pro norp_rdt2data_80g,rdata,timejo,mvalid,fi,fv $
    ,nocalib=nocalib,ndata=ndata,npa=npa,stat=stt0


;+
; NAME:
;       NORP_RDT2DATA_80G
;
; PURPOSE:
;       This procedure is for getting 80GHz data from the raw NoRP data
;
; CALLING SEQUENCE:
;       norp_rdt2data_80g,rdata,mvalid,timejo,fi,fv
;
; INPUTS:
;       rdata: structure of the raw data
;       timejo: structure array with 'time internal format'
;               that must be given by 'norp_rdt2timej'.
;
; OPTIONAL INPUT:
;       ndata: 2-elements long-integer array indicating the
;              position of data corresponding to the given timerange
;
; OUTPUTS:
;       mvalid: byte array indicating the data is valid or not.
;              e.g. if the data(123) obtained at time(123)
;                   was the calibration data mvalid(123)=0.
;                   If the data(124) was the real Sun flux mvalid(124)=1.
;       fi:  I (R+L) data array (mfreq,ndata)
;               data(0,*) is the time-sequencial array of the 1st
;               frequency which are read (indicated by 'rdfreq').
;       fv:  V (R-L) data array (mfreq,ndata)
;
; OPTIONAL OUTPUT:
;
; HISTORY:
;       programmed by T. Kosugi in 1984 May as Fortran program 
;       for old NoRP data format
;       re-programmed by H.Sekiguchi 1987 July - 1988 Dec.
;
;       1995 July,20    N,Shinox for new format NoRP data
;       95.04.19   ed.  add ATT correction for pol data ,correction data type
;                    changed intarr() to fltarr().,
;       95.09.04 Ver.2.0  M. Nishio and K. Hori
;       95.11.10 Ver.3.0  M. Nishio refernce level at 9.4GHz= amb -> zero
;  <<Caution: ambient level at 9.4GHz is incorrect. Use zero as ref. level>>
;       95.12.12 Ver.3.1  M. Nishio and K. Shibasaki (1GHz ATT 7dB -> 4.3)
;       98.08.25  Ver.0  S.Sekiguchi & Shinox
;                         input data = r_cos,l_cos,r_sin,l_sin,sqd80
;       98.08.28  Ver.0' sekix
;       98.10.01  Ver.0" sekix
;       98.11.17  Ver.1  KH - Procedure
;                          Separate 80GHz strarr from that of other
;                          frequencies (cal_data).
;                          Cal.time is determined based on IPOS1.
;       98.09.03          sekix  & shinox   add 80GHz
;       98.09.02   Ver.0: sekix
;       98.10.01   sekix   Pre burst level is specified to +/-?? min from
;                       ??-th sky start time.
;
;       98.11.20  K. Hori
;       1999-1-12 TY unify program for old/new NoRP data
;       2000-3-15 TY & H. Nakajima
;       2000-4-19 TY add fix procedure for 1990-7-23 -- 1991-5-13
;       2000-5-09 TY threshold for calib became 1000 from 100
;       2000-8-02 TY calibration existance check
;       2001-5-08 TY change dtatt
;
;-


if not keyword_set(ndata) then begin
  ndata=lonarr(2)
  ndata(0)=0 & ndata(1)=n_elements(timejo)-1
endif

case tag_names(rdata,/structure_name) of
'NORP0' : version =0
'NORP' : version =1
endcase

date=gt_day(timejo(0),/st)


flxref=4500.0      ; SFU of reference device
mattxmax=100

; In the following duration ATT status was anomalous
utime_anom0=anytim('1990-7-23')
utime_anom1=anytim('1991-5-14')
utime_date=anytim(date)

case version of

0: begin   ; old format
vatt=[125.,25.,5.,1.0]
npclb=0
iatt=[-512,512,1433]

case 1 of
(utime_date lt anytim('1991-06-29')) : begin
  mcx=10 & tmp=28800000+3600000*lindgen(mcx) ; 8:00 JST - 60min - 17:00
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp-29000
    timec1=timec0 & timec1.time=tmp
  timejsune= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp
    timec1=timec0 & timec1.time=tmp+30000
  timejskye= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp+30000
    timec1=timec0 & timec1.time=tmp+60000
  timejskyw= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp+60000
    timec1=timec0 & timec1.time=tmp+90000
  timejsunw= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
end
(utime_date ge anytim('1991-06-29') $
and utime_date lt anytim('1991-07-13')) : begin
  mcx=10 & tmp=28800000+3600000L*lindgen(mcx) ; 8:00 JST - 60min - 17:00
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp-29000
    timec1=timec0 & timec1.time=tmp
  timejsunw= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp
    timec1=timec0 & timec1.time=tmp+30000
  timejskyw= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp+30000
    timec1=timec0 & timec1.time=tmp+60000
  timejskye= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp+60000
    timec1=timec0 & timec1.time=tmp+90000
  timejsune= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
end
else : begin ; after 1991-07-13
  mcx=5 & tmp=28800000+7200000L*lindgen(mcx) ; 8:00 JST - 120min - 16:00
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp-29000
    timec1=timec0 & timec1.time=tmp
  timejsunw= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp
    timec1=timec0 & timec1.time=tmp+30000
  timejskyw= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp+30000
    timec1=timec0 & timec1.time=tmp+60000
  timejskye= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
    timec0=replicate(timejo(0),mcx) & timec0.time=tmp+60000
    timec1=timec0 & timec1.time=tmp+90000
  timejsune= transpose([[anytim(timec0,/ccsds)],[anytim(timec1,/ccsds)]])
endelse
endcase

dtskyw=[6000,6000] ; msec
dtskye=[6000,6000] ; msec
dtsunw=[6000,6000] ; msec
dtsune=[6000,6000] ; msec
dtatt=[2000,2000] ;msec
nintquiet=10
npquiet=3 
mqx=69
timejq0=21900000+600000*lindgen(mqx)-30000 ; 6:05 JST - 10min - 17:05
timejq1=21900000+600000*lindgen(mqx)+30000 ; 6:05 JST - 10min - 17:05
timejquiet0=replicate(timejo(0),mqx)
timejquiet1=replicate(timejo(0),mqx)
timejquiet0.time=timejq0
timejquiet1.time=timejq1
timejquiet= $
transpose([[anytim(timejquiet0,/ccsds)],[anytim(timejquiet1,/ccsds)]])
dtquiet=[0,0] ; msec
end

1: begin   ; new format
vatt=[1.,5.,25.,125.,125.]
iatt=0
npclb=4
dtskyw=[6000,6000] ; msec
dtskye=[6000,6000] ; msec
dtsunw=[6000,6000] ; msec
dtsune=[6000,6000] ; msec
dtatt=[100,0] ;msec
flagskyw=69  ; Sky-W
flagskye=67  ; Sky-E
flagsunw=68  ; Sun-W
flagsune=66  ; Sun-E
mqx=69
timejq0=21900000+600000*lindgen(mqx)-30000 ; 6:05 JST - 10min - 17:05
timejq1=21900000+600000*lindgen(mqx)+30000 ; 6:05 JST - 10min - 17:05
npquiet=0 & nintquiet=1
timejquiet0=replicate(timejo(0),mqx)
timejquiet1=replicate(timejo(0),mqx)
timejquiet0.time=timejq0
timejquiet1.time=timejq1
timejquiet= $
transpose([[anytim(timejquiet0,/ccsds)],[anytim(timejquiet1,/ccsds)]])
dtquiet=[0,0] ; msec
end

endcase

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
case version of
0: intego=rdata.integ
1: intego=bytarr(n_elements(rdata))+1b
endcase
integ=intego(ndata(0):ndata(1))

timej=timejo(ndata(0):ndata(1))
ndx=ndata(1)-ndata(0)+1

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
rc=rdata.rc80 & rs=rdata.rs80 & lc=rdata.lc80 & ls=rdata.ls80 & sqd=rdata.sqd80
stat=rdata.stat80

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;  extract the calibration data

norp_nclb_time,timejquiet,dtquiet,timejo,mquietx,nquiet,nquieti

if (version eq 0) $
       then norp_nclb_time,timejskyw,dtskyw,timejo,mskywx,nskyw,nskywi $
       else norp_nclb_stat,stat,flagskyw,dtskyw,timejo,mskywx,nskyw,nskywi

if (version eq 0) $
       then norp_nclb_time,timejskye,dtskye,timejo,mskyex,nskye,nskyei $
       else norp_nclb_stat,stat,flagskye,dtskye,timejo,mskyex,nskye,nskyei

if (version eq 0) $
       then norp_nclb_time,timejsunw,dtsunw,timejo,msunwx,nsunw,nsunwi $
       else norp_nclb_stat,stat,flagsunw,dtsunw,timejo,msunwx,nsunw,nsunwi

if (version eq 0) $
       then norp_nclb_time,timejsune,dtsune,timejo,msunex,nsune,nsunei $
       else norp_nclb_stat,stat,flagsune,dtsune,timejo,msunex,nsune,nsunei

if keyword_set(nocalib) then begin
  gainrs=1.
  gainls=1.
  gainrc=1.
  gainlc=1.
  rcsky=0.
  rssky=0.
  lcsky=0.
  lssky=0.
  a0=1.
  mvalidg=bytarr(n_elements(timej))+1b
  goto,L100
endif
;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;  check the calibration data

if ((mskywx eq 0) or (msunwx eq 0) $
or  (mskyex eq 0) or (msunex eq 0)) then begin
  print,'***************************************'
  print,'  There is no calibration data 80G ! '
  print,'  # of valid data for SKY-E ',mskyex
  print,'  # of valid data for SKY-W ',mskywx
  print,'  # of valid data for SUN-E ',msunex
  print,'  # of valid data for SUN-W ',msunwx
  print,'***************************************'
  ndx=ndata(1)-ndata(0)+1
  fi=fltarr(ndx)
  fv=fltarr(ndx)
  mvalid=bytarr(ndx)
  return
endif

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;  For handling the anomalous status in 1990-7-23 -- 1991-5-13
if (utime_date ge utime_anom0) and (utime_date le utime_anom1) then begin
  print,'********************************************'
  print,'  The ATT status record of 80G is anomalous '
  print,'    during 1990-7-23 -- 1991-5-13'
  print,'     Assume Att levels'
  print,'********************************************'
  stat_org=stat
  stat(*)=20000
  sz=size(nskywi) & if (sz(0) eq 2) then m0x = sz(2) else m0x=1
  for m0=0,m0x-1 do stat(nskywi(0,m0):nskywi(1,m0))=-10000
  sz=size(nskyei) & if (sz(0) eq 2) then m0x = sz(2) else m0x=1
  for m0=0,m0x-1 do stat(nskyei(0,m0):nskyei(1,m0))=-10000
  sz=size(nsunwi) & if (sz(0) eq 2) then m0x = sz(2) else m0x=1
  for m0=0,m0x-1 do stat(nsunwi(0,m0):nsunwi(1,m0))=-10000
  sz=size(nsunei) & if (sz(0) eq 2) then m0x = sz(2) else m0x=1
  for m0=0,m0x-1 do stat(nsunei(0,m0):nsunei(1,m0))=-10000
endif
;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;  S/N sigma

norp_clb_sn,mquietx,nquiet,npquiet,nintquiet,stat,vatt,oksnrs,intego $
  ,timejo,timejquiet_m,rs,rs_sigma_m,iatt=iatt

norp_clb_sn,mquietx,nquiet,npquiet,nintquiet,stat,vatt,oksnrc,intego $
  ,timejo,timejquiet_m,rc,rc_sigma_m,iatt=iatt

norp_clb_sn,mquietx,nquiet,npquiet,nintquiet,stat,vatt,oksnlc,intego $
  ,timejo,timejquiet_m,lc,lc_sigma_m,iatt=iatt

norp_clb_sn,mquietx,nquiet,npquiet,nintquiet,stat,vatt,oksnls,intego $
  ,timejo,timejquiet_m,ls,ls_sigma_m,iatt=iatt

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;  integarage the calibration data

norp_clb_integ,mquietx,nquiet,npquiet,stat,vatt,okquiet0,intego $
  ,timejo,timejquiet_m,rs,rsquiet_m,ls,lsquiet_m,iatt=iatt

norp_clb_integ,mquietx,nquiet,npquiet,stat,vatt,okquiet1,intego $
  ,timejo,timejquiet_m,rc,rcquiet_m,lc,lcquiet_m,iatt=iatt

norp_clb_integ,mskywx,nskyw,npclb,stat,vatt,okskyw,intego $
  ,timejo,timejskyw_m,rs,rssky_m,ls,lssky_m,sqd,sqdskyw_m,iatt=iatt

norp_clb_integ,mskyex,nskye,npclb,stat,vatt,okskye,intego $
  ,timejo,timejskye_m,rc,rcsky_m,lc,lcsky_m,sqd,sqdskye_m,iatt=iatt

norp_clb_integ,msunwx,nsunw,npclb,stat,vatt,oksunw,intego $
  ,timejo,timejsunw_m,rs,rssun_m,ls,lssun_m,sqd,sqdsunw_m,iatt=iatt

norp_clb_integ,msunex,nsune,npclb,stat,vatt,oksune,intego $
  ,timejo,timejsune_m,rc,rcsun_m,lc,lcsun_m,sqd,sqdsune_m,iatt=iatt

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
; check calibration data

whr=where(oksnrs,moksn)
whr=where(okquiet0,mokquiet0)
whr=where(okquiet1,mokquiet1)
if ((moksn eq 0) or (mokquiet0 eq 0) or (mokquiet1 eq 0)) then begin
  print,'***************************************'
  print,'  There is no calibration data 80G ! '
  print,'  # of valid data for S/N ',moksn
  print,'  # of valid data for Quiet 0 ',mokquiet0
  print,'  # of valid data for Quiet 1 ',mokquiet1
  print,'***************************************'
  ndx=ndata(1)-ndata(0)+1
  fi=fltarr(ndx)
  fv=fltarr(ndx)
  mvalid=bytarr(ndx)
  return
endif

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
; spline fit

; Noise
whr=where(oksnrs,mok)
case 1 of
(mok ge 2) : begin
  rs_sigma=total(rs_sigma_m(whr))/float(mok)
  ls_sigma=total(ls_sigma_m(whr))/float(mok)
  rc_sigma=total(rc_sigma_m(whr))/float(mok)
  lc_sigma=total(lc_sigma_m(whr))/float(mok)
end
(mok eq 1) : begin
  rs_sigma=(rs_sigma_m(whr))(0)
  ls_sigma=(ls_sigma_m(whr))(0)
  rc_sigma=(rc_sigma_m(whr))(0)
  lc_sigma=(lc_sigma_m(whr))(0)
end
(mok eq 0) : begin
  rs_sigma=0
  ls_sigma=0
  rc_sigma=0
  lc_sigma=0
end
endcase

; Quiet Sun
whr=where(okquiet0,mok)
case 1 of
(mok ge 3) : begin
; rsquiet=spline(timejquiet_m(whr).time,rsquiet_m(whr),timej.time)
; lsquiet=spline(timejquiet_m(whr).time,lsquiet_m(whr),timej.time)
  rsquiet=total(rsquiet_m(whr))/n_elements(rsquiet_m(whr))
  lsquiet=total(lsquiet_m(whr))/n_elements(lsquiet_m(whr))
end
(mok eq 2) : begin
  rsquiet=total(rsquiet_m(whr))*0.5
  lsquiet=total(lsquiet_m(whr))*0.5
end
(mok eq 1) : begin
  rsquiet=(rsquiet_m(whr))(0)
  lsquiet=(lsquiet_m(whr))(0)
end
endcase

whr=where(okquiet1,mok)
case 1 of
(mok ge 3) : begin
; rcquiet=spline(timejquiet_m(whr).time,rcquiet_m(whr),timej.time)
; lcquiet=spline(timejquiet_m(whr).time,lcquiet_m(whr),timej.time)
  rcquiet=total(rcquiet_m(whr))/n_elements(rcquiet_m(whr))
  lcquiet=total(lcquiet_m(whr))/n_elements(lcquiet_m(whr))
end
(mok eq 2) : begin
  rcquiet=total(rcquiet_m(whr))*0.5
  lcquiet=total(lcquiet_m(whr))*0.5
end
(mok eq 1) : begin
  rcquiet=(rcquiet_m(whr))(0)
  lcquiet=(lcquiet_m(whr))(0)
end
endcase

; Calibration
whr=where(okskyw,mok)
case 1 of
(mok ge 3) : begin
; rssky=spline(timejskyw_m(whr).time,rssky_m(whr),timej.time)
; lssky=spline(timejskyw_m(whr).time,lssky_m(whr),timej.time)
; sqdskyw=spline(timejskyw_m(whr).time,sqdskyw_m(whr),timej.time)
  rssky=total(rssky_m(whr))/n_elements(rssky_m(whr))
  lssky=total(lssky_m(whr))/n_elements(lssky_m(whr))
  sqdskyw=total(sqdskyw_m(whr))/n_elements(sqdskyw_m(whr))
end
(mok eq 2) : begin
  rssky=total(rssky_m(whr))/n_elements(rssky_m(whr))
  lssky=total(lssky_m(whr))/n_elements(lssky_m(whr))
  sqdskyw=total(sqdskyw_m(whr))/n_elements(sqdskyw_m(whr))
end
(mok eq 1) : begin
  rssky=(rssky_m(whr))(0)
  lssky=(lssky_m(whr))(0)
  sqdskyw=(sqdskyw_m(whr))(0)
end
endcase

whr=where(okskye,mok)
case 1 of
(mok ge 3) : begin
; rcsky=spline(timejskye_m(whr).time,rcsky_m(whr),timej.time)
; lcsky=spline(timejskye_m(whr).time,lcsky_m(whr),timej.time)
; sqdskye=spline(timejskye_m(whr).time,sqdskye_m(whr),timej.time)
  rcsky=total(rcsky_m(whr))/n_elements(rcsky_m(whr))
  lcsky=total(lcsky_m(whr))/n_elements(lcsky_m(whr))
  sqdskye=total(sqdskye_m(whr))/n_elements(sqdskye_m(whr))        
end 
(mok eq 2) : begin
  rcsky=total(rcsky_m(whr))/n_elements(rcsky_m(whr))
  lcsky=total(lcsky_m(whr))/n_elements(lcsky_m(whr))
  sqdskye=total(sqdskye_m(whr))/n_elements(sqdskye_m(whr))        
end 
(mok eq 1) : begin
  rcsky=(rcsky_m(whr))(0)
  lcsky=(lcsky_m(whr))(0)
  sqdskye=(sqdskye_m(whr))(0)
end
endcase

whr=where(oksunw,mok)
case 1 of
(mok ge 3) : begin
; rssun=spline(timejsunw_m(whr).time,rssun_m(whr),timej.time)
; lssun=spline(timejsunw_m(whr).time,lssun_m(whr),timej.time)
; sqdsunw=spline(timejsunw_m(whr).time,sqdsunw_m(whr),timej.time)
  rssun=total(rssun_m(whr))/n_elements(rssun_m(whr))
  lssun=total(lssun_m(whr))/n_elements(lssun_m(whr))
  sqdsunw=total(sqdsunw_m(whr))/n_elements(sqdsunw_m(whr))
end
(mok eq 2) : begin
  rssun=total(rssun_m(whr))/n_elements(rssun_m(whr))
  lssun=total(lssun_m(whr))/n_elements(lssun_m(whr))
  sqdsunw=total(sqdsunw_m(whr))/n_elements(sqdsunw_m(whr))
end
(mok eq 1) : begin
  rssun=(rssun_m(whr))(0)
  lssun=(lssun_m(whr))(0)
  sqdsunw=(sqdsunw_m(whr))(0)
end
endcase

whr=where(oksune,mok)
case 1 of
(mok ge 3) : begin
; rcsun=spline(timejsune_m(whr).time,rcsun_m(whr),timej.time)
; lcsun=spline(timejsune_m(whr).time,lcsun_m(whr),timej.time)
; sqdsune=spline(timejsune_m(whr).time,sqdsune_m(whr),timej.time)
  rcsun=total(rcsun_m(whr))/n_elements(rcsun_m(whr))
  lcsun=total(lcsun_m(whr))/n_elements(lcsun_m(whr))
  sqdsune=total(sqdsune_m(whr))/n_elements(sqdsune_m(whr))        
end 
(mok eq 2) : begin
  rcsun=total(rcsun_m(whr))/n_elements(rcsun_m(whr))
  lcsun=total(lcsun_m(whr))/n_elements(lcsun_m(whr))
  sqdsune=total(sqdsune_m(whr))/n_elements(sqdsune_m(whr))        
end 
(mok eq 1) : begin
  rcsun=(rcsun_m(whr))(0)
  lcsun=(lcsun_m(whr))(0)
  sqdsune=(sqdsune_m(whr))(0)
end
endcase

;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
; gain
  mvalidg=bytarr(n_elements(timej))+1b

a0e=sqdsune-sqdskye & a0w=sqdsunw-sqdskyw
  whr=where((a0w le 1.) or (a0e le 1.),count)
  if count ge 1 then begin
    mvalidg(whr)=0b
    a0w(whr)=1.
  endif
a0=1./sqrt(a0e*a0w)
gainrs=a0w*flxref/(rssun-rssky)
gainls=a0w*flxref/(lssun-lssky)
gainrc=a0e*flxref/(rcsun-rcsky)
gainlc=a0e*flxref/(lcsun-lcsky)
  whr=where((abs(rssun-rssky) le 1000.),count)
  if count ge 1 then begin
   if ((n_elements(rssun) ne 1) and (n_elements(rssky) ne 1)) then begin
    mvalidg(whr)=0b
    gainrs(whr)=1.
   endif else begin
     print,'***************************************'
     print,'  Calibration invalid for 80G! '
     print,'  No 80G data available'
     print,'***************************************'
     fi=fltarr(ndx)
     fv=fltarr(ndx)
     mvalid=bytarr(ndx)
     return 
   endelse
  endif
  whr=where((abs(lssun-lssky) le 1000.),count)
  if count ge 1 then begin
   if ((n_elements(lssun) ne 1) and (n_elements(lssky) ne 1)) then begin
    mvalidg(whr)=0b
    gainls(whr)=1.
   endif else begin
     print,'***************************************'
     print,'  Calibration invalid for 80G! '
     print,'  No 80G data available'
     print,'***************************************'
     fi=fltarr(ndx)
     fv=fltarr(ndx)
     mvalid=bytarr(ndx)
     return 
   endelse
  endif
  whr=where((abs(rcsun-rcsky) le 1000.),count)
  if count ge 1 then begin
   if ((n_elements(rcsun) ne 1) and (n_elements(rcsky) ne 1)) then begin
    mvalidg(whr)=0b
    gainrc(whr)=1.
   endif else begin
     print,'***************************************'
     print,'  Calibration invalid for 80G! '
     print,'  No 80G data available'
     print,'***************************************'
     fi=fltarr(ndx)
     fv=fltarr(ndx)
     mvalid=bytarr(ndx)
     return 
   endelse
  endif
  whr=where((abs(lcsun-lcsky) le 1000.),count)
  if count ge 1 then begin
   if ((n_elements(lcsun) ne 1) and (n_elements(lcsky) ne 1)) then begin
    mvalidg(whr)=0b
    gainlc(whr)=1.
   endif else begin
     print,'***************************************'
     print,'  Calibration invalid for 80G! '
     print,'  No 80G data available'
     print,'***************************************'
     fi=fltarr(ndx)
     fv=fltarr(ndx)
     mvalid=bytarr(ndx)
     return 
   endelse
  endif

L100:
;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;  restore the attainator, and check the valid data

stt0=stat(ndata(0):ndata(1))
npa=norp_gt_npa(stt0,iatt=iatt)
natt=where((npa-shift(npa,1) ne 0),mattx)
if (mattx ge mattxmax) then begin
  print,'***************************************'
  print,'  Too many att-mode-shift for 80G! '
  print,'  # of att-mode-shift', mattx 
  print,'***************************************'
  fi=fltarr(ndx)
  fv=fltarr(ndx)
  mvalid=bytarr(ndx)
  return 
endif

natti=norp_gt_natti(npa,timej,dtatt)
frs=vatt(npa)*float(rs(ndata(0):ndata(1)))/float(integ)
fls=vatt(npa)*float(ls(ndata(0):ndata(1)))/float(integ)
frc=vatt(npa)*float(rc(ndata(0):ndata(1)))/float(integ)
flc=vatt(npa)*float(lc(ndata(0):ndata(1)))/float(integ)

fr=a0*sqrt((gainrc*(frc-rcquiet))^2+(gainrs*(frs-rsquiet))^2)
fl=a0*sqrt((gainlc*(flc-lcquiet))^2+(gainls*(fls-lsquiet))^2)

fro=fr & flo=fl
r_sigma=a0*sqrt((gainrc*(rc_sigma))^2+(gainrs*(rs_sigma))^2) $
           /sqrt(float(integ))/sqrt(2.)
l_sigma=a0*sqrt((gainlc*(lc_sigma))^2+(gainls*(ls_sigma))^2) $
           /sqrt(float(integ))/sqrt(2.)
fr=norp_clb_snfix(fr,r_sigma)
fl=norp_clb_snfix(fl,l_sigma)

fi=fr+fl+9000   ; add quiet sun
fv=fr-fl

mvalid=(norp_mvalid(ndx,natti) $
    and norp_mvalid(ndx,nskywi-ndata(0)) $
    and norp_mvalid(ndx,nskyei-ndata(0)) $
    and norp_mvalid(ndx,nsunwi-ndata(0)) $
    and norp_mvalid(ndx,nsunei-ndata(0)) $
    and mvalidg)

return
end