c iritest.for, version number can be found at the end of this comment. c----------------------------------------------------------------------- c c test program for the iri_web subroutine c c-version-mm/dd/yy ----------corrections-------------------------- c 2000.01 05/07/01 initial version c 2000.02 07/11/01 line 210: do i=1,100 instead of i=2,100 (K. Tokar) c 2000.03 28/12/01 output oar(39) for IG12 (R. Conkright, NGDC, NOAA) c 2000.04 28/10/02 replace TAB/6 blanks, enforce 72/line (D. Simpson) c 2000.05 02/06/03 Ne(Te) only 300,400; foF1 and hmF1 output corr. c 2000.06 01/19/05 (.not.jf(20)) instead of (..jf(2)) (G. Schiralli) c 2005.01 05/06/06 included spread-F (jf(28)) and topside (jf(29)) options C 2007.00 05/18/07 Release of IRI-2007 c 2007.02 10/31/08 outf(100) -> outf(500), numhei=numstp=500 c 2007.03 02/12/09 added new D-region option (h=-3) c 2007.11 04/19/10 correct TEC for normal output [Shunrong Zhang] c C 2012.00 10/05/11 IRI-2012: bottomside B0 B1 model (SHAMDB0D, SHAB1D), C 2012.00 10/05/11 bottomside Ni model (iriflip.for), auroral foE C 2012.00 10/05/11 storm model (storme_ap), Te with PF10.7 (elteik), C 2012.00 10/05/11 oval kp model (auroral_boundary), IGRF-11(igrf.for), C 2012.00 10/05/11 NRLMSIS00 (cira.for), CGM coordinates, F10.7 daily C 2012.00 10/05/11 81-day 365-day indices (apf107.dat), ap->kp (ckp), C 2012.00 10/05/11 array size change jf(50) outf(20,1000), oarr(100). C 2012.00 03/21/12 PIKTAB=4 output for D-region C 2012.01 09/16/12 Corrected UT output (hour-25) C 2012.02 04/16/18 Versioning now based on year of major releases c INTEGER pad1(6),jdprof(77),piktab DIMENSION outf(20,1000),oar(100,1000),jfi(6) LOGICAL jf(50) CHARACTER*2 timev(2) CHARACTER*3 uni(58),sopt CHARACTER*4 IMZ(8),MAP,xtex,coorv(2) CHARACTER*5 ITEXT(8) CHARACTER*6 dopt,pna(58) CHARACTER*8 bopt,topt CHARACTER*9 pname(6) CHARACTER*11 iopt CHARACTER*16 f1opt DATA IMZ /' km ','GEOD','GEOD','yyyy',' mm ',' dd ','YEAR', & 'L.T.'/, ITEXT/' H ',' LATI', & ' LONG',' YEAR','MONTH',' DAY ','DAYOF',' HOUR'/ data pna/'NmF2','hmF2','NmF1','hmF1','NmE','hmE','NmD','hmD', & 'h05','B0','NVmin','hVtop','Tpeak','hTpek','T300','T400','T600', & 'T1400','T3000','T120','Ti450','hTeTi','sza','sundec','dip', & 'diplat','modip','Lati','Srise','Sset','season','Longi', & 'Rz12','cov','B1','M3000','TEC','TECtop','IG12','F1prb','F107d', & 'C1','daynr','vdrft','foF2r','F10781','foEr','sprd_F','MLAT', & 'MLON','Ap_t','Ap_d','invdip','MLT_i','CGMlat','CGMlon', & 'CGMmlt','AurBdy'/ data uni/'m-3','km','m-3','km','m-3','km','m-3','km','km','km', & 'm-3','km','K','km',7*'K','km',6*'deg',2*'h',' ','deg',4*' ', & 'm-2','%',5*' ','m/s',4*' ',2*'deg',2*' ','deg','h',2*'deg', & 'h','deg'/,timev/'LT','UT'/,coorv/'geog','geom'/ data jfi/8,9,13,14,15,16/ COMMON/const2/icalls,nmono,iyearo,idaynro,rzino,igino,ut0 icalls=0 nmono=-1 iyearo=-1 idaynro=-1 rzino=-1 igino=-1 ut0=-1 nummax=1000 do 6249 i=1,100 6249 oar(i,1)=-1.0 c user input of IRI input parameters c 1 print *,'jmag(=0/1,geog/geom),lati/deg,long/deg' read(5,*) jm,xlat,xlon print *,'year(yyyy),mmdd(or -ddd),iut(=0/1,LT/UT),hour' read(5,*) iy,imd,iut,hour print *,'height/km' read(5,*) hx print *,'output-option' print *,'(enter 0 for standard table of IRI parameters)' print *,'(enter 1 for list of peak heights and densities)' print *,'(enter 2 for plasma frequencies, B0, M3000, ', & 'valley, width and depth,)' print *,'(enter 3 for 6 parameters of your choice)' print *,'(enter 4 for D-region models at 60,65,..,110 km)' print *,'(enter 5 special test output)' read(5,*) piktab print *,'upper height [km] for TEC integration (0 for no TEC)' read(5,*) htec_max print *,'variable? (1/2/../8 for height/lat/long/year/month/', & 'day/day of year/hour)' read(5,*) ivar print *,'begin, end, and stepsize for the selected variable' read(5,*) vbeg,vend,vstp print *,'Options: t(rue) or f(alse)' print *,'Enter 0 to use standard or 1 to enter your own' read(5,*) jchoice do i=1,50 jf(i)=.true. enddo if(piktab.eq.4) jf(24)=.false. if(jchoice.eq.0) then c jf(1)=.false. ! f=no electron densities c jf(2)=.false. ! f=no temperatures c jf(3)=.false. ! f=no ion composition jf(4)=.false. ! t=B0table f=other models jf(5)=.false. ! t=CCIR f=URSI foF2 model jf(6)=.false. ! t=DS95+DY85 f=RBV10+TTS03 c jf(7)=.false. ! t=tops f10.7<188 f=unlimited c jf(21)=.false. ! f=ion drift not computed jf(23)=.false. ! t=AEROS/ISIS f=TTS Te with PF10.7 c jf(24)=.false. ! t=D-reg-IRI-1990 f=FT-2001 c jf(26)=.false. ! f=STORM model turned off c jf(28)=.false. ! f=spread-F not computed jf(29)=.false. ! t=old f=New Topside options jf(30)=.false. ! t=corr f=NeQuick topside c jf(31)=.false. ! t=B0ABT f=Gulyaeva c jf(33)=.false. ! t=auroral boundary on c jf(35)=.false. ! t=E-storm model on c jf(36)=.false. ! t=hmF2 w/out foF2_storm f=with c jf(37)=.false. ! t=topside w/out foF2_storm f=with c jf(38)=.false. ! t=WRITEs off in IRIFLIP f=on else print *,'Compute Ne, T, Ni? (enter: t,t,t if you want all)' read(5,*) jf(1),jf(2),jf(3) if(jf(1)) then print *,'LAY version: t=standard ver., f=LAY version.', & ' {standard:t}' read(5,*) jf(11) print *,'Ne Topside: t=IRI-2001/h0.5, f=new options {f}' read(5,*) jf(29) print *,'Ne Topside: t=IRI01_corrt, f=NeQuick/h0.5 {f}' read(5,*) jf(30) print *,'Ne Topside: t=F10.7<188, f=unlimited {t}' read(5,*) jf(7) print *,'foF2 model: t=CCIR, f=URSI-88 {f}' read(5,*) jf(5) print *,'foF2: t=with storm model, f=without {t}' read(5,*) jf(26) print *,'F2 peak density or foF2: t=model, ', & 'f=user input {t}' read(5,*) jf(8) print *,'F2 peak height or M3000F2: t=model, ', & 'f=user input {t}' read(5,*) jf(9) print *,'Auroral boundary model: t=on, f=off {f}' read(5,*) jf(33) print *,'Bottomside thickness B0: t=Bil-2000, ', & 'f=other options {f}.' read(5,*) jf(4) print *,'Bottomside thickness B0: t=ABT-2009, ', & 'f= Gul-1987 {t}.' read(5,*) jf(31) print *,'F1 peak density or foF1: t=model, ', & 'f=user input {t}' read(5,*) jf(13) if(.not.jf(11)) then print *,'F1 peak height: t=model, f=user input {t}' read(5,*) jf(14) endif print *,'F1: t=with probability model, f=without {t}' read(5,*) jf(19) print *,'F1: t=standard probability, f=with L ', & 'condition {t}' read(5,*) jf(20) print *,'E peak density or foE: t=model, f=user input {t}' read(5,*) jf(15) print *,'E peak height: t=model, f=user input {t}' read(5,*) jf(16) print *,'E peak auroral storm model: t=on, f=off {f}' read(5,*) jf(35) print *,'D: t=IRI-1990, f= FT-2001 {t}' read(5,*) jf(24) endif if(jf(2)) then print *,'Te(Ne) model: t=not used, f=correlation is', & ' used. {t}' read(5,*) jf(10) print *,'Te: t=Bil-1985, f=TBT-2012 {f}' read(5,*) jf(23) endif if(jf(3)) then print *,'Ion comp. model: t=DS95/DY85, f=RBV10/TTS05 {f}' read(5,*) jf(6) print *,'Ni: t=ion composition in %, f=ion densities', & 'in cm-3 {t}' read(5,*) jf(22) endif print *,'Equat. Vert. Ion Drift: t=computed, ', & 'f=not computed {t}' read(5,*) jf(21) print *,'Spread-F probability: t=computed, ', & 'f=not computed {t}' read(5,*) jf(28) print *,'Sunspot index: t=from file, f=user input. {t}' read(5,*) jf(17) print *,'Ionospheric index: t=from file, f=user input. {t}' read(5,*) jf(27) print *,'F10.7D Index: t=from file, f=user input {t}' read(5,*) jf(25) print *,'F10.7_81 Index: t=from file, f=user input {t}' read(5,*) jf(32) print *,'UT/LT computation: t=no date change, f=ut_lt ', & 'subroutine {t}' read(5,*) jf(18) print *,'Message output unit: t=(UNIT=6), f=(UNIT=12). {t}' read(5,*) jf(12) endif c if(piktab.gt.3) jf(24)=.false. c option to enter six additional parameters c if(PIKTAB.eq.3) then print *,'6 Parameters of your choice (number:1-48)' print *,(pna(j),j=1,10) print *,(pna(j),j=11,20) print *,(pna(j),j=21,30) print *,(pna(j),j=31,40) print *,(pna(j),j=41,50) print *,(pna(j),j=51,58) print *,'or 0,0,0,0,0,0 for default:' print *,' spread-F probability [48]' print *,' equatorial vertical ion drift [44]' print *,' foF2_storm/foF2_quiet [45]' print *,' foE_storm/foE_quiet [47]' print *,' eqward auroral boundy CGM-Lat [58]' c print *,' solar zenith angle [23]' c print *,' modified dip latitude [27]' print *,' Ap for current UT [51]' read(5,*) (pad1(j),j=1,6) if(pad1(1).eq.0) then pad1(1)=48 ! spread-F probability jf(28)=.true. pad1(2)=44 ! equatorial vertical ion drift jf(21)=.true. pad1(3)=45 ! fof2_storm/foF2_quiet jf(26)=.true. pad1(4)=47 ! foE_storm/foE_quiet jf(35)=.true. pad1(5)=58 ! CGM_lat auroral boundary jf(33)=.true. pad1(6)=51 ! ap for current UT endif endif c option to enter measured values for NmF2, hmF2, NmF1, hmF1, NmE, hmE, c N(300), N(400), N(600) if available; c print *,' ' print *,' ' print *,' ' numstp=int((vend-vbeg)/vstp)+1 if(ivar.eq.1) numstp=1 if(jf(1)) then if(.not.jf(8).or..not.jf(9).or..not.jf(13).or..not.jf(14).or. & .not.jf(15).or..not.jf(16)) then var=vbeg i=1 2234 if(.not.jf(8)) then jf(26)=.false. ! storm model off, if user input print *,'foF2/Mhz or NmF2/m-3 for ',itext(ivar), & '=',var read(5,*) oar(1,i) pname(1)='foF2/MHz' if(oar(1,i).gt.30.) pname(1)='NmF2/m-3' endif if(.not.jf(9)) then print *,'hmF2/km or M3000F2 for ',itext(ivar), & '=',var read(5,*) oar(2,i) pname(2)='M(3000)F2' if(oar(2,i).gt.50.) pname(2)='hmF2/km' endif if(.not.jf(13)) then print *,'foF1/MHz or NmF1/m-3 for ',itext(ivar), & '=',var read(5,*) oar(3,i) pname(3)='foF1/MHz' if(oar(3,i).gt.30.) pname(3)='NmF1/m-3' endif if(.not.jf(14)) then print *,'hmF1/km for ',itext(ivar),'=',var read(5,*) oar(4,i) pname(4)='hmF1/km' endif if(.not.jf(15)) then print *,'foE/MHz or NmE/m-3 for ',itext(ivar), & '=',var read(5,*) oar(5,i) pname(5)='foE/MHz' if(oar(5,i).gt.30.) pname(5)='NmE/m-3' endif if(.not.jf(16)) then print *,'hmE/km for ',itext(ivar),'=',var read(5,*) oar(6,i) pname(6)='hmE/km' endif i=i+1 var=var+vstp if(ivar.gt.1.and.var.le.vend) goto 2234 endif endif c option to enter Ne for Te-Ne relationship c if(jf(2).and..not.jf(10)) then var=vbeg do 1235 i=1,numstp print *,'Ne(300km),Ne(400km)/m-3', & ' for ',itext(ivar),'=',var,' [-1 if not]' read(5,*) oar(15,i),oar(16,i) 1235 var=var+vstp endif c option to enter F107D and/or PF107 c if(.not.jf(25)) then print *,'User input for F107D:' read(5,*) f107d do i=1,100 oar(41,i)=f107d enddo endif if(.not.jf(32)) then print *,'User input for PF107:' read(5,*) pf107d do i=1,100 oar(46,i)=pf107d enddo endif c option to enter Rz12 and/or IG12 c if(.not.jf(17)) then print *,'User input for Rz12' read(5,*) oar(33,1) do i=2,100 oar(33,i)=oar(33,1) enddo endif if(.not.jf(27)) then print *,'User input for IG12' read(5,*) oar(39,1) do i=2,100 oar(39,i)=oar(39,1) enddo endif c end of user input c num1=(vend-vbeg)/vstp+1 numstp=iabs(num1) if(numstp.GT.nummax) numstp=nummax map='URSI' if(jf(5)) map='CCIR' if(jf(4)) then bopt='BIl-2000' else if(jf(31)) then bopt='ABT-2009' else bopt='Gul-1987' endif endif iopt='RBY10+TTS03' if(jf(6)) iopt='DS95 + DY85' dopt='FT2001' if(jf(24)) dopt='IRI-95' sopt='off' if(jf(26)) sopt='on ' topt='TBT-2011' if(jf(23)) topt='BIl-1985' if(jf(19)) then f1opt='Scotto-97 no L' if(.not.jf(20)) f1opt='Scotto-97 with L' else f1opt='IRI-95' endif hxx=hx jmag=jm mmdd=imd c calling IRI subroutine c phour=hour call iri_web(jmag,jf,xlat,xlon,iy,mmdd,iut,hour, & hxx,htec_max,ivar,vbeg,vend,vstp,outf,oar) c preparation of results page c write(7,3991) iy,mmdd,phour,timev(iut+1),coorv(jmag+1),xlat, & xlon,hxx if(jf(1)) then if(jf(29)) then if(jf(30)) then write(7,3314) else write(7,3315) endif else if(jf(30)) then write(7,3316) else write(7,3317) endif endif if(jf(8)) write(7,301) map if(jf(9)) write(7,303) write(7,3081) dopt write(7,309) bopt write(7,3291) sopt write(7,3295) f1opt numi=numstp if(ivar.eq.1) numi=1 do j=1,6 ij=jfi(j) if(.not.jf(ij)) then write(7,302) pname(j) write(7,402) (oar(j,i),i=1,numi) endif enddo endif if(jf(2)) write(7,3292) topt if(jf(3)) write(7,329) iopt if(ivar.eq.1) then if(oar(3,1).lt.1.) oar(4,1)=0. yp2=0 if(oar(3,1).gt.0.0) yp2=oar(3,1)/1.e6 write(7,213) oar(1,1)/1.E6,yp2,oar(5,1)/1.E6 write(7,214) oar(2,1),oar(4,1),oar(6,1) else write(7,307) endif write(7,211) oar(23,1),oar(25,1),oar(27,1) if(.not.jf(17)) then write(7,223) oar(33,1) else write(7,212) oar(33,1) endif if(.not.jf(27)) then write(7,2231) oar(39,1) else write(7,2121) oar(39,1) endif if(htec_max.gt.50.0) write(7,3914) htec_max 3991 format(///'yyyy/mmdd(or -ddd)/hh.h):',I4,'/',I4,'/',F4.1, & A2,2X,A4,' Lat/Long/Alt=',F5.1,'/',F6.1,'/',F6.1/) 3914 format(/'TEC [1.E16 m-2] is obtained by numerical integration', & ' in 1km steps'/' from 50 to ',f6.1,' km. t is the', & ' percentage of TEC above the F peak.') 3916 format(/'M3000F2: Propagation factor related to hmF2'/ & 'B0: bottomside thickness parameter.') 301 format(A4,' maps are used for the F2 peak density (NmF2)') 302 format(A9,' provided by user:') 402 format(7(1PE10.3)) 303 format('CCIR maps are used for the F2 peak height (hmF2)') 304 format(A25,'=',F5.1,') provided by user') 307 format(1x/'Solar and magnetic parameter for the 1st profile', & ' point:') 309 format(A8,' option is used for the bottomside thickness ', & 'parameter B0') 3081 format(A6,' option is used for D-region') 329 format(A11,' option is used for ion composition') 3291 format('The foF2 STORM model is turned ',A3) 3292 format(A8,' option is used for the electron temperature') 3293 format(A8,' option is used for the D-region Ne') 3295 format(A16,' option is used for the F1 occurrence probability') 211 format('Solar Zenith Angle/degree',28X,F6.1/ & 'Dip (Magnetic Inclination)/degree',20X, & F6.2/'Modip (Modified Dip)/degree',26X,F6.2) 212 format('Solar Sunspot Number (12-months running mean) Rz12', & 4X,F5.1) 223 format('Solar Sunspot Number (12-months running mean) Rz12', & 4X,F5.1,'{user provided input}') 2121 format('Ionospheric-Effective Solar Index IG12',16X,F5.1) 2231 format('Ionospheric-Effective Solar Index IG12',16X, & F5.1,'{user provided input}') 213 format(/'Peak Densities/cm-3: NmF2=',F9.1,' NmF1=',F9.1, & ' NmE=',F9.1) 214 format('Peak Heights/km: hmF2=',F9.2,' hmF1=',F9.2, & ' hmE=',F9.2/) 3314 format('IRI-2001 is used for topside Ne profile') 3315 format('h0.5 model is used for topside Ne profile') 3316 format('Corrected IRI01 is used for topside Ne profile') 3317 format('NeQuick is used for topside Ne profile') c c table head ....................................................... c agnr=7 !output unit number xtex=imz(ivar) if(jmag.gt.0.and.(ivar.eq.2.or.ivar.eq.3)) xtex='GEOM' if(iut.gt.0.and.ivar.eq.8) xtex='U.T.' IF(PIKTAB.EQ.4) WRITE(7,8199) IF(PIKTAB.EQ.3) WRITE(7,8191) ITEXT(IVAR), & (pna(pad1(j)),j=1,6),xtex,(uni(pad1(j)),j=1,6) IF(PIKTAB.EQ.2) WRITE(7,8194) ITEXT(IVAR),xtex IF(PIKTAB.EQ.1) WRITE(7,8192) ITEXT(IVAR),xtex IF(PIKTAB.EQ.0) WRITE(7,8193) ITEXT(IVAR),xtex 8191 FORMAT(/'-'/2X,A5,6A10/3X,A4,6A10) 8192 FORMAT(/'-'/2X,A5,6X,'PEAK ALTITUDES IN KM',8X,'PEAK DEN', & 'SITIES IN cm-3 TEC top/%'/3X,A4,' hmF2 hmF1 hmE ', & 'hmD NmF2 NmF1 NmE NmD 1E16m-2') 8194 FORMAT(/'-'/2X,A5,3X,'M3000 B0',3X,'B1 E-VALLEY',7X,'PLASMA ', & 'FREQUENCIES / MHz'/3X,A4,11X,'km W/km ', & ' Depth',5X,'foF2 foF1 foE foD') 8193 FORMAT(/'-'/1X,A5,' ELECTRON DENSITY TEMPERATURES ', & 8X,'ION PERCENTAGES/%',5x,'1E16m-2'/2X,A4,' Ne/cm-3 Ne/NmF2', & ' Tn/K Ti/K Te/K O+ N+ H+ He+ O2+ NO+ Clust TEC t/%') 8199 FORMAT(/'-'/1X,'h',8X,' D-REGION ELECTRON DENSITY IN CM-3'/ & 1X,'km',18X,'DRS-95: Stratos Warming/Winter Anomaly'/5X, & 'IRI-07',4x,'FIRI SW/WA=0/0 0.5/0 1/0 0/0.5 0/1') c c output: D-region PIKTAB=4 c c D-REGION ELECTRON DENSITY IN CM-3: c IRI-07 FIRI Danilov:SW/WA=0/0 0.5/0 1/0 0/0.5 0/1 c DRS-95: Stratos Warming/Winter Anomaly c if(piktab.eq.4) then do 2591 lix=1,77 jdprof(lix)=-1 dichte=outf(14,lix) 2591 if(dichte.gt.0.) jdprof(lix)=int(dichte/1.e6+0.5) do 2592 lix=1,11 ihtemp=55+lix*5 WRITE(7,3810) ihtemp,jdprof(lix),jdprof(lix+11), & jdprof(lix+22),jdprof(lix+33),jdprof(lix+44), & jdprof(lix+55),jdprof(lix+66) 2592 continue 3810 FORMAT(I3,7I8) goto 2357 endif xcor=vbeg do 1234 li=1,numstp c c output: peak densities and altitudes PIKTAB=1 c IF(PIKTAB.eq.1) THEN if(oar(3,li).lt.1.) oar(4,li)=0. iyp1=int(oar(1,li)/1.e6+.5) iyp2=0 if(oar(3,li).gt.0.0) iyp2=int(oar(3,li)/1.e6+.5) iyp3=int(oar(5,li)/1.e6+.5) iyp4=int(oar(7,li)/1.e6+.5) tec=oar(37,li) if(tec.gt.0.0) then tec=tec/1.e16 itopp=int(oar(38,li)+.5) else tec=-1.0 itopp=-1 endif WRITE(7,3910) XCOR,oar(2,li),oar(4,li),oar(6,li),oar(8,li), & iyp1,iyp2,iyp3,iyp4,tec,itopp 3910 FORMAT(F7.1,2X,4F6.1,1X,I9,3I7,1X,F6.2,I4) GOTO 1234 ENDIF c c output: plasma frequencies and profile parameters PIKTAB=2 c IF(PIKTAB.eq.2) THEN if(oar(3,li).lt.1.) oar(4,li)=0. fyp1=SQRT(oar(1,li)/1.24E10) fyp2=0 if(oar(3,li).gt.0.0) fyp2=SQRT(oar(3,li)/1.24E10) fyp3=SQRT(oar(5,li)/1.24E10) fyp4=SQRT(oar(7,li)/1.24E10) tec=oar(37,li) if(tec.gt.0.0) then tec=tec/1.e16 itopp=int(oar(38,li)+.5) else tec=-1.0 itopp=-1 endif wvalley=oar(12,li)-oar(6,li) dvalley=0.0 if(oar(5,li).gt.0.0) dvalley=oar(11,li)/oar(5,li) WRITE(7,3950) XCOR,oar(36,li),oar(10,li),oar(35,li), & wvalley,dvalley,fyp1,fyp2,fyp3,fyp4 3950 FORMAT(F7.1,2X,F6.4,F6.1,F4.1,F6.1,F8.4,1X,4F7.3) GOTO 1234 ENDIF c c output: 6 parameters of your choice PIKTAB=3 c IF(PIKTAB.eq.3) THEN c if(pad1.eq.45.and.oar(pad1,li).le.0.0) oar(pad1,li)=-1. c if(pad2.eq.45.and.oar(pad2,li).le.0.0) oar(pad2,li)=-1. c if(pad3.eq.45.and.oar(pad3,li).le.0.0) oar(pad3,li)=-1. WRITE(7,3919) XCOR,oar(pad1(1),li),oar(pad1(2),li), & oar(pad1(3),li),oar(pad1(4),li),oar(pad1(5),li), & oar(pad1(6),li) 3919 FORMAT(F7.1,6(1X,1PE9.2)) GOTO 1234 ENDIF c c output: special for test purposes PIKTAB=5 c IF(PIKTAB.eq.5) THEN c ----------- B0, B1 ---------------- c WRITE(8,4919) XCOR,oar(10,li),oar(35,li) c4919 FORMAT(F7.1,2X,F6.2,2X,F5.3) c ----------- Te ---------------- c WRITE(8,4919) XCOR,outf(2,li),outf(3,li),outf(4,li) c4919 FORMAT(F7.1,2X,F6.1,2X,F6.1,2X,F6.1) c ----------- Ne, TEC ---------------- c WRITE(8,4919) XCOR,outf(1,li),oar(37,li) c4919 FORMAT(F7.1,2X,E12.5,2X,E12.5) c ----------- Ni ---------------- c type*,XCOR,outf(1,li),outf(5,li),outf(6,li), c & outf(7,li),outf(8,li),outf(9,li),outf(10,li),outf(11,li) c WRITE(8,4919) XCOR,outf(1,li),outf(5,li),outf(6,li), c & outf(7,li),outf(8,li),outf(9,li),outf(10,li),outf(11,li) c4919 FORMAT(F7.1,2X,E12.5,7F10.4) c ----------- hmF2 ---------------- c type*,XCOR,oar(26,li),oar(2,li),oar(36,li), c & sqrt(oar(1,li)/oar(5,li)),oar(33,li),oar(39,li) c WRITE(8,4919) XCOR,outf(1,li),outf(5,li),outf(6,li), c & outf(7,li),outf(8,li),outf(9,li),outf(10,li),outf(11,li) c4919 FORMAT(F7.1,2X,E12.5,7F10.4) c ----------- auroral boundary ---------------- c print *,XCOR,oar(55,li),oar(56,li),oar(54,li), c & oar(57,li),oar(54,li)-oar(57,li),oar(58,li) c WRITE(8,4919) XCOR,outf(1,li),outf(5,li),outf(6,li), c & outf(7,li),outf(8,li),outf(9,li),outf(10,li),outf(11,li) c4919 FORMAT(F7.1,2X,E12.5,7F10.4) GOTO 1234 ENDIF c c output: standard c if(ivar.eq.1) then oar(1,li)=oar(1,1) oar(37,li)=oar(37,1) oar(38,li)=oar(38,1) endif jne=int(outf(1,li)/1.e6+.5) xner=outf(1,li)/oar(1,li) jtn=int(outf(2,li)+.5) jti=int(outf(3,li)+.5) jte=int(outf(4,li)+.5) jio=INT(OUTF(5,li)+.5) jih=INT(OUTF(6,li)+.5) jihe=INT(OUTF(7,li)+.5) jino=INT(OUTF(8,li)+.5) jio2=INT(OUTF(9,li)+.5) jicl=INT(OUTF(10,li)+.5) jin=INT(OUTF(11,li)+.5) c print *,'O+,N+,O2+,NO+=',outf(5,li), c & outf(11,li),outf(9,li),outf(8,li) if(outf(1,li).lt.0) jne=-1 if(outf(1,li).lt.0) xner=-1. if(outf(2,li).lt.0) jtn=-1 if(outf(3,li).lt.0) jti=-1 if(outf(4,li).lt.0) jte=-1 if(outf(5,li).lt.0) jio=-1 if(outf(6,li).lt.0) jih=-1 if(outf(7,li).lt.0) jihe=-1 if(outf(8,li).lt.0) jino=-1 if(outf(9,li).lt.0) jio2=-1 if(outf(10,li).lt.0) jicl=-1 if(outf(11,li).lt.0) jin=-1 tec=oar(37,li) if(tec.gt.0.0) then tec=tec/1.e16 itopp=int(oar(38,li)+.5) else tec=-1.0 itopp=-1 endif c print *, XCOR,jne,xner,jtn,jti,jte,jio,jin, c & jih,jihe,jino,jio2,jicl,tec,itopp WRITE(7,7117) XCOR,jne,xner,jtn,jti,jte,jio,jin, & jih,jihe,jino,jio2,jicl,tec,itopp 7117 FORMAT(F6.1,I8,1x,F6.3,3I6,7I4,f6.1,i4) 1234 xcor=xcor+vstp 2357 print *,'Enter 0 to exit or 1 to generate another profile?' read(5,*) icontinue if (icontinue.gt.0) goto 1 stop end