ;
	uq_csp_hid1 = 48 ;
	vq_csp_hid1 = 48 ;
	sigu_spc_hid1 = 48 ;
	sigv_spc_hid1 = 48 ;
	sigw_spc_hid1 = 48 ;
	sigT_spc_hid1 = 48 ;
	sigq_spc_hid1 = 48 ;
	sigwdir_spc_hid1 = 48 ;
	wu_covd1 = 48 ;
	wv_covd1 = 48 ;
	uv_covd1 = 48 ;
	wT_covd1 = 48 ;
	uT_covd1 = 48 ;
	vT_covd1 = 48 ;
	wq_covd1 = 48 ;
	uq_covd1 = 48 ;
	vq_covd1 = 48 ;
	cu2d1 = 48 ;
	cv2d1 = 48 ;
	cw2d1 = 48 ;
	cT2d1 = 48 ;
	cq2d1 = 48 ;
	Skew_ud1 = 48 ;
	Skew_vd1 = 48 ;
	Skew_wd1 = 48 ;
	Skew_Td1 = 48 ;
	Skew_qd1 = 48 ;
	Skew_uwd1 = 48 ;
	Skew_vwd1 = 48 ;
	Skew_wTd1 = 48 ;
	Skew_uTd1 = 48 ;
	Skew_wqd1 = 48 ;
	Skew_uqd1 = 48 ;
	Kurt_ud1 = 48 ;
	Kurt_vd1 = 48 ;
	Kurt_wd1 = 48 ;
	Kurt_Td1 = 48 ;
	Kurt_qd1 = 48 ;
	Kurt_uwd1 = 48 ;
	Kurt_vwd1 = 48 ;
	Kurt_wTd1 = 48 ;
	Kurt_uTd1 = 48 ;
	Kurt_wqd1 = 48 ;
	Kurt_uqd1 = 48 ;
// global attributes:
		:Date_Created = "29-May-2018" ;
		:README = "NOTE: This data set is preliminary and should not be redistributed." ;
		:Source = "Climate Processes Research Group (CPRG) - Cooperative Institute for Research in Environmental Science (CIRES)" ;
		:Contact = "Dr. David Noone (P.I.), dcn@coas.oregonstate.edu; Dr. Christopher J. Cox christopher.j.cox@noaa.gov" ;
		:Acknowledgements = "Calculations are made using the code written by Andrey Grachev for Tiksi <Andrey.Grachev@noaa.gov>, April-May 2013. The program is based on the NOAA ETL/PSD3 programs read_sonic_hr_10.m, read_Eureka_sonic_0_hr_2009_egu.m, read_sonic_20Hz_05hr_Materhorn2012_es2_level_1_v2.m etc. Original program read_sonic_hr was written by Chris Fairall. Help from Ludovic Bariteau and Elena Konopleva is appreciated." ;
variables:
	int base_time(base_timed1) ;
		base_time:long_name = "Time since 1970-01-01 00:00:00" ;
		base_time:units = "seconds" ;
	double time_offset1(time_offset1d1) ;
		time_offset1:long_name = "Time since base_time" ;
		time_offset1:units = "seconds" ;
	double time_offset2(time_offset2d1) ;
		time_offset2:long_name = "Time since base_time" ;
		time_offset2:units = "seconds" ;
	float lat(latd1) ;
		lat:long_name = "north latitude" ;
		lat:units = "degrees" ;
	float lon(lond1) ;
		lon:long_name = "east longitude" ;
		lon:units = "degrees" ;
	float alt(altd1) ;
		alt:long_name = "altitude" ;
		alt:units = "meters above Mean Sea Level" ;
	float instHt(instHtd1) ;
		instHt:long_name = "Instrument height above surface" ;
		instHt:units = "cm" ;
	float u(ud1) ;
		u:long_name = "wind velocity, u-component" ;
		u:units = "m^-^s" ;
	float v(vd1) ;
		v:long_name = "wind velocity, v-component" ;
		v:units = "m^-^s" ;
	float w(wd1) ;
		w:long_name = "wind velocity, w-component" ;
		w:units = "m^-^s" ;
	float T(Td1) ;
		T:long_name = "acoustic temperature" ;
		T:units = "K" ;
	float q(qd1) ;
		q:long_name = "specific humidity using Mayes hygrometer" ;
		q:units = "kg kg^-^1" ;
	float qcFlag(qcFlagd2, qcFlagd1) ;
		qcFlag:long_name = "quality control. 1 = bad data, not replaced." ;
		qcFlag:units = "unitless" ;
	float lh_flux(lh_fluxd1) ;
		lh_flux:long_name = "latent heat flux using Mayes hygrometer" ;
		lh_flux:units = "W m^-^2" ;
	float lh_flux_wpl(lh_flux_wpld1) ;
		lh_flux_wpl:long_name = "latent heat flux with Webb correction for constituent flows using Mayes hygrometer" ;
		lh_flux_wpl:units = "W m^-^2" ;
	float sh_flux(sh_fluxd1) ;
		sh_flux:long_name = "sensible heat flux" ;
		sh_flux:units = "W m^-^2" ;
	float sh_flux_x(sh_flux_xd1) ;
		sh_flux_x:long_name = "sensible heat flux with cross wind correction" ;
		sh_flux_x:units = "W m^-^2" ;
	float ustar(ustard1) ;
		ustar:long_name = "friction velocity" ;
		ustar:units = "m s^-^1" ;
	float tstar(tstard1) ;
		tstar:long_name = "characteristic temperature" ;
		tstar:units = "K" ;
	float Cd(Cdd1) ;
		Cd:long_name = "drag coefficient (C_d)" ;
		Cd:units = "unitless" ;
	float zeta_level_n(zeta_level_nd1) ;
		zeta_level_n:long_name = "Monin-Obukhov (MO) stability parameter, z/L" ;
		zeta_level_n:units = "unitless" ;
	float epsilon(epsilond1) ;
		epsilon:long_name = "turbulent kinetic energy" ;
		epsilon:units = "J" ;
	float usig(usigd1) ;
		usig:long_name = "standard deviation wind velocity, u" ;
		usig:units = "m s^-^1" ;
	float vsig(vsigd1) ;
		vsig:long_name = "standard deviation wind velocity, v" ;
		vsig:units = "m s^-^1" ;
	float wsig(wsigd1) ;
		wsig:long_name = "standard deviation wind velocity, w" ;
		wsig:units = "m s^-^1" ;
	float Tsig(Tsigd1) ;
		Tsig:long_name = "standard deviation sonic temperature, T" ;
		Tsig:units = "K" ;
	float qsig(qsigd1) ;
		qsig:long_name = "standard deviation humidty, q, using Mayes hygrometer" ;
		qsig:units = "kg/kg" ;
	float urm(urmd1) ;
		urm:long_name = "Rotated mean u wind component" ;
		urm:units = "m/s" ;
	float vrm(vrmd1) ;
		vrm:long_name = "Rotated mean v wind component" ;
		vrm:units = "m/s" ;
	float wrm(wrmd1) ;
		wrm:long_name = "Rotated mean w wind component" ;
		wrm:units = "m/s" ;
	float Nt(Ntd1) ;
		Nt:long_name = "Nt (Based on Ct^2 derived from St) The dissipation (destruction) rate for half the temperature variance" ;
		Nt:units = "deg^2/s" ;
	float nSu(nSud1) ;
		nSu:long_name = "Median spectral slope in the inertial subrange for Su" ;
		nSu:units = "Power/Hz" ;
	float nSv(nSvd1) ;
		nSv:long_name = "Median spectral slope in the inertial subrange for Sv" ;
		nSv:units = "Power/Hz" ;
	float nSw(nSwd1) ;
		nSw:long_name = "Median spectral slope in the inertial subrange for Sw" ;
		nSw:units = "Power/Hz" ;
	float nSt(nStd1) ;
		nSt:long_name = "Median spectral slope in the inertial subrange for St" ;
		nSt:units = "Power/Hz" ;
	float nSq(nSqd1) ;
		nSq:long_name = "Median spectral slope in the inertial subrange for Sq using Mayes hygrometer" ;
		nSq:units = "Power/Hz" ;
	float Phix(Phixd1) ;
		Phix:long_name = "Angle of attack" ;
		Phix:units = "deg" ;
	float DeltaU(DeltaUd1) ;
		DeltaU:long_name = "Steadiness of the along-wind component (trend), delta U" ;
		DeltaU:units = "m/s" ;
	float DeltaV(DeltaVd1) ;
		DeltaV:long_name = "Steadiness of the along-wind component (trend), delta V" ;
		DeltaV:units = "m/s" ;
	float DeltaT(DeltaTd1) ;
		DeltaT:long_name = "Steadiness of the sonic temperature (trend), delta T" ;
		DeltaT:units = "K" ;
	float Deltaq(Deltaqd1) ;
		Deltaq:long_name = "Steadiness of the humidity (trend), delta q, using Mayes hygrometer" ;
		Deltaq:units = "kg/kg" ;
	float fs(fsd1) ;
		fs:long_name = "Frequency" ;
		fs:units = "Hz" ;
	float sus(susd2, susd1) ;
		sus:long_name = "Smoothed u spectrum" ;
		sus:units = "Power" ;
	float svs(svsd2, svsd1) ;
		svs:long_name = "Smoothed v spectrum" ;
		svs:units = "Power" ;
	float sws(swsd2, swsd1) ;
		sws:long_name = "Smoothed w spectrum" ;
		sws:units = "Power" ;
	float sTs(sTsd2, sTsd1) ;
		sTs:long_name = "Smoothed T spectrum" ;
		sTs:units = "Power" ;
	float sqs(sqsd2, sqsd1) ;
		sqs:long_name = "Smoothed q spectrum using Mayes hygrometer" ;
		sqs:units = "Power" ;
	float swdirs(swdirsd2, swdirsd1) ;
		swdirs:long_name = "Smoothed swdirs spectrum" ;
		swdirs:units = "Power" ;
	float cwus(cwusd2, cwusd1) ;
		cwus:long_name = "Smoothed cwus cospectrum" ;
		cwus:units = "Power" ;
	float cuvs(cuvsd2, cuvsd1) ;
		cuvs:long_name = "Smoothed cuvs cospectrum" ;
		cuvs:units = "Power" ;
	float cuTs(cuTsd2, cuTsd1) ;
		cuTs:long_name = "Smoothed cuTs cospectrum" ;
		cuTs:units = "Power" ;
	float cvTs(cvTsd2, cvTsd1) ;
		cvTs:long_name = "Smoothed cvTs cospectrum" ;
		cvTs:units = "Power" ;
	float cwTs(cwTsd2, cwTsd1) ;
		cwTs:long_name = "Smoothed cwTs cospectrum" ;
		cwTs:units = "Power" ;
	float cuqs(cuqsd2, cuqsd1) ;
		cuqs:long_name = "Smoothed cuqs cospectrum using Mayes hygrometer" ;
		cuqs:units = "Power" ;
	float cvqs(cvqsd2, cvqsd1) ;
		cvqs:long_name = "Smoothed cvqs cospectrum using Mayes hygrometer" ;
		cvqs:units = "Power" ;
	float cwqs(cwqsd2, cwqsd1) ;
		cwqs:long_name = "Smoothed cwqs cospectrum using Mayes hygrometer" ;
		cwqs:units = "Power" ;
	float us_dtr_m(us_dtr_md1) ;
		us_dtr_m:long_name = "Mean of the detrended data" ;
		us_dtr_m:units = "m/s" ;
	float vs_dtr_m(vs_dtr_md1) ;
		vs_dtr_m:long_name = "Mean of the detrended data" ;
		vs_dtr_m:units = "m/s" ;
	float ws_dtr_m(ws_dtr_md1) ;
		ws_dtr_m:long_name = "Mean of the detrended data" ;
		ws_dtr_m:units = "m/s" ;
	float Ts_dtr_m(Ts_dtr_md1) ;
		Ts_dtr_m:long_name = "Mean of the detrended data" ;
		Ts_dtr_m:units = "K" ;
	float qs_dtr_m(qs_dtr_md1) ;
		qs_dtr_m:long_name = "Mean of the detrended data using Mayes hygrometer" ;
		qs_dtr_m:units = "kg/kg" ;
	float phi_u(phi_ud1) ;
		phi_u:long_name = "MO universal functions for standard deviations, u" ;
		phi_u:units = "unitless" ;
	float phi_v(phi_vd1) ;
		phi_v:long_name = "MO universal functions for standard deviations, v" ;
		phi_v:units = "unitless" ;
	float phi_w(phi_wd1) ;
		phi_w:long_name = "MO universal functions for standard deviations, w" ;
		phi_w:units = "unitless" ;
	float phi_T(phi_Td1) ;
		phi_T:long_name = "MO universal functions for standard deviations, T" ;
		phi_T:units = "unitless" ;
	float phi_uT(phi_uTd1) ;
		phi_uT:long_name = "MO universal function for the horizontal heat flux" ;
		phi_uT:units = "unitless" ;
	float Phi_epsilon(Phi_epsilond1) ;
		Phi_epsilon:long_name = "Monin-Obukhov universal function Phi_epsilon based on the median epsilon" ;
		Phi_epsilon:units = "unitless" ;
	float Phi_Nt(Phi_Ntd1) ;
		Phi_Nt:long_name = "Monin-Obukhov universal function Phi_Nt" ;
		Phi_Nt:units = "unitless" ;
	float ustar_hi(ustar_hid1) ;
		ustar_hi:long_name = "friction velocity based on the high-frequency part of downstream, uw_hi,  stress components" ;
		ustar_hi:units = "m/s" ;
	float Hs_hi(Hs_hid1) ;
		Hs_hi:long_name = "sensible heat flux (sonic temperature!) based on the high-frequency part of the cospectrum" ;
		Hs_hi:units = "W/m^2" ;
	float Tstar_hi(Tstar_hid1) ;
		Tstar_hi:long_name = "the temperature scale based on the high-frequency part of the turbulent fluxes" ;
		Tstar_hi:units = " K" ;
	float zeta_level_n_hi(zeta_level_n_hid1) ;
		zeta_level_n_hi:long_name = "Monin-Obukhov stability parameter based on the high-frequency part of the turbulent fluxes, z/L_hi" ;
		zeta_level_n_hi:units = "unitless" ;
	float Cd_hi(Cd_hid1) ;
		Cd_hi:long_name = "Drag coefficient based on the high-frequency part of the momentum flux" ;
		Cd_hi:units = "unitless" ;
	float phi_u_hi(phi_u_hid1) ;
		phi_u_hi:long_name = "MO universal functions for standard deviations, u (hi-freq)" ;
		phi_u_hi:units = "unitless" ;
	float phi_v_hi(phi_v_hid1) ;
		phi_v_hi:long_name = "MO universal functions for standard deviations, v (hi-freq)" ;
		phi_v_hi:units = "unitless" ;
	float phi_w_hi(phi_w_hid1) ;
		phi_w_hi:long_name = "MO universal functions for standard deviations, w (hi-freq)" ;
		phi_w_hi:units = "unitless" ;
	float phi_T_hi(phi_T_hid1) ;
		phi_T_hi:long_name = "MO universal functions for standard deviations, T (hi-freq)" ;
		phi_T_hi:units = "unitless" ;
	float phi_uT_hi(phi_uT_hid1) ;
		phi_uT_hi:long_name = "MO universal function for the horizontal heat flux (hi-freq)" ;
		phi_uT_hi:units = "unitless" ;
	float Phi_epsilon_hi(Phi_epsilon_hid1) ;
		Phi_epsilon_hi:long_name = "Monin-Obukhov universal function Phi_epsilon based on the median epsilon (hi-freq)" ;
		Phi_epsilon_hi:units = "unitless" ;
	float Phi_Nt_hi(Phi_Nt_hid1) ;
		Phi_Nt_hi:long_name = "Monin-Obukhov universal function Phi_Nt (hi-freq)" ;
		Phi_Nt_hi:units = "unitless" ;
	float wu_csp(wu_cspd1) ;
		wu_csp:long_name = "Wind stress components and the friction velocity: wu-covariance based on the wu-cospectra integration" ;
		wu_csp:units = "m/s" ;
	float wv_csp(wv_cspd1) ;
		wv_csp:long_name = "Wind stress components and the friction velocity: wv-covariance based on the wv-cospectra integration" ;
		wv_csp:units = "m/s" ;
	float uv_csp(uv_cspd1) ;
		uv_csp:long_name = "Wind stress components and the friction velocity: uv-covariance based on the uv-cospectra integration" ;
		uv_csp:units = "m/s" ;
	float wT_csp(wT_cspd1) ;
		wT_csp:long_name = "wt-covariance, vertical flux of the sonic temperature" ;
		wT_csp:units = "deg m/s" ;
	float uT_csp(uT_cspd1) ;
		uT_csp:long_name = "ut-covariance, horizontal flux of the sonic temperature (along-wind component)" ;
		uT_csp:units = "deg m/s" ;
	float vT_csp(vT_cspd1) ;
		vT_csp:long_name = "vt-covariance, horizontal flux of the sonic temperature (along-wind component)" ;
		vT_csp:units = "deg m/s" ;
	float wq_csp(wq_cspd1) ;
		wq_csp:long_name = "wq-covariance, horizontal flux of q (along-wind component) using Mayes hygrometer" ;
		wq_csp:units = "kg/kg m/s" ;
	float uq_csp(uq_cspd1) ;
		uq_csp:long_name = "uq-covariance, horizontal flux of q (along-wind component) using Mayes hygrometer" ;
		uq_csp:units = "kg/kg m/s" ;
	float vq_csp(vq_cspd1) ;
		vq_csp:long_name = "vq-covariance, horizontal flux of the sonic temperature (along-wind component)" ;
		vq_csp:units = "kg/kg m/s" ;
	float sigu_spc(sigu_spcd1) ;
		sigu_spc:long_name = "Standard deviation based on u based on the Su-spectra integration" ;
		sigu_spc:units = "m/s" ;
	float sigv_spc(sigv_spcd1) ;
		sigv_spc:long_name = "Standard deviation based on v based on the Sv-spectra integration" ;
		sigv_spc:units = "m/s" ;
	float sigw_spc(sigw_spcd1) ;
		sigw_spc:long_name = "Standard deviation based on w based on the Sw-spectra integration" ;
		sigw_spc:units = "m/s" ;
	float sigT_spc(sigT_spcd1) ;
		sigT_spc:long_name = "Standard deviation based on T based on the ST-spectra integration" ;
		sigT_spc:units = "m/s" ;
	float sigq_spc(sigq_spcd1) ;
		sigq_spc:long_name = "Standard deviation based on q based on the Sq-spectra integration using Mayes hygrometer" ;
		sigq_spc:units = "m/s" ;
	float sigwdir_spc(sigwdir_spcd1) ;
		sigwdir_spc:long_name = "Standard deviation based on of the wind speed direction Sdir-spectra integration" ;
		sigwdir_spc:units = "m/s" ;
	float wu_csp_hi(wu_csp_hid1) ;
		wu_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part wu" ;
		wu_csp_hi:units = "m/s" ;
	float wv_csp_hi(wv_csp_hid1) ;
		wv_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part wv" ;
		wv_csp_hi:units = "m/s" ;
	float uv_csp_hi(uv_csp_hid1) ;
		uv_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part uv" ;
		uv_csp_hi:units = "m/s" ;
	float wT_csp_hi(wT_csp_hid1) ;
		wT_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part wT" ;
		wT_csp_hi:units = "K m/s" ;
	float uT_csp_hi(uT_csp_hid1) ;
		uT_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part uT" ;
		uT_csp_hi:units = "K m/s" ;
	float vT_csp_hi(vT_csp_hid1) ;
		vT_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part vT" ;
		vT_csp_hi:units = "K m/s" ;
	float wq_csp_hi(wq_csp_hid1) ;
		wq_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part wq usng Mayes hygrometer" ;
		wq_csp_hi:units = "K m/s" ;
	float uq_csp_hi(uq_csp_hid1) ;
		uq_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part uq using Mayes hygrometer" ;
		uq_csp_hi:units = "K m/s" ;
	float vq_csp_hi(vq_csp_hid1) ;
		vq_csp_hi:long_name = "Covariances (\"flux\") in the high-frequency part vq using Mayes hygrometer" ;
		vq_csp_hi:units = "K m/s" ;
	float sigu_spc_hi(sigu_spc_hid1) ;
		sigu_spc_hi:long_name = "Standard deviation in the high-frequency part of u" ;
		sigu_spc_hi:units = "m/s" ;
	float sigv_spc_hi(sigv_spc_hid1) ;
		sigv_spc_hi:long_name = "Standard deviation in the high-frequency part of v" ;
		sigv_spc_hi:units = "m/s" ;
	float sigw_spc_hi(sigw_spc_hid1) ;
		sigw_spc_hi:long_name = "Standard deviation in the high-frequency part of w" ;
		sigw_spc_hi:units = "m/s" ;
	float sigT_spc_hi(sigT_spc_hid1) ;
		sigT_spc_hi:long_name = "Standard deviation in the high-frequency part of T" ;
		sigT_spc_hi:units = "K" ;
	float sigq_spc_hi(sigq_spc_hid1) ;
		sigq_spc_hi:long_name = "Standard deviation in the high-frequency part of q using Mayes hygrometer" ;
		sigq_spc_hi:units = "kg/kg" ;
	float sigwdir_spc_hi(sigwdir_spc_hid1) ;
		sigwdir_spc_hi:long_name = "Standard deviation in the high-frequency part of wdir" ;
		sigwdir_spc_hi:units = "deg" ;
	float wu_cov(wu_covd1) ;
		wu_cov:long_name = "Covariance of the detrending wu" ;
		wu_cov:units = "m/s" ;
	float wv_cov(wv_covd1) ;
		wv_cov:long_name = "Covariance of the detrending wv" ;
		wv_cov:units = "m/s" ;
	float uv_cov(uv_covd1) ;
		uv_cov:long_name = "Covariance of the detrending uv" ;
		uv_cov:units = "m/s" ;
	float wT_cov(wT_covd1) ;
		wT_cov:long_name = "Covariance of the detrending wT" ;
		wT_cov:units = "K m/s" ;
	float uT_cov(uT_covd1) ;
		uT_cov:long_name = "Covariance of the detrending uT" ;
		uT_cov:units = "K m/s" ;
	float vT_cov(vT_covd1) ;
		vT_cov:long_name = "Covariance of the detrending vT" ;
		vT_cov:units = "K m/s" ;
	float wq_cov(wq_covd1) ;
		wq_cov:long_name = "Covariance of the detrending wq using Mayes hygrometer" ;
		wq_cov:units = "kg/kg m/s" ;
	float uq_cov(uq_covd1) ;
		uq_cov:long_name = "Covariance of the detrending uq using Mayes hygrometer" ;
		uq_cov:units = "kg/kg m/s" ;
	float vq_cov(vq_covd1) ;
		vq_cov:long_name = "Covariance of the detrending vq using Mayes hygrometer" ;
		vq_cov:units = "kg/kg m/s" ;
	float cu2(cu2d1) ;
		cu2:long_name = "Cu^2, U structure parameter [x^2/m^2/3 = m^1.33/s^2]" ;
		cu2:units = "" ;
	float cv2(cv2d1) ;
		cv2:long_name = "Cv^2, V structure parameter [x^2/m^2/3 = m^1.33/s^2]" ;
		cv2:units = "" ;
	float cw2(cw2d1) ;
		cw2:long_name = "Cw^2, W structure parameter [x^2/m^2/3 = m^1.33/s^2]" ;
		cw2:units = "" ;
	float cT2(cT2d1) ;
		cT2:long_name = "Ct^2, T structure parameter [x^2/m^2/3 = deg^2/m^2/3]" ;
		cT2:units = "" ;
	float cq2(cq2d1) ;
		cq2:long_name = "Cq^2, q structure parameter using Mayes hygrometer" ;
		cq2:units = "" ;
	float Skew_u(Skew_ud1) ;
		Skew_u:long_name = "Skewness in u PSD" ;
		Skew_u:units = "" ;
	float Skew_v(Skew_vd1) ;
		Skew_v:long_name = "Skewness in v PSD" ;
		Skew_v:units = "" ;
	float Skew_w(Skew_wd1) ;
		Skew_w:long_name = "Skewness in w PSD" ;
		Skew_w:units = "" ;
	float Skew_T(Skew_Td1) ;
		Skew_T:long_name = "Skewness in T PSD" ;
		Skew_T:units = "" ;
	float Skew_q(Skew_qd1) ;
		Skew_q:long_name = "Skewness in q PSD using Mayes hygrometer" ;
		Skew_q:units = "" ;
	float Skew_uw(Skew_uwd1) ;
		Skew_uw:long_name = "Skewness in uw CSD" ;
		Skew_uw:units = "" ;
	float Skew_vw(Skew_vwd1) ;
		Skew_vw:long_name = "Skewness in vw CSD" ;
		Skew_vw:units = "" ;
	float Skew_wT(Skew_wTd1) ;
		Skew_wT:long_name = "Skewness in wT CSD" ;
		Skew_wT:units = "" ;
	float Skew_uT(Skew_uTd1) ;
		Skew_uT:long_name = "Skewness in uT CSD" ;
		Skew_uT:units = "" ;
	float Skew_wq(Skew_wqd1) ;
		Skew_wq:long_name = "Skewness in wq CSD using Mayes hygrometer" ;
		Skew_wq:units = "" ;
	float Skew_uq(Skew_uqd1) ;
		Skew_uq:long_name = "Skewness in uq CSD using Mayes hygrometer" ;
		Skew_uq:units = "" ;
	float Kurt_u(Kurt_ud1) ;
		Kurt_u:long_name = "Kurtosis in u PSD" ;
		Kurt_u:units = "" ;
	float Kurt_v(Kurt_vd1) ;
		Kurt_v:long_name = "Kurtosis in v PSD" ;
		Kurt_v:units = "" ;
	float Kurt_w(Kurt_wd1) ;
		Kurt_w:long_name = "Kurtosis in w PSD" ;
		Kurt_w:units = "" ;
	float Kurt_T(Kurt_Td1) ;
		Kurt_T:long_name = "Kurtosis in T PSD" ;
		Kurt_T:units = "" ;
	float Kurt_q(Kurt_qd1) ;
		Kurt_q:long_name = "Kurtosis in q PSD using Mayes hygrometer" ;
		Kurt_q:units = "" ;
	float Kurt_uw(Kurt_uwd1) ;
		Kurt_uw:long_name = "Kurtosis in uw CSD" ;
		Kurt_uw:units = "" ;
	float Kurt_vw(Kurt_vwd1) ;
		Kurt_vw:long_name = "Kurtosis in vw CSD" ;
		Kurt_vw:units = "" ;
	float Kurt_wT(Kurt_wTd1) ;
		Kurt_wT:long_name = "Kurtosis in wT CSD" ;
		Kurt_wT:units = "" ;
	float Kurt_uT(Kurt_uTd1) ;
		Kurt_uT:long_name = "Kurtosis in uT CSD" ;
		Kurt_uT:units = "" ;
	float Kurt_wq(Kurt_wqd1) ;
		Kurt_wq:long_name = "Kurtosis in wq CSD using Mayes hygrometer" ;
		Kurt_wq:units = "" ;
	float Kurt_uq(Kurt_uqd1) ;
		Kurt_uq:long_name = "Kurtosis in uq CSD using Mayes hygrometer" ;
		Kurt_uq:units = "" ;
}