%!PS-Adobe-3.0 EPSF-3.0 http://farbe.li.tu-berlin.de/heo8/heo80-1a
%%BoundingBox: 70 85 246 206
%START PDFDE011.EPS
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[/Title (PostScript pictures: farbe.li.tu-berlin.de/heo8/heo8.HTM)
/Author (compare K. Richter "Computergrafik ...": ISBN 3-8007-1775-1)
/Subject (goto: http://farbe.li.tu-berlin.de or http://color.li.tu-berlin.de)
/Keywords (image reproduction, colour devices)
/Creator (klaus.richter@mac.com)
/CreationDate (D:2024100112000)
/ModDate (D:20241001112000)
/DOCINFO pdfmark01
[ /View [ /Fit ]
/DOCVIEW pdfmark01
%END PDFDE011
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%20% kleiner
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%40% kleiner
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/kKs {250 /TimesI-ISOL1 FS show TK} bind def
/bKs {250 /TimesB-ISOL1 FS show TK} bind def
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/eKs {200 /Times-ISOL1 FS 0 130 rmoveto show 0 -130 rmoveto TK} bind def
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/ipK {200 /Times-ISOL1 FS 30 30 rmoveto (\267) show 30 -30 rmoveto TK} bind def
%60% kleiner
/nLs {200 /Times-ISOL1 FS show TL} bind def
/kLs {200 /TimesI-ISOL1 FS show TL} bind def
/bLs {200 /TimesB-ISOL1 FS show TL} bind def
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/ebLs {160 /TimesB-ISOL1 FS 0 110 rmoveto show 0 -110 rmoveto TL} bind def
/ipL {160 /Times-ISOL1 FS 25 25 rmoveto (\267) show 25 -25 rmoveto TL} bind def
/jbLs {160 /TimesBI-ISOL1 FS 0 110 rmoveto show 0 -110 rmoveto TL} bind def
%80% smaller
/nSs {160 /Times-ISOL1 FS show TS} bind def
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/bSs {160 /TimesB-ISOL1 FS show TS} bind def
/jSs {160 /TimesBI-ISOL1 FS show TS} bind def
/sSs {160 /Symbol FS show TS} bind def
/iSs {130 /Times-ISOL1 FS 0 -30 rmoveto show 0 30 rmoveto TS} bind def
/eSs {130 /Times-ISOL1 FS 0 80 rmoveto show 0 -80 rmoveto TS} bind def
/ibSs {130 /TimesB-ISOL1 FS 0 -30 rmoveto show 0 30 rmoveto TS} bind def
/ebSs {130 /TimesB-ISOL1 FS 0 80 rmoveto show 0 -80 rmoveto TS} bind def
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/jbSs {130 /TimesBI-ISOL1 FS 0 80 rmoveto show 0 -80 rmoveto TS} bind def
/20rm {20 0 rmoveto} def
/cvishow {cvi 10 string cvs show} def
/cvsshow1 {10 mul cvi 0.1 mul 10 string cvs show} def
/cvsshow2 {100 mul cvi 0.01 mul 10 string cvs show} def
/cvsshow3 {1000 mul cvi 0.001 mul 10 string cvs show} def
/cvsshow4 {10000 mul cvi 0.0001 mul 10 string cvs show} def
/cvsshow1x {/nxx exch def %example nxx=99.1/99.0
nxx 0 lt {(-) show}
{() show} ifelse
nxx 10 mul cvi abs /nxi exch def %nxi=991/990
nxi 10 idiv /nxa exch def %nxa=99
nxi nxa 10 mul sub /nxb exch def %nxb=1/0
nxa cvishow (,) show %nxa=99
nxb cvishow %nxb=1/0
} def
/cvsshow2x {/nxx exch def %example nxx=99.12/99,02/99,00
nxx 0 lt {(-) show}
{() show} ifelse
nxx 100 mul cvi abs /nxi exch def %nxi=9912/9902/00
nxi 100 idiv /nxa exch def %nxa=99
nxi nxa 100 mul sub /nxb exch def %nxb=12/02/00
nxa cvishow (,) show %nxb=99,
nxb 10 ge {nxb cvishow} if %nxb=12
nxb 1 ge
nxb 9 le and {(0) show nxb cvishow} if %nxb=02
nxb 0 eq {(00) show} if %nxb=00
} def
/cvsshow3x {/nxx exch def %example nxx=99.123/99.012/99.001/99.000
nxx 0 lt {(-) show}
{() show} ifelse
nxx 1000 mul cvi abs /nxi exch def %nxi=99123/99012/99001/99000
nxi 1000 idiv /nxa exch def %nxa=99
nxi nxa 1000 mul sub /nxb exch def %nxb=123/012/001/000
nxa cvishow (,) show %nxb=99,
nxb 100 ge {nxb cvishow} if %nxb=123/012/001/000
nxb 10 ge
nxb 99 le and {(0) show nxb cvishow} if %nxb=012
nxb 1 ge
nxb 9 le and {(00) show nxb cvishow} if %nxb=001
nxb 0 eq {(000) show} if %nxb=000
} def
/cvsshow4x {/nxx exch def %example nxx=99.123/99.0
nxx 0 lt {(-) show}
{() show} ifelse
nxx 10000 mul cvi abs /nxi exch def %nxi=99123/99012/99001/9
nxi 10000 idiv /nxa exch def %nxa=99
nxi nxa 10000 mul sub /nxb exch def %nxb=123/012/001/000
nxa cvishow (,) show %nxb=99,
nxb 1000 ge {nxb cvishow} if %nxb=123/012/001/000
nxb 100 ge
nxb 999 le and {(0) show nxb cvishow} if %nxb=012
nxb 10 ge
nxb 99 le and {(00) show nxb cvishow} if %nxb=012
nxb 1 ge
nxb 9 le and {(000) show nxb cvishow} if %nxb=001
nxb 0 eq {(0000) show} if %nxb=000
} def
/cvsshow4s {/nxx exch def %example nxx=-0,1234
nxx 0 lt {(-0,) show}
{(0,) show} ifelse
/nxi nxx 10000 mul cvi abs def %nxi=1234
nxi 1000 ge {nxi cvishow} if %nxb=123/012/001/000
nxi 100 ge
nxi 999 le and {(0) show nxi cvishow} if %nxb=123/012/001/000
nxi 10 ge
nxi 99 le and {(00) show nxi cvishow} if %nxb=012
nxi 1 ge
nxi 9 le and {(000) show nxi cvishow} if %nxb=001
nxi 0 eq {(0000) show} if %nxb=000
} def
%XCHA01.PS BEG
/rec %x, y width heigth
{/heigth exch def /width exch def
moveto width 0 rlineto 0 heigth rlineto width neg 0 rlineto
closepath } bind def
/colrecfi %x y width heigth r g b
{setrgbcolor rec fill} bind def
/colrecst %x y width heigth r g b
{setrgbcolor rec stroke} bind def
/rem %x, y width heigth
{/heigth exch 0.5 mul def /width exch 0.5 mul def
/yleftb exch heigth 0.5 mul add def
/xleftb exch width 0.5 mul add def
xleftb yleftb
moveto width 0 rlineto 0 heigth rlineto width neg 0 rlineto
closepath } bind def
/colremfi %x y width heigth r g b
{setrgbcolor rem fill} bind def
/colremst %x y width heigth r g b
{setrgbcolor rem stroke} bind def
/tfr {1.0 0.0 0.0 setrgbcolor} bind def %Reproduktionsfarben
/tfg {0.0 1.0 0.0 setrgbcolor} bind def
/tfb {0.0 0.0 1.0 setrgbcolor} bind def
/tfc {0.0 1.0 1.0 setrgbcolor} bind def
/tfm {1.0 0.0 1.0 setrgbcolor} bind def
/tfy {1.0 1.0 0.0 setrgbcolor} bind def
/tfw {1.00 1.00 1.00 setrgbcolor} bind def %Graureihe
/tfh {0.75 0.75 0.75 setrgbcolor} bind def
/tfz {0.50 0.50 0.50 setrgbcolor} bind def
/tfd {0.25 0.25 0.25 setrgbcolor} bind def
/tfn {0.00 0.00 0.00 setrgbcolor} bind def
%**********************************************
/proc_basdef {%BEG proc_basdef
/YnW 100 def %HAULAB, CIELAB
%/Yki 700 array def %101(W)+3*101(R,G,B)
%/dYki 700 array def
%/L*ki 700 array def
%/logL*ki 700 array def
%/X0ki 700 array def %log(Xi)
/Yi 700 array def %101(W)+3*101(R,G,B)
/dYi 700 array def
/L*i 700 array def
/logL*i 700 array def
/X0ki 700 array def %log(Xi)
/X00k 100 array def %x-axis
/Y00k 100 array def %L*i, log(L*i)
/Y0uk 100 array def %L*i/Lu, log(L*i/L*u)
/Y10k 100 array def %dYi, log(dYi)
/Y1uk 100 array def %dYi/dYu, log(dYi/dYu)
/Y20k 100 array def %dYi/Yi, log(dYi/Yi) sensitivity
/Y2uk 100 array def %(dYi/dYu)/(Yi/Yu), log[(dYi/dYu)/(Yi/Yu)]
/Y30k 100 array def %Yi/dYi, log(Yi/dYi) contrast
/Y3uk 100 array def %(Yi/Yu)/(dYi/dYu), log[(Yi/Yu)/(dYi/dYu)]
/Yx0k 100 array def %one of four Y00k, Y10k, Y20k, Y20k
/Yxuk 100 array def %one of four Y0uk, Y1uk, Y2uk, Y2uk
/MULX 1000 def
/MULY 1000 def
%data for HAULAB IECsRGB, TUBsRGB
/c32 3.2258 def %HAULAB n=0.31
/e10D32 1.0 3.2258 div def
/e20D32 2.2258 3.2258 div def
/c24 2.4 def %IECsRGB
/e10D24 1.0 2.4 div def
/e14D24 1.4 2.4 div def
/c30 3.0 def %CIELAB
/e10D30 1.0 3.0 div def
/e20D30 2.0 3.0 div def
/c23 2.3 def %TUBsRGB
/e10D23 1.0 10 ln div def
/e13D23 10 ln 1 sub 10 ln div def
/econst 2.71828182 def
/W2 2 sqrt def
/FL 0.0001 def
/x00t 0400 def %xpos for BEG equations
/x01t 1900 def %xpos for shift equations
/x00e 5250 def %xpos for Num equations
%STOP0A
} bind def %END proc_basdef
%$STOP00
%***************************************************
/proc_funcHAU {%BEG proc_funcHAU function Haubner 4 versions, ifunc-0 to 3
%from 'hnp5'Y10-3n.EPS, line 259:371
/Haubdatj 28 array def %phi, Cr(phi), S0(phi), S1(phi)
%BEG Haubdati Table 1, 7x4 data
%A Unifield Relationship between Brightness an Luminance
%P. Haubner, H.-W. Bodmann and A.W. Marsden
%Siemens Forsch. u. Entwickl.Ber. Bd. 9 (1980), Nr. 6, p.315-318
/phk 7 array def %form above publication, i=ichart=6,0 10,20,..,120
/CTk 7 array def
/S0k 7 array def
/S1k 7 array def
/Ltk 7 array def %t=black threshold, equ. (71), Haubner, PhD-thesis
/phi 7 array def %form above publication, i=ichart=0,6 120,90,..,10
/CTi 7 array def
/S0i 7 array def
/S1i 7 array def
/Lti 7 array def %t=black threshold, equ. (71), Haubner, PhD-thesis
%Lti=[S0i + S1i*(La)^n]^(1/n)
%Table 1 order of Haubner
/phk [010 020 030 060 090 100 120 ] def
/CTk [30.747 27.971 26.235 23.973 23.415 23.128 22.969 ] def
/S0k [0.27308 0.20132 0.17975 0.13133 0.10838 0.07473 0.07186] def
/S1k [0.39842 0.35557 0.31888 0.26578 0.25265 0.24943 0.24481] def
%inverse Table 1 order of Haubner, used as default, index i=ichart=0,6
/phi [120 100 090 060 030 020 010 ] def
/CTi [22.969 23.128 23.415 23.973 26.235 27.971 30.747 ] def
/S0i [0.07186 0.07473 0.10868 0.13133 0.17975 0.20132 0.27308] def
/S1i [0.24481 0.24943 0.25265 0.26578 0.31888 0.35557 0.39842] def
/Haub_Laj 7 array def %300 default, index j=jchart=0,6
%j 0 1 2 3 4 5 6
/Haub_Laj [0300 1000 200 40 08 1.6 0.32] def
/Haub_n 0.31 def %fix
/Haub_1Mn 1 0.31 div def %=3.2268 (1Mn=1-Minus-n)
/Haub_B0ij 49 array def %=7x7 options for ichart=0,6 and jchart=0,6
/Haub_Ltij 49 array def %t=black threshold
/Haub_B*ij 49 array def %brightness - Hellheit
/Laj Haub_Laj jchart get def %a=Adaptation white La=300, 5000, ..1,6
/Lajen Laj Haub_n exp def
/Lr 300 def %r=reference=La0
/Lren Lr Haub_n exp def %e=exponent
/Lrdaj Lr Laj div def
/Lrdajen Lrdaj Haub_n exp def
/Lajdr Laj Lr div def
/Lajdren Lajdr Haub_n exp def
/LTj Laj def %0.01Laj < Laj < 10Laj
%or 0,16 <= Laj <= 5000 cd/m^2
/LTjen LTj Haub_n exp def
/LTjdaj LTj Laj div def
/LTjdajen LTjdaj Haub_n exp def
/Lu Lr 0.18 mul def
/Luen Lu Haub_n exp def
/B0ij 49 array def
/B*ij 49 array def
/Ltij 49 array def
/sxij 49 array def
/dxij 49 array def
/syij 49 array def
/dyij 49 array def
/szij 49 array def
/dzij 49 array def
0 1 6 {/j exch def %i=0,6
0 1 6 {/i exch def %i=0,6
/k i 6 mul j add def
%B0(Lu,p) = Cri(p) [S0i(p) + S1i(p) * Lu^n]
B0ij k S0i i get S1i i get Lajen mul add CTi i get mul put
sxij k CTi i get put
dxij k B0ij k get put
syij k CTi i get Lren mul put
dyij k B0ij k get put
szij k CTi i get Lren mul 0.18 Haub_n exp mul put
dzij k B0ij k get put
Ltij k S0i i get S1i i get Lajen mul add Haub_1Mn exp put
%for Y10-3n
ifunc 0 eq {B*ij k CTi i get LTjen mul B0ij k get sub put} if
%for Y10-7n
ifunc 1 eq {B*ij k sxij k get LTjen mul dxij k get sub put} if
%for Y11-3n
ifunc 2 eq {B*ij k syij k get LTjen Lren div mul dyij k get sub put} if
%for Y11-7n
ifunc 3 eq {B*ij k szij k get LTjen Lren div mul dzij k get sub put} if
} for %i=0,6
} for %j=0,6
%equations:
%ifunc 0 eq {%func=0 for Y10-3:
% B*i i CTi i get LTen mul B0i i get sub put
% } if %func=0 for Y10-3
%
%ifunc 1 eq {%func=1 for Y10-7:
% B*i i CTi i get LTen mul B0i i get sub put
% B*i i sxi LTen mul dxi i get sub put
% sxi i CTi i get put
% dxi i B0i i get put
% B*i i sxi i get LTjen mul dxi i get sub put
% } if %func=1 for Y10-7
%
%ifunc 2 eq {%func=2 for Y11-3:
% B*i i CTi i get LTen mul B0i i get sub put
% B*i i sxi LTen mul dxi i get sub put
% B*i i CTi i get LTen mul Lren div B0i i get sub put
% B*i i sYi LTen Lren div mul dYi i get sub put
%
% sYi i CTi i get Lren mul put
% dYi i B0i i get put
% B*i i sYi i get LTen Lren div mul dYi i get sub put
% } if %func=2 for Y11-3
%
%ifunc 3 eq {%func=3 for Y11-7:
% B*i i CTi i get LTen mul B0i i get sub put
% B*i i sxi LTen mul dxi i get sub put
% B*i i CTi i get LTen mul Lren div B0i i get sub put
% B*i i sYi LTen Lren div mul dYi i get sub put
% B*i i CTi i get LTen mul Lren div B0i i get sub put
% B*i i szi LTen Luen div mul dzi i get sub put
%
% szi i CTi i get Lren mul 0.18 Haub_n exp mul put
% dzi i B0i i get put
% B*i i szi i get LTen Lren div mul dzi i get sub put
% } if %func=3 for Y11-7
} bind def %END proc_funcHAU function Haubner 7x7 versions, ifunc-0 to 3
%$STOP01
%*************************************************
/proc_Ykij_L*kij_dYkij_H_0 {%BEG proc_Ykij_L*kij_dYkij_H_0 %H=HAULAB
/k10 1 def
/k1 ichart 100 mul k10 add def
/k2 ichart 1 add 100 mul def
/Yk 100 array def
/Ykij 4900 array def
/L*kij 4900 array def
/dYkij 4900 array def
/logdYkij 4900 array def
/logL*kij 4900 array def
%use either for example syij i=0,6 or j=0,6
0 1 99
{/k exch def %k=0,99, allways
Yk k k 1 add put
} for %k=0,99
0 1 06 {/j exch def %j=0,6
0 1 06 {/i exch def %i=0,6
/kch i 6 mul j add def %0<=kch<=48
0 1 99 {/k exch def %k=0,99
/kij 100 kch mul k add def
Ykij kij Yk k get put
L*kij kij Yk k get YnW div e10D32 exp
syij kch get mul
dyij kch get sub put
dYkij kij Yk k get YnW div e20D32 exp c32 mul
100 mul syij kch get div put
L*kij kij get 0 le {logL*kij kij 0 put}
{logL*kij kij L*kij kij get log put} ifelse
} for %k=0,99
} for %i=0,6
} for %j=0,6
} bind def %END proc_Ykij_L*kij_dYkij_H_0 %H=HAULAB
%*************************************************
/proc_Yi_L*i_dYi_C_0 {%BEG proc_Yi_L*i_dYi_C_0 %C=CIELAB
i1 1 100 {/i exch def %i=1,100
Yi i i YnW mul 100. div put
L*i i Yi i get YnW div e10D30 exp 116 mul 16 sub put
dYi i Yi i get YnW div e20D30 exp c30 mul
100 mul 116 div put
} for %i=1,100
} bind def %END proc_Yi_L*i_dYi_C_0 %C=CIELAB
%*************************************************
/proc_Yi_L*i_dYi_I_0 {%BEG proc_Yi_L*i_dYi_I_0 %I=IECsRGB
i1 1 100 {/i exch def %i=1,100
Yi i i YnW mul 100. div put
L*i i Yi i get YnW div e10D24 exp 100 mul put
dYi i Yi i get YnW div e14D24 exp c24 mul
100 mul 100 div put
} for %i=1,100
} bind def %END proc_Yi_L*i_dYi_I_0 %I=IECsRGB
%*************************************************
/proc_Yi_L*i_dYi_T_0 {%BEG proc_Yi_L*i_dYi_T_0 %T=TUBsRGB
i1 1 100 {/i exch def %i=1,100
Yi i i YnW mul 100. div put
L*i i Yi i get YnW div e10D23 exp 100 mul put
dYi i Yi i get YnW div e13D23 exp c23 mul put
} for %i=1,100
} bind def %END proc_Yi_L*i_dYi_T_0 %T=TUBsRGB
%$STOP02
%**************************************************************
/proc_funcHAU_CIE_IEC_TUB {%BEG proc_funcHAU_CIE_IEC_TUB
%uses proc_funcHAU
%for ifunc=0 (HAULAB), 1 (CIELAB), 2 (IECsRGB), 3(TUBsRGB)
ifunc 0 eq {%ifunc=0 BEG HAULAB
%standard for phi=120 and La=300cd/m^2
%2: 1/3.2258=0.3100
%for phi=120 in he60/he60-3a.eps
%L* =134.60*(Y/Yn)**(1/3.2258)-34.60
% =134.60*(Yu/Yn)**0.31*(Y/Yu)**0.31-34.60
% =134.60*(18/100)**0.31*(Y/Yu)**0.31-34.60
%L*u=134.60*0.5876 *(Y/Yu)**0.31-34.60
% =79.09 -34.60
% =45.39
%
%s*(Yu/Yn)**0.31=r*(Yu/Yu)**0.31=1
%r=s*(Yu/Yn)**0.31
% =134.60*(0.18)**0.31
% =134.60.5876
% =79.09
%
%for all versions phi=120 to 10, La=300,1000,200,40,8?
%normalized at least for La=300cd/m^2
%to be checked for La=1000,200,40,8
%
/L*uij 49 array def
/Yuij 49 array def
/dYuij 49 array def
/Yn 100 def
/L*u 50 def
/i ichart def
/j jchart def
/L*uij L*u def
/Yuij L*u dyij ij get add syij ij get div 3.2258 exp 100 mul def
/dYuij Yn e10D32 exp syij ij get div 3.2258 mul Yuij e20D32 exp mul def
/Yu Yuij def
/dYu dYuij def
/iu 18 def
/aCIE 3.2258 syij ij get div Yn e20D32 exp mul def
/bCIE aCIE iu e20D30 exp mul def
/cCIE 3.2258 syij ij get div Yn e10D32 exp mul def
/dCIE cCIE iu e20D30 exp mul def
/eCIE syij ij get 3.2258 div Yn e20D32 exp mul def
/fCIE eCIE iu e20D32 exp mul def
proc_Ykij_L*kij_dYkij_H_0
} if %ifunc=0 END HAULAB
%****
ifunc 1 eq {%ifunc=1 BEG CIELAB
%2: 1/2,4=0.41667
%L*u=116*(Yu/Yn)**(1/3)-16
% =116*(0.18)**(1/3) -16
% =116*0.5656-16
% =65.50-16=49,50
%
%(L*u+16)/116=(Yu/Yn)**(1/3)
%Yu=Yn*(L*u+16)/116)**3
%Yu=100*(65.50/116)**3
% =100*0,5647**3
% =100*0,1800=18.00
%Yn=100, Yu=18 L*u=49,50
%
%s*(Yu/Yn)**(1/3)=r*(Yu/Yu)**(1/3)=1
%r=s*(Yu/Yn)**(1/3)
% =116*(0.18)**(1/3)
% =116+0.5656
% = 65.50
%
/Yn 100 def
/L*u 50 def
/Yu L*u 16 add 116 div 3 exp 100 mul def
/dYu Yn e10D30 exp 116 div 3 mul Yu e20D30 exp mul def
/iu 18 def
/aCIE 3 116 div Yn e20D30 exp mul def
/bCIE aCIE iu e20D30 exp mul def
/cCIE 3 116 div Yn e10D30 exp mul def
/dCIE cCIE iu e20D30 exp mul def
/eCIE 116 3 div Yn e20D30 exp mul def
/fCIE eCIE iu e20D30 exp mul def
proc_Yi_L*i_dYi_C_0
} if %ifunc=1 END CIELAB
%*****
ifunc 2 eq {%ifunc=2 BEG IECsRGB
%L*=100(Y/Yn)**(1/2.4)
% =100*(Yu/Yn)**(1/2.4)*(Y/Yu)**(1/2,4)
% =g *(Y/Yu)**(1/2,4)
% g=100*(18/100)**(1/2,4)=100*(0,18)**0,4166
% g=48,95
%L*u=100(Yu/Yn)**(1/2.4)
%L*/L*u=(Y/Yu)**(1/2.4)
%log[L*/L*u]=(1/2,4)*log(Y/Yu)=0,4166*log(Y/Yu)
%ln [L*/L*n]=2.30258*0.4166*log(Y/Yu)=0,9593
%oder
%log[L*/L*u]=(1/2,3)*log(Y/Yu)=0,4347*log(Y/Yu)
%ln [L*/L*u]=2.30258*0.4347*log(Y/Yu)=1,001*log(Y/Yu)
%
%/Yn 100 def
%/L*u 50 def
%1: not used 50=100(Yu/100)**(1/2.4)
%0.5**(2.4)=(Yu/100)
%Yu=100*0.5**2.4=18.94
%2: 1/2,4=0.41667
%L*u=100(Yu/Yn)**(1/2.4)
%L*u=100(18/100)**(1/2.4)=48.94
%Yu=Yn*(Lu/100)**2.4
%Yu=100(Lu/100)**2.4
%Yn=100, Yu=18 L*u=48.95
%L*=100*(Y/Yn)**(1/2,4)
%dL*/dY=100*(1/2,4)*(1/Yn)*(Y/Yn)**(-1,4/2,4)
%fuer dL*=1:
%dY =(2,4*Yn)/100 *(Y/Yn)**(1,4/2,4)
% =a *(Y/Yn)**(1,4/2,4)
% =a*(Yu/Yn)**(1,4/2,4)*(Y/Yu)**(1,4/2,4)
% =b *(Y/Yu)**(1,4/2,4)
% =2,4*(Y/Yn)**(1.4/2,4)
% =2,4*(1/Yn)**(1,4/2,4)*(Y)**(1,4/2,4)
%dYu=2,4*(Yu/Yn)**(1,4/2,4)
% =2,4*(1/Yn)**(1,4/2,4)*(Yu)**(1,4/2,4)
%dY/dYu=(Y/Yu)**(1,4/2,4)
%dY/Y=2,4*(Y/Yn)**(1,4/2,4)*(1/Y)
% =2,4*(1/Yn)**(1,4/2,4)*(Y)**(1,4/2,4)*(1/Y)
% =2,4*(1/Yn)**(1,4/2,4)*(Y)**(-1/2,4)
% =c*Y**(-1/2,4)
%a=(2,4*Yn)/100
% =2,4
%b=a*(Yu/Yn)**(1,4/2,4)
% =2,4*(18/100)**(1,4/2,4)
% =2,4*(18/100)**(0,583333)
% =2,4*0,36777=0,8862
%c=2,4(1/Yn)**(1,4/2,4)
% =2,4*0.01**0,5833=0,1635
/Yn 100 def
/L*u 50 def
/Yu L*u 100 div 2.4 exp 100 mul def
/dYu Yu 100 div e14D24 exp 2.4 mul def
/iu 18 def
/aCIE 2.4 def
/bCIE iu 100 div e14D24 exp aCIE mul def
/cCIE 2.4 100 div Yn e10D24 exp mul def
/dCIE cCIE iu e14D24 exp mul def
/eCIE 100 2.4 div Yn e14D24 exp mul def
/fCIE eCIE iu e14D24 exp mul def
proc_Yi_L*i_dYi_I_0
} if %ifunc=2 END IECsRGB
%******
ifunc 3 eq {%ifunc=3 BEG TUBsRGB
%L*=100(Y/Yn)**(1/2.3)
%L*u=100(Yu/Yn)**(1/2.3)
%/Yn 100 def
%/L*u 50 def
%1: not used 50=100(Yu/100)**(1/2.3)
%0.5**(2.3)=(Yu/100)
%Yu=100*0.5**2.3=20.31
%2: 1/2,3=0.4348
%L*u=100(Yu/Yn)**(1/2.3)
%L*u=100(18/100)**(1/2.3)=47.45
%Yu=Yn*(Lu/100)**2.3
%Yu=100(Lu/100)**2.3
%Yn=100, Yu=18 L*u=47.45
%L*=100*(Y/Yn)**(1/2,3)
%dL*/dY=100*(1/2,3)*1/Yn)*(Y/Yn)**(-1,3/2,3)
%dY=(2.3*Yn)/100*(Y/Yn)**(1,3/2,3)
%dYu=2.3*(Yu/Yn)**(1,3/2,3)
/Yn 100 def
/L*u 50 def
/Yu L*u 100 div 2.3 exp 100 mul def
/dYu Yu 100 div e13D23 exp 2.3 mul def
/iu 18 def
/aCIE 2.3 100 div Yn e13D23 exp mul def
/bCIE aCIE iu e13D23 exp mul def
/cCIE 2.3 100 div Yn e10D23 exp mul def
/dCIE cCIE iu e13D23 exp mul def
/eCIE 100 2.3 div Yn e13D23 exp mul def
/fCIE eCIE iu e13D23 exp mul def
} if %ifunc=3 END TUBsRGB
proc_Yi_L*i_dYi_T_0
} bind def %END proc_funcHAU_CIE_IEC_TUB
%$STOP03
%***********************************************
/ioute 0 def
/proc_cero_line {%BEG proc_cero_line
%1. log line = cero line
tfr
-2. MULX mul 1. log MULY mul moveto
0. MULX mul 1. log MULY mul lineto stroke
tfn %tfw
%2. log line = +1 line
tfg
-2. MULX mul 10. log MULY mul moveto
0. MULX mul 10. log MULY mul lineto stroke
tfn %tfw
} bind def %cero line
%***************************************************
/proc_ij_syij_dyij_Ykij_L*kij_Yxyk {%BEG proc_ij_syij_dyij_Ykij_L*kij_Yxyk
%definition for 4 functions: L*kij, dYkij, dYkij/Ykij, Ykij/dYkij
%no log, 1 1 100 allways possible
/ij ichart 6 mul jchart add def
/L*u 50 def
/L*uij L*u def
/Yuij L*u dyij ij get add syij ij get div 3.2258 exp 100 mul def
/dYuij Yn e10D32 exp syij ij get div 3.2258 mul Yuij e20D32 exp mul def
/Yu Yuij def
/dYu dYuij def
/iu 18 def
0 1 99 {/k exch def %k=1,99
/kij ij 100 mul k add def
X00k k Ykij kij get put
Y00k k L*kij kij get put
Y0uk k L*kij kij get L*uij div put
Y10k k dYkij kij get put
Y1uk k dYkij kij get dYuij div put
Y20k k dYkij kij get Ykij kij get div put
Y2uk k dYkij kij get Ykij kij get div
dYuij Yuij div div put
Y30k k Ykij kij get dYkij kij get div put
Y3uk k Ykij kij get dYkij kij get div
Yuij dYuij div div put
xchartl 0 eq {Yx0k k Y00k k get put
Yxuk k Y0uk k get put} if
xchartl 1 eq {Yx0k k Y10k k get put
Yxuk k Y1uk k get put} if
xchartl 2 eq {Yx0k k Y20k k get put
Yxuk k Y2uk k get put} if
xchartl 3 eq {Yx0k k Y30k k get put
Yxuk k Y3uk k get put} if
} for %k=1,99
} bind def %END proc_ij_syij_dyij_Ykij_L*kij_Yxyk
%***************************************************
/proc_Y_curve {%BEG proc_Y_curve
/ij ichart 6 mul jchart add def
iY_curve 1 eq {%iYcurve=1
/yinter jlog 0 eq {2200 def}{1200 def} ifelse
-1900 yinter moveto TBL (Y_curve, ij=) show ij cvishow
(, Yuij=) show Yuij cvishow
(, L*uij=) show L*uij cvishow
% (, Yk, Ykij, L*kij, X00k, Yx0k) show
0 1 3 {/ke exch def %ke=0,3
ke 0 eq {/k 99 def} if
ke 1 eq {/k Yuij cvi def} if
ke 2 eq {/k 1 def} if
ke 3 eq {/k 0 def} if
/kij ij 100 mul k add def
tfn
-1900 yinter ke 1 add 200 mul sub moveto
(k=) show k cvishow (, ) show
% (Yk=) show Yk k get cvishow (, ) show
(Ykij=) show Ykij kij get cvishow (, ) show
(L*kij=) show L*kij kij get cvsshow1x (, ) show
%jchart 1 eq {(Y/dY=) show Yx0k k get cvsshow2x (, ) show} if
tfb
xchartl 00 eq {(L*/L*) jLs (u) ibLs} if
xchartl 01 eq {(D) sKs (Y) jLs (/) bLs
(D) sKs (Y) jLs (u) ibLs} if
xchartl 02 eq {%(S) jLs (r) ibLs (/) bLs (S) jLs (ru) ibLs
(\050) bLs (D) sKs (Y/Y) jLs (\051/\050) bLs
(D) sKs (Y/Y) jLs (\051) bLs (u) ibLs} if
xchartl 03 eq {%(C) jLs (r) ibLs (/) bLs
%(C) jLs (ru) ibLs
(\050) bLs (Y/) jLs (D) sKs (Y) jLs (\051/\050) bLs
(Y) jLs (/) bLs (D) sKs (Y) jLs (\051) bLs (u) ibLs} if
(=) show Yxuk k get cvsshow2x
tfn
} for %ke=0,3
} if %iY_curve=1
50 setlinewidth
0 1 1 {/je exch def %je=0,1
je 0 eq {1 1 1 setrgbcolor} if
je 1 eq {0 0 0 setrgbcolor [100] 0 setdash} if
/k10 00 def
/k1u Yuij 0.5 add cvi def %rounded
/k20 99 def
0 1 99 {/k exch def %k=0,99
X00k k get log MULX mul
Yxuk k get jlog 1 eq {abs log} if MULY mul
k k10 eq {moveto} if
k k10 1 add ge
k k20 1 sub le and {lineto} if
k k20 eq {stroke} if
} for %k=0,99
} for %je=0,1
50 setlinewidth
0 1 2 {/ki1i2 exch def %ki1i2=0,2
ki1i2 0 eq {/k k10 def} if
ki1i2 1 eq {/k k1u def} if
ki1i2 2 eq {/k k20 def} if
tfb
X00k k get log MULX mul
Yxuk k get jlog 1 eq {abs log} if MULY mul 060 0 360 arc fill
newpath
X00k k get log i 1 eq {0.80 sub}{0.10 add} ifelse MULX mul
Yxuk k get jlog 1 eq {abs log} if 0.10 sub MULY mul moveto
TBK
Yxuk k get jlog 1 eq {abs log} if cvsshow3x
0 setgray
newpath
} for %ki1i2=0,2
%L*IEC=100(Y/Yn)**(1/ln(10))
%L*IEC/L*IEC,u = L*I/50 = 2(Y/Yn)**(1/ln(10)) = 1 (Y/Yu)**(1/ln(10))
tfg
/k10 00 def
/k1u Yuij cvi def
/k20 99 def
0 1 99 {/k exch def %k=0,99
/Y k 1 add def
Y log MULX mul
Y Yuij div 1 10 ln div exp MULY mul
k k10 eq {moveto} if
k k10 1 add ge
k k20 1 sub le and {lineto} if
k k20 eq {stroke} if
} for %k=0,99
tfn
X00k k get log 0.2 add MULX mul
Yxuk k get jlog 1 eq {abs log} if 0.3 sub MULY mul moveto
(L*) jLs (TUB) ibLs (/L*) jLs (TUB,u) ibLs
X00k k get log 0.2 add MULX mul
Yxuk k get jlog 1 eq {abs log} if 0.60 sub MULY mul moveto
(=) bLs 20rm ((Y/Y)) jLs 20rm (u) ibLs
-50 0 rmoveto (1/ln) ebLs 20rm ((10)) ebLs
tfn
newpath
tfb
/k k1u def
[100] 0 setdash
0.01 log MULX mul Yxuk k get MULY mul moveto
X00k k get log MULX mul Yxuk k get MULY mul lineto
X00k k get log MULY mul 0.0 MULY mul lineto stroke
newpath
15 log MULX mul -0.20 MULY mul moveto
(Y) jLs (u) ibLs TBL (=) show Yuij cvishow
[ ] 0 setdash
0 setgray
} bind def %END proc_Y_curve
%***************************************************
/proc_appli {%proc_appli
/x00a 4200 def
%y00a is to be defined in main program
tfn %tfw
x00a y00a moveto
1000 0 rlineto stroke
tfg
[100] 0 setdash
x00a y00a moveto
1000 0 rlineto stroke
[ ] 0 setdash
tfn %tfw
x00a y00a 0.8 ydel mul sub moveto
TBL (application) showen
(Anwendungs\255) showde
x00a y00a 1.5 ydel mul sub moveto
TBL (range) showen
(bereich) showde
/x00b x00a 000 add def
/y00b y00a 320 add def
/y00c y00a 100 add def
x00b 300 add y00b moveto
(\152) sLs (=) nLs phi ichart get cvishow (') show
%(120/90/30/10) nLs
x00b y00c moveto
(L) kLs (aw) iLs 20rm (=) nLs 20rm Laj cvishow
20rm (cd/m) nLs -50 0 rmoveto (2) eLs
} bind def %proc_appli
%***************************************************
/proc_toptext {%proc_toptext
%jlog 0:without log, 1:with log in main program
tfn %tfw
/ytr0t0 3750 ytr0 sub def
/ytr0t1 ytr0t0 250 sub def
/ytr0t2 ytr0t0 500 sub def
050 xtr0 sub 3725 ytr0 sub moveto
xchartl 00 eq {%xchartl=01
jlog 1 eq {(log \050) bKs} if
(L*) jKs ifunc 0 eq {(80) ibKs} if
(/L*) jKs ifunc 0 eq {(80,) ibKs} if (u) ibKs
jlog 1 eq {(\051 ) bKs} if
2100 xtr0 sub ytr0t0 moveto
TBK ifunc 0 eq {(HAULAB) show} if
ifunc 1 eq {(CIELAB) show} if
ifunc 2 eq {(IECsRGB) show} if
ifunc 3 eq {(TUBsRGB) show} if
TBK ( lightness ) showen
(\255Helligkeit ) showde
(L*) jKs ifunc 0 eq {(80) ibKs} if
TBK ( normalized) showen
( normiert) showde
2100 xtr0 sub ytr0t1 moveto
(to the background lightness ) showen
(f\374r die UmgebungsHelligkeit ) showde
(L*) jKs ifunc 0 eq {(80,) ibKs} if
(u) ibKs TBK
} if %xchartl=00
xchartl 01 eq {%xchartl=01
jlog 1 eq {(log \050) bKs} if
(D) sMs 20 0 rmoveto
(Y) jKs (/) bKs (D) sMs
(Y) jKs (u) ibKs
jlog 1 eq {(\051 ) bKs} if
1800 xtr0 sub ytr0t0 moveto
TBK ifunc 0 eq {(HAULAB) show} if
ifunc 1 eq {(CIELAB) show} if
ifunc 2 eq {(IECsRGB) show} if
ifunc 3 eq {(TUBsRGB) show} if
TBK ( tristimulus value difference) showen
(\255Normfarbwertdifferenz) showde
1800 xtr0 sub ytr0t1 moveto
(D) sMs 20rm (Y) jKs TBK
( normalized to ) showen
( normiert f\374r ) showde
(D) sMs 20rm (Y) jKs (u) ibKs TBK
} if %xchartl=01
xchartl 02 eq {%xchartl=02
jlog 1 eq {(log [) bKs} if
20 0 rmoveto (\050) bKs
(D) sMs (Y/Y) jKs (\051 / \050) bKs
(D) sMs (Y/Y) jKs (\051) bKs (u) ibKs
jlog 1 eq {(]) bKs} if
2800 xtr0 sub ytr0t0 moveto
TBK ifunc 0 eq {(HAULAB) show} if
ifunc 1 eq {(CIELAB) show} if
ifunc 2 eq {(IECsRGB) show} if
ifunc 3 eq {(TUBsRGB) show} if
(\255Y) jKs TBK
( sensitivity) showen
(\255Empfindlichkeit) showde
2800 xtr0 sub ytr0t1 moveto
(normalized to ) showen
(normiert f\374r ) showde
(\050) bKs (D) sMs (Y/Y) jKs (\051) bKs (u) ibKs
} if %xchartl=02
xchartl 03 eq {%xchartl=03
jlog 1 eq {(log[) bKs} if
20 0 rmoveto (\050) bKs
(Y/) jKs (D) sMs (Y) jKs (\051 / \050) show
(Y/) bKs (D) sMs (Y) jKs (\051) bKs (u) ibKs
jlog 1 eq {(\051]) bKs} if
2800 xtr0 sub ytr0t0 moveto
TBK ifunc 0 eq {(HAULAB) show} if
ifunc 1 eq {(CIELAB) show} if
ifunc 2 eq {(IECsRGB) show} if
ifunc 3 eq {(TUBsRGB) show} if
(\255Y) jKs TBK
( contrast) showen
(\255Kontrast) showde
2800 xtr0 sub ytr0t1 moveto
(normalized to ) showen
(normiert f\374r ) showde
(\050) bKs (Y/) jKs (D) sMs (Y) jKs (\051) bKs (u) ibKs
} if %xchartl=02
tfn %tfw
} bind def %proc_toptext
%***************************************************
/proc_L*top {%BEG proc_L*top ifunc=0,1,2,3
/20rm {20 0 rmoveto} def
%top-eq. BEG HAULAB, CIELAB, IECsRGB, TUBsRGB_proc_C02_C08
%for ifunc=0 to 3
ifunc 0 eq {/s1 syij ij get def /n1 0.31 def
/d1 dyij ij get def} if
ifunc 1 eq {/s1 116 def /n1 1 3 div def /d1 16 def} if
ifunc 2 eq {/s1 100 def /n1 1 2.4 div def /d1 0 def} if
ifunc 3 eq {/s1 100 def /n1 1 10 ln div def /d1 0 def} if
/r1 s1 0.18 n1 exp mul def
/g1 r1 r1 d1 sub div def
/h1 d1 r1 d1 sub div def
x00t y00t moveto
(L*) jLs 20rm
(=) bLs 20rm (s) show 20rm
(\050Y/Y) jLs (n) ibLs (\051) bLs
(n) ebLs
(-) bLs 20rm (d) bLs
x01t y00t moveto
(\050) nLs (Y) kLs (n) iLs (=100,) nLs 20rm
(Y) kLs (u) iLs (=) nLs TL Yuij cvishow (,) nLs 20rm
TL (s=) show s1 cvsshow1x
ifunc 0 eq {(, n=0,31) show} if
ifunc 1 eq {(, n=1/3) show} if
ifunc 2 eq {(, n=1/2,4) show} if
ifunc 3 eq {(, n=1/ln(10)) show} if
TL (, d=) show d1 cvsshow1x (\051) nLs
x00e y00t moveto
TL ([1a]) show
x00t y00t 250 sub moveto
(L*) jLs 20rm
(=) bLs 20rm (r \050) bLs
(Y/Y) jLs (u) ibLs (\051) bLs
(n) ebLs
(-) bLs 20rm (d) bLs
x01t y00t 250 sub moveto
(\050r = s ) nLs (\050Y) kLs (u) iLs
(/Y) kLs (n) iLs (\051) nLs (n) ebLs
(=) nLs TL r1 cvsshow2x (, ) nLs
(L*) kLs (u) iLs (= r-d =) nLs
TL r1 d1 sub cvsshow1x
(\051) nLs
x00e y00t 250 sub moveto
TL ([1b]) show
} bind def %END proc_L*top ifunc=1,2,3
%***************************************************
/proc_L*DL*u_C02 {%BEG proc_L*DL*u_C02
%for ifunc=0,1,2,3 HAULAB, CIELAB, IECsRGB, TUBsRGB
%ioutC02 0/1:no or with output of equations in main program
tfr %C02
/y00t 2990 def
/ydel 0270 def
proc_L*top %ifunc=0,1,2,3 ALL
%*****
ifunc 0 eq {%ifunc=0 special BEG HAULAB_C02
iequa 1 eq {%BEG 0/1 without/with main equations
x00t y00t ydel 2 mul sub moveto
(L*/L*) jLs (u) ibLs
TBL (=) show 20rm (g) show 20rm
(\050Y/Y) jLs (u) ibLs (\051) bLs
(n) ebLs
TBL (-h) show
x01t 450 add y00t ydel 2 mul sub moveto
TL (\050g=r/(r-d)=) show r1 r1 d1 sub div cvsshow2x
TL (, h=d/(r-d)=) show d1 r1 d1 sub div cvsshow2x
TL (\051) show
x00e y00t ydel 2 mul sub moveto
TL ([1c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
jlog 1 eq {%jlog=1
x00t y00t ydel 3 mul sub moveto
(log [\050) bLs
(L*/L*) jLs (u) ibLs
20rm (+) bLs 20rm (h) bLs 20rm
(\051 / g ] = n log \050) bLs
(Y/Y) jLs (u) ibLs (\051) bLs
( = ) bLs n1 cvsshow2x 20rm (log) bLs
(\050) show (Y/) jLs Yuij cvishow (\051) bLs
x00e y00t ydel 3 mul sub moveto
TL ([1d]) show
x00t y00t ydel 3.9 mul sub moveto
(ln [\050) bLs
(L*/L*) jLs (u) ibLs
( + h) bLs
(\051 / g] = n) bLs 20rm (ln(10)) bLs 20rm (log\050) bLs 20rm
(Y/Y) jLs (u) ibLs (\051) bLs
( = ) bLs n1 10 ln mul cvsshow2x 20rm (log \050) bLs
(Y/) jLs Yuij cvishow (\051) bLs
x00e y00t ydel 4.0 mul sub moveto
TL ([1e]) show
x00t y00t ydel 5 mul sub moveto
(\050) bLs (L*/L*) jLs (u) ibLs ( + h) bLs
(\051 / g ]) bLs
( = e) bLs 0 90 rmoveto
(n ln(10) log \050) bSs (Y/Y) jSs (u) ibSs (\051) bSs
0 -90 rmoveto
( = e) bLs 0 90 rmoveto
TBS n1 10 ln mul cvsshow2x 20rm %80 smaller
(log \050) bSs (Y/) jSs TBS Yuij cvishow (\051) bSs
0 -90 rmoveto
x00e y00t ydel 5 mul sub moveto
TL ([1f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=0 special END HAULAB_C02
%*****
ifunc 1 eq {%ifunc=1 special BEG CIELAB_C02
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(L*/L*) jLs (u) ibLs
TBL (=) show 20rm (g) show 20rm
(\050Y/Y) jLs (u) ibLs (\051) bLs
(n) ebLs
TBL (-h) show
x01t 450 add y00t ydel 2 mul sub moveto
TL (\050g=r/(r-d)=) show r1 r1 d1 sub div cvsshow2x
TL (, h=d/(r-d)=) show d1 r1 d1 sub div cvsshow2x
TL (\051) show
x00e y00t ydel 2 mul sub moveto
TL ([1c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
jlog 1 eq {%jlog=1
x00t y00t ydel 3 mul sub moveto
TBL (log [\050) show
(L*/L*) jLs (u) ibLs
TBL 20rm (+) show 20rm (h) show 20rm
TBL (\051 / g ] = n log \050) show
(Y/Y) jLs (u) ibLs (\051) bLs
x00e y00t ydel 3 mul sub moveto
TL ([1d]) show
x00t y00t ydel 3.9 mul sub moveto
TBL (ln [\050) show
(L*/L*) jLs (u) ibLs
TBL ( + h) show
TBL (\051 / g ] = ln(10) n log \050) show
(Y/Y) jLs (u) ibLs (\051) bLs
x00e y00t ydel 4.0 mul sub moveto
TL ([1e]) show
x00t y00t ydel 5 mul sub moveto
TBL (\050) show (L*/L*) jLs (u) ibLs
TBL ( + h) show
TBL (\051 / g ]) show
TBL ( = e) show (ln(10) n log \050) ebLs (Y/Y) jbLs (u) ebSs
(\051) ebLs
x00e y00t ydel 5 mul sub moveto
TL ([1f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=1 special END CIELAB_C02
%*****
ifunc 2 eq {%ifunc=2 special BEG IECsRGB_C02
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(L*/L*) jLs (u) ibLs
TBL (=) show
(\050Y/Y) jLs (u) ibLs (\051) bLs
(n) ebLs
x00e y00t ydel 2 mul sub moveto
TL ([1c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
jlog 1 eq {%jlog=1
x00t y00t ydel 3 mul sub moveto
TBL (log \050) show
(L*/L*) jLs (u) ibLs
TBL (\051 = n log \050) show
(Y/Y) jLs (u) ibLs (\051) bLs
x00e y00t ydel 3 mul sub moveto
TL ([1d]) show
x00t y00t ydel 3.9 mul sub moveto
TBL (ln \050) show
(L*/L*) jLs (u) ibLs
TBL (\051 = ln(10) n log \050) show
(Y/Y) jLs (u) ibLs (\051) bLs
x00e y00t ydel 4.0 mul sub moveto
TL ([1e]) show
x00t y00t ydel 5 mul sub moveto
(L*/L*) jLs (u) ibLs
TBL ( = e) show (ln(10) n log \050) ebLs (Y/Y) jbLs (u) ebSs
(\051) ebLs
x00e y00t ydel 5 mul sub moveto
TL ([1f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=2 special END IECsRGB_C02
%*****
ifunc 3 eq {%ifunc=3 special BEG TUBsRGB_C02
iequa 1 eq {%BEG 0/1 without/with main equations
x00t y00t ydel 2 mul sub moveto
(L*/L*) jLs (u) ibLs
TBL (=) show
(\050Y/Y) jLs (u) ibLs (\051) bLs
(1/ln(10)) ebLs
TBL ( \050ln(x)=ln(10) log(x)\051) show
x00e y00t ydel 2 mul sub moveto
TL ([1c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
jlog 1 eq {%jlog=1
x00t y00t ydel 3 mul sub moveto
TBL (log\050) show
(L*/L*) jLs (u) ibLs
TBL (\051=(1/ln(10)) log\050) show
(Y/Y) jLs (u) ibLs (\051) bLs
x00e y00t ydel 3 mul sub moveto
TL ([1d]) show
x00t y00t ydel 3.9 mul sub moveto
TBL (ln\050) show
(L*/L*) jLs (u) ibLs
TBL (\051=log\050) show
(Y/Y) jLs (u) ibLs (\051) bLs
x00e y00t ydel 3.9 mul sub moveto
TL ([1e]) show
x00t y00t ydel 5 mul sub moveto
(L*/L*) jLs (u) ibLs
TBL (= e) show (log\050) ebLs (Y/Y) jbLs (u) ebSs
(\051) ebLs
x00e y00t ydel 5 mul sub moveto
TL ([1f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=3 special END TUBsRGB_C02
} bind def %END proc_L*DL*u_C02
%***************************************************
/proc_YDYu_C04 {%BEG proc_YDYu_C04
%for ifunc=1,2,3 CIELAB, IECsRGB, TUBsRGB
%ioutC04 0/1:no or with output of equations in main program
tfr %C04
/y00t 2990 def
/ydel 0270 def
proc_L*top %for ifunc=1,2,3
%*****
ifunc 0 eq {%ifunc=0 BEG special HAULAB_C04
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(dY) jLs TBL ( = [) show
(Y) jLs (n) ibLs (/ \050 n s \051] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
x00e y00t ydel 2 mul sub moveto
TL ([2c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
x00t y00t ydel 3 mul sub moveto
(dY) jLs (u) ibLs
TBL ( = [) show
(Y) jLs (n) ibLs TBL (/ \050 n s \051] ) show
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
TBL ( = ) show
100 n1 s1 mul div 18 100 div n1 exp mul cvsshow4x
x00e y00t ydel 3 mul sub moveto
TL ([2d]) show
%4
x00t y00t ydel 4 mul sub moveto
(dY / dY) jLs (u) ibLs
TBL ( = ) show
(\050Y / Y) jLs (u) ibLs
(\051) bLs (1-n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([2e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
TBL (log\050) show (dY / dY) jLs (u) ibLs
TBL (\051 = (1-n) log) show
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([2f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=0 special END HAULAB_C04
%*****
ifunc 1 eq {%ifunc=1 special CIELAB_C04
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(dY) jLs TBL ( = [) show
(Y) jLs (n) ibLs (/ \050 n s \051] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
x00e y00t ydel 2 mul sub moveto
TL ([2c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
(dY) jLs (u) ibLs
TBL ( = [) show
(Y) jLs (n) ibLs TBL (/ \050 n s \051] ) show
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
TBL ( = ) show
100 n1 s1 mul div 18 100 div n1 exp mul cvsshow4x
x00e y00t ydel 3 mul sub moveto
TL ([2d]) show
%4
x00t y00t ydel 4 mul sub moveto
(dY / dY) jLs (u) ibLs
TBL ( = ) show
(\050Y / Y) jLs (u) ibLs
(\051) bLs (1-n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([2e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
TBL (log\050) show (dY / dY) jLs (u) ibLs
TBL (\051 = (1-n) log) show
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([2f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=1 special END CIELAB_C04
%*****
ifunc 2 eq
ifunc 3 eq or {%ifunc=2,3 special IECsRGB/TUBsRGB_C04
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(dY) jLs TBL ( = [) show
(Y) jLs (n) ibLs (/ \050 n s \051] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
x00e y00t ydel 2 mul sub moveto
TL ([2c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
(dY) jLs (u) ibLs
TBL ( = [) show
(Y) jLs (n) ibLs TBL (/ \050 n s \051] ) show
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
TBL ( = ) show
100 n1 s1 mul div 18 100 div n1 exp mul cvsshow4x
x00e y00t ydel 3 mul sub moveto
TL ([2d]) show
%4
x00t y00t ydel 4 mul sub moveto
(dY / dY) jLs (u) ibLs
TBL ( = ) show
(\050Y / Y) jLs (u) ibLs
(\051) bLs (1-n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([2e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
TBL (log\050) show (dY / dY) jLs (u) ibLs
TBL (\051 = (1-n) log) show
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([2f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=2,3 END IECsRGB/TUBsRGB_C04
} bind def %END proc_YDYu_C04
%***************************************************
/proc_dYDY_C06 {%BEG proc_dYDY_C06
%for ifunc=1,2,3 CIELAB, IECsRGB, TUBsRGB
%ioutC06 0/1:no or with output of equations in main program
tfr %C06
/y00t 2990 def
/ydel 0270 def
proc_L*top %for ifunc=0,1,2,3
%*****
ifunc 0 eq {%ifunc=0 special BEG HAULAB_C06
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(dY / Y) jLs TBL ( = [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
( / ) bLs (Y) jLs
x00e y00t ydel 2 mul sub moveto
TL ([3c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
((dY / Y)) jLs (u) ibLs
( = [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
( / ) bLs (Y) jLs (u) ibLs
x00e y00t ydel 3 mul sub moveto
TL ([3d]) show
%4
x00t y00t ydel 4 mul sub moveto
((dY / Y)) jLs ( / ) bLs ((dY / Y)) jLs (u) ibLs
( = ) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs (-n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([3e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
(log [) bLs
((dY / Y)) jLs ( / ) bLs ((dY / Y)) jLs (u) ibLs
(] = (-n) log) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([3f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=0 special END HAULAB_C06
%*****
ifunc 1 eq {%ifunc=1 special BEG CIELAB_C06
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(dY / Y) jLs TBL ( = [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
( / ) bLs (Y) jLs
x00e y00t ydel 2 mul sub moveto
TL ([3c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
((dY / Y)) jLs (u) ibLs
( = [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
( / ) bLs (Y) jLs (u) ibLs
x00e y00t ydel 3 mul sub moveto
TL ([3d]) show
%4
x00t y00t ydel 4 mul sub moveto
((dY / Y)) jLs ( / ) bLs ((dY / Y)) jLs (u) ibLs
( = ) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs (-n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([3e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
(log [) bLs
((dY / Y)) jLs ( / ) bLs ((dY / Y)) jLs (u) ibLs
(] = (-n) log) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([3f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=1 special END CIELAB_C06
%*****
ifunc 2 eq
ifunc 3 eq or {%ifunc=2,3 special BEG IECsRGB/TUBsRGB_C06
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(dY / Y) jLs TBL ( = [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
( / ) bLs (Y) jLs
x00e y00t ydel 2 mul sub moveto
TL ([3c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
((dY / Y)) jLs (u) ibLs
( = [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs
( / ) bLs (Y) jLs (u) ibLs
x00e y00t ydel 3 mul sub moveto
TL ([3d]) show
%4
x00t y00t ydel 4 mul sub moveto
((dY / Y)) jLs ( / ) bLs ((dY / Y)) jLs (u) ibLs
( = ) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs (-n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([3e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
(log [) bLs
((dY / Y)) jLs ( / ) bLs ((dY / Y)) jLs (u) ibLs
(] = (-n) log) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([3f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=2,3 special END IECsRGB/TUBsRGB_C06
} bind def %END proc_dYDY_C06
%***************************************************
/proc_YDdY_C08 {%BEG proc_YDdY_C08
%for ifunc=1,2,3 CIELAB, IECsRGB, TUBsRGB
%ioutC08 0/1:no or with output of equations in main program
tfr %C08
/y00t 2990 def
/ydel 0270 def
proc_L*top %for ifunc=1,2,3
%*****
ifunc 0 eq {%ifunc=0 special BEG HAULAB_C08
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(Y / dY) jLs ( = ) bLs (Y) jLs ( / { [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs ( }) bLs
x00e y00t ydel 2 mul sub moveto
TL ([4c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
((Y / Y)) jLs (u) ibLs
( = ) bLs (Y) jLs (u) ibLs ( / { [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs ( }) bLs
x00e y00t ydel 3 mul sub moveto
TL ([4d]) show
%4
x00t y00t ydel 4 mul sub moveto
((Y / dY)) jLs ( / ) bLs ((Y / dY)) jLs (u) ibLs
( = ) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs (n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([4e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
(log [) bLs
((Y / dY)) jLs ( / ) bLs ((Y / dY)) jLs (u) ibLs
(] = (n) log) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([4f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=0 special END HAULAB_C08
%*****
ifunc 1 eq {%ifunc=1 special BEG CIELAB_C08
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(Y / dY) jLs ( = ) bLs (Y) jLs ( / { [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs ( }) bLs
x00e y00t ydel 2 mul sub moveto
TL ([4c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
((Y / Y)) jLs (u) ibLs
( = ) bLs (Y) jLs (u) ibLs ( / { [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs ( }) bLs
x00e y00t ydel 3 mul sub moveto
TL ([4d]) show
%4
x00t y00t ydel 4 mul sub moveto
((Y / dY)) jLs ( / ) bLs ((Y / dY)) jLs (u) ibLs
( = ) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs (n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([4e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
(log [) bLs
((Y / dY)) jLs ( / ) bLs ((Y / dY)) jLs (u) ibLs
(] = (n) log) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([4f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=1 special END CIELAB_C08
%*****
ifunc 2 eq
ifunc 3 eq or {%ifunc=2,3 special BEG IECsRGB/TUBsRGB_C08
iequa 1 eq {%BEG 0/1 without/with main equations
%2
x00t y00t ydel 2 mul sub moveto
(Y / dY) jLs ( = ) bLs (Y) jLs ( / { [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs ( }) bLs
x00e y00t ydel 2 mul sub moveto
TL ([4c]) show
} if %END 0/1 without/with main equations
iY_curve 0 eq {%BEG iY_curve=0
%3
x00t y00t ydel 3 mul sub moveto
((Y / Y)) jLs (u) ibLs
( = ) bLs (Y) jLs (u) ibLs ( / { [ ) bLs
(\050) bLs (Y) jLs (n) ibLs (/ \050 n s \051 ] ) bLs
(\050Y) jLs (u) ibLs ( / Y) jLs (n) ibLs
(\051) bLs (1-n) ebLs ( }) bLs
x00e y00t ydel 3 mul sub moveto
TL ([4d]) show
%4
x00t y00t ydel 4 mul sub moveto
((Y / dY)) jLs ( / ) bLs ((Y / dY)) jLs (u) ibLs
( = ) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs (n) ebLs
x00e y00t ydel 4 mul sub moveto
TL ([4e]) show
%5
jlog 1 eq {%jlog=1
x00t y00t ydel 5 mul sub moveto
(log [) bLs
((Y / dY)) jLs ( / ) bLs ((Y / dY)) jLs (u) ibLs
(] = (n) log) bLs
(\050Y / Y) jLs (u) ibLs
(\051) bLs
x00e y00t ydel 5 mul sub moveto
TL ([4f]) show
} if %jlog=1
} if %END iY_curve=0
} if %ifunc=2,3 special END IECsRGB/TUBsRGB_C08
} bind def %END proc_YDdY_C08
%***************************************************
/proc_mdu {%BEG proc_mdu
%for ifunc=0,1,2,3 HAULAB, CIELAB, IECsRGB, TUBsRGB
%for C02, C04, C06, C08
xtr neg ytr neg translate %new cero point
%available Yx0k and Yxuk from proc_Yi_Yxyi
%for x: xchartl=0_C02, xchartl=1_C04, xchartl=2_C06, xchartl=3_C08
/n090 090 def
/n004 004 def
/t090 (90) def
/t004 (4) def
/x00x x00t 200 sub def
x00x 1 MULY mul 120 add moveto
jlog 0 eq {%jlog=0
(m) jLs (u) ibLs t090 ibLs (_) ibLs t004 ibLs TBL ( = ) show
Yx0k n090 get Yx0k n004 get sub
Yi n090 get Yi n004 get sub div cvsshow3x (, ) show
(f) jLs t090 ibLs (=) bLs TBL Yx0k n090 get cvishow (, ) bLs
(f) jLs t004 ibLs (=) bLs TBL Yx0k n004 get cvishow
} %jlog=0
{ %jlog=1
(m) jLs (nu) ibLs TBL
xchartl 0 eq {( = n = ) show n cvsshow3x} if
xchartl 1 eq {( = 1-n = ) show 1 n sub cvsshow3x} if
xchartl 2 eq {( = -n = ) show n neg cvsshow3x} if
xchartl 3 eq {( = n = ) show n cvsshow3x} if
} ifelse %jlog=0,1
x00x 1 MULY mul 200 sub moveto
x00x 1 MULY mul 200 sub moveto
/k1u Yuij 0.5 add cvi def
/k3 k1u 1 add def
/k2 k1u 1 sub def
(m) jLs (u) ibLs TBL ( = ) show
Yxuk k3 get jlog 1 eq {log} if
Yxuk k2 get jlog 1 eq {log} if sub
Yi k3 get log
Yi k2 get log sub div cvsshow3x
xtr ytr translate %new cero point
} bind def %proc_mdu
%*********************************************************************
/proc_C02_ALOG_L*DL*u {%BEG proc_C02_ALOG_L*DTu*
jlog 0 eq {%jlog=0
/Fx0log -2.0 def
/Fy0lin 1.0 def
/xtr 2000 def
/ytr 0000 def
/iys 1000 def
/MULY iys 1 div def %scale=1
/ytrl ytr 1000 div def %lin shift
} %jlog=0
{ %jlog=1
/Fx0log -2.0 def
/Fy0log -1.0 def
/xtr 2000 def
/ytr 1000 def
/ytrl ytr 1000 div def %log shift
} ifelse %jlog=1
xtr ytr translate %new cero point
%0 not available
proc_Y_curve
[ ] 0 setdash
50 setlinewidth %50 setlinewidth
0 setgray
%C02 xchartl=0
proc_mdu
/i18 18 def
tfz %tfz
[100] 0 setdash
jlog 0 eq {%jlog=0,1
Fx0log MULX mul L*i i18 get L*u div MULY mul moveto
i18 log MULX mul L*i i18 get L*u div MULY mul lineto
iu log MULX mul 0 MULY mul lineto stroke
} %jlog=0
{ %jlog=1
Fx0log MULX mul L*i i18 get L*u div log MULY mul moveto
i18 log MULX mul L*i i18 get L*u div log MULY mul lineto
i18 log MULX mul Fy0log MULY mul lineto stroke
} ifelse %jlog=0,1
[ ] 0 setdash
tfn
ioute 1 eq {proc_cero_line} if
xtr neg ytr neg translate %old cero point
tfn %tfw
/Y001DYu L*i i1 get
L*i i18 get div def
/Y100DYu L*i 100 get
L*i i18 get div def
tfg
[100] 0 setdash
0 Y001DYu jlog 1 eq {log} if ytrl add MULY mul moveto
0 Y100DYu jlog 1 eq {log} if ytrl add MULY mul lineto stroke
[ ] 0 setdash
tfn %tfw
/y0 2900 def
/x1 800 def
/y1 2700 def
/xdel 800 def
/ydel 300 def
%for ifunc=0,1,2,3 HAULAB, CIELAB, IECsRGB, TUBsRGB
/ioutC02 1 def %0/1:no or with output of equations in main program
ioutC02 1 eq {proc_L*DL*u_C02} if
%/y00a 0850 def
/y00a 0600 def
proc_appli
} def %END proc_C02_ALOG_L*DL*u
%*********************************************************************
/proc_C04_ALOG_DLn {%BEG proc_C04_ALOG_DLn
jlog 0 eq {%jlog=0
/Fx0log -2.0 def
/Fy0lin 1.0 def
/xtr 2000 def
/ytr 0000 def
/iys 1000 def
/MULY iys 2.0 div def %scale=2.0
/ytrl ytr 1000 div def %lin shift
} %jlog=0
{ %jlog=1
%/Fx0log -2.0 def
%/Fy0log -1.0 def
/xtr 2000 def
/ytr 1000 def
/ytrl ytr 1000 div def %log shift
} ifelse %jlog=1
xtr ytr translate %new cero point
%0 not available
proc_Y_curve
%C04 xchartl=1
proc_mdu
tfz %tfz
[100] 0 setdash
jlog 0 eq {%jlog=0,1
/rYdY 1 def
-2. MULX mul rYdY MULY mul moveto
iu log MULX mul rYdY MULY mul lineto
iu log MULX mul 0 MULY mul lineto stroke
} %jlog=0
{ %jlog=1
/rYdY 1. def
-2. MULX mul rYdY log MULY mul moveto
iu log MULX mul rYdY log MULY mul lineto
iu log MULX mul -1. MULY mul lineto stroke
} ifelse %jlog=0,1
[ ] 0 setdash
tfn
xtr neg ytr neg translate %new cero point
tfn %tfw
/Y001DYu dYi i1 get dYu div def
/Y100DYu dYi 100 get dYu div def
tfg
[100] 0 setdash
0 Y001DYu jlog 1 eq {log} if ytrl add MULY mul moveto
0 Y100DYu jlog 1 eq {log} if ytrl add MULY mul lineto stroke
[ ] 0 setdash
tfn %tfw
/y0 2400 y0del sub def
/ydel 300 def
%C04
/x02t 0900 def
/x03t 2300 def
/x04t 3300 def
%for ifunc=0,1,2,3 HAULAB, CIELAB, IECsRGB, TUBsRGB
/ioutC04 1 def %0/1:no or with output of equations in main program
ioutC04 1 eq {proc_YDYu_C04} if
/y00a 0750 def
proc_appli
} def %END proc_C04_ALOG_DLn
%*********************************************************************
/proc_C06_ALOG_DL_Ln {%BEG proc_C06_ALOG_DL_Ln
jlog 0 eq {%jlog=0
/Fx0log -2.0 def
/Fy0lin 1.0 def
/xtr 2000 def
/ytr 0000 def
/iys 1000 def
/MULY iys 2.0 div def %scale=2.0
/ytrl ytr 1000 div def %lin shift
} %jlog=0
{ %jlog=1
%/Fx0log -2.0 def
%/Fy0lin 1.0 def
/xtr 2000 def
/ytr 1000 def
/ytrl ytr 1000 div def %log shift
} ifelse %jlog=1
xtr ytr translate %new cero point
%0 not available
proc_Y_curve
%C06 xchartl=2
proc_mdu
tfz %tfz
[100] 0 setdash
jlog 0 eq {%jlog=0,1
[100] 0 setdash
/rYdY 1 def
-2. MULX mul rYdY MULY mul moveto
iu log MULX mul rYdY MULY mul lineto
iu log MULX mul 0 MULY mul lineto stroke
} %jlog=0
{ %jlog=1
/rYdY 1 def
-2. MULX mul rYdY log MULY mul moveto
iu log MULX mul rYdY log MULY mul lineto
iu log MULX mul -1. MULY mul lineto stroke
} ifelse %jlog=0,1
[ ] 0 setdash
tfn
%/iu 18 def
%/rYdY Yi i18 get dYi i18 get div
% Yu dYu div div e10D30 exp def
%-2. MULX mul rYdY log MULY mul moveto
%iu log MULX mul rYdY log MULY mul lineto
%iu log MULX mul -1. MULY mul lineto stroke
[ ] 0 setdash
tfn
ioute 1 eq {proc_cero_line} if
xtr neg ytr neg translate %old cero point
tfn %tfw
/Y001DYu dYi i1 get Yi i1 get div
dYu Yu div div def
/Y100DYu dYi 100 get Yi 100 get div
dYu Yu div div def
tfg
[100] 0 setdash
0 Y001DYu jlog 1 eq {log} if ytrl add MULY mul moveto
0 Y100DYu jlog 1 eq {log} if ytrl add MULY mul lineto stroke
[ ] 0 setdash
tfn %tfw
/y0 2400 y0del sub def
/ydel 300 def
%C06
/x02t 0900 def
/x03t 2300 def
/x04t 3300 def
%for ifunc=0,1,2,3 HAULAB, CIELAB, IECsRGB, TUBsRGB
/ioutC06 1 def %0/1:no or with output of equations in main program
ioutC06 1 eq {proc_dYDY_C06} if
/y00a 01400 def
proc_appli
} def %END proc_C06_ALOG_DL_Ln
%*********************************************************************
/proc_C08_ALOG_L_DLn {%BEG proc_C08_ALOG_L_DLn
jlog 0 eq {%jlog=0
/Fx0log -2.0 def
/Fy0lin 1.0 def
/xtr 2000 def
/ytr 0000 def
/iys 1000 def
/MULY iys 1 div def %scale=1
/ytrl ytr 1000 div def %lin shift
} %jlog=0
{ %jlog=1
%/Fx0log -2.0 def
%/Fy0log -1.0 def
/xtr 2000 def
/ytr 1000 def
/ytrl ytr 1000 div def %log shift
} ifelse %jlog=1
xtr ytr translate %new cero point
proc_Y_curve
%C08 xchartl=3
proc_mdu
tfz %tfz
[100] 0 setdash
jlog 0 eq {%jlog=0,1
[100] 0 setdash
/rYdY 1 def
-2. MULX mul rYdY MULY mul moveto
iu log MULX mul rYdY MULY mul lineto
iu log MULX mul 0 MULY mul lineto stroke
} %jlog=0
{ %jlog=1
/rYdY 1 def
-2. MULX mul rYdY log MULY mul moveto
iu log MULX mul rYdY log MULY mul lineto
iu log MULX mul -1. MULY mul lineto stroke
} ifelse %jlog=0,1
[ ] 0 setdash
tfn
ioute 1 eq {proc_cero_line} if
xtr neg ytr neg translate %old cero point
tfn %tfw
/Y001DYu Yi i1 get dYi i1 get div
Yu dYu div div def
/Y100DYu Yi 100 get dYi 100 get div
Yu dYu div div def
tfg
[100] 0 setdash
0 Y001DYu jlog 1 eq {log} if ytrl add MULY mul moveto
0 Y100DYu jlog 1 eq {log} if ytrl add MULY mul lineto stroke
[ ] 0 setdash
%C08
/y0 2400 y0del sub def
/ydel 300 def
%for ifunc=0,1,2,3 HAULAB, CIELAB, IECsRGB, TUBsRGB
/ioutC08 1 def %0/1:no or with output of equations in main program
ioutC08 1 eq {proc_YDdY_C08} if
/y00a 0850 def
proc_appli
} def %END proc_C08_ALOG_L_DL
%%EndProlog
gsave
/lanind 1 def
/lantex [(G) (E) (S) (F) (I) (J) (M)] def
/showde {0 lanind eq {show} {pop} ifelse} bind def
/showen {1 lanind eq {show} {pop} ifelse} bind def
/showes {2 lanind eq {show} {pop} ifelse} bind def
/showfr {3 lanind eq {show} {pop} ifelse} bind def
/showit {4 lanind eq {show} {pop} ifelse} bind def
/showjp {5 lanind eq {show} {pop} ifelse} bind def
/showea {1 lanind le {show} {pop} ifelse} bind def
/lanindf where {pop /lanind1 lanindf def /lanind2 lanindf def
/lanindd laninddf def}
{/lanind1 1 def /lanind2 1 def} ifelse
/colormf where {pop /colorm1 colormf def /colorm2 colormf def
/colormd colormdf def}
{/colorm1 0 def} ifelse
/deintpf where {pop /deintp1 deintpf def /deintp2 deintpf def
/deintpd deintpdf def}
{/deintp1 0 def} ifelse
/xcolorf where {pop /xcolor1 xcolorf def /xcolor2 xcolorf def
/xcolord xcolordf def}
{/xcolor1 3 def} ifelse
/xchartf where {pop /xchart1 xchartf def /xchart2 xchartf def
/xchartd xchartdf def
/xchartm xchart2f xchart1f sub 1 add def}
{/xchart1 0 def /xchartm 1 def} ifelse
/xchart3f where {pop /xchart3 xchart3f def}
{/xchart3 0 def} ifelse
/xchart4f where {pop /xchart4 xchart4f def}
{/xchart4 0 def} ifelse
/pchartf where {pop /pchart1 pchartf def /pchart2 pchartf def
/pchartd pchartdf def}
{/pchart1 3 def} ifelse
/colsepf where {pop /colsep1 colsepf def /colsep2 colsepf def
/colsepd colsepdf def}
{/colsep1 0 def} ifelse
/pmetamf where {pop /pmetam1 pmetamf def /pmetam2 pmetamf def
/pmetamd pmetamdf def}
{/pmetam1 0 def} ifelse
%either defaul values for xchart=0 or values for xchart=1
/lanind lanind1 def %
/colorm colorm1 def %
/deintp deintp1 def %
/xcolor xcolor1 def %
/xchart xchart1 def %
/pchart pchart1 def %
/colsep colsep1 def %
/pmetam pmetam1 def %
colorm 0 eq deintp 0 eq and {/Txx (d) def /Fxx (d) def} if %colorm=0, deintp=0
colorm 0 eq deintp 1 eq and {/Txx (e) def /Fxx (e) def} if %colorm=0, deintp=1
colorm 1 eq deintp 0 eq and {/Txx (dd) def /Fxx (d) def} if %colorm=1, deintp=0
colorm 1 eq deintp 1 eq and {/Txx (de) def /Fxx (e) def} if %colorm=1, deintp=1
xchart 0 eq {/Txx (-) def /Fxx (-) def} if %always independent of intended output
5 /Times-ISOL1 FS
/cvishow {cvi 6 string cvs show} def
%75 85 moveto
%lanind cvishow (-) show
%colorm cvishow
%deintp cvishow
%xcolor cvishow
%xchart cvishow
%pchart cvishow
%colsep cvishow (-L) show pmetam cvishow
gsave
%XCHA01.PS END
/cvishow0 {cvi 6 string cvs show} def
/kchartl 0 def %0:left page, 1:right page
/pchartl 0 def %0:top page, 4:down page %not used
/jlog 0 def %0,1 without/with log
72 90 translate
0.010 MM dup scale
/xbtex0 0 def %xbtex=0 for files Y1(0/1)-(3/7)n.EPS
xbtex0 1 eq {%xbtex0=1
40 setlinewidth
/ymax1 08550 def
/xmax1 12250 def
1.0 setgray
0 0 moveto xmax1 0 rlineto 0 ymax1 rlineto xmax1 neg 0 rlineto
closepath fill
0 setgray
0 0 moveto xmax1 0 rlineto 0 ymax1 rlineto xmax1 neg 0 rlineto
closepath stroke
TK
0 setgray
150 /Times-ISOL1 FS
150 -140 moveto
(heo80-1a) show
} if %xbtex0=1
/ifunc 0 def %0:HAULAB
ifunc 0 eq {/i1 002 def} %HauLAB
{/i1 001 def} ifelse %all others
/i2 99 def
/iequa 1 def %0,1 without/with equations
/iY_curve 0 def %0/1 without/with curve data
/xchartl 0 def
%0 1 3 {/xchartl exch def %xchartl=0,3
/ichartl 0 def
/ichart 0 def
/jchartl 0 def
0 1 0 {/jchartl exch def %1 jxhartl=0,3
jchartl 0 eq {/jchart 0 def} if
jchartl 1 eq {/jchart 1 def} if
jchartl 2 eq {/jchart 2 def} if
jchartl 3 eq {/jchart 3 def} if
/ij ichart 6 mul jchart add def %0<=kchart<48
proc_basdef
proc_funcHAU
proc_funcHAU_CIE_IEC_TUB
%uses:
%ifunc 0 eq {proc_Yi_L*i_dYi_H_0} if
%ifunc 1 eq {proc_Yi_L*i_dYi_C_0} if
%ifunc 2 eq {proc_Yi_L*i_dYi_I_0} if
%ifunc 3 eq {proc_Yi_L*i_dYi_T_0} if
/ij ichart 6 mul jchart add def %0<=kchart<48
proc_ij_syij_dyij_Ykij_L*kij_Yxyk
%input: kchart, Ykij, L*kij, ouput for plot Xk, Yk
} for %jchartl=0,3
%END Data creation
%$STOP04
/ichartl 0 def
/ichart 0 def
/jchartl 0 def
/jchart 0 def
/jchartl 0 def
0 1 0 {/jchartl exch def %2 jxhartl=0,3
jchartl 0 eq {/jchart 0 def} if
jchartl 1 eq {/jchart 1 def} if
jchartl 2 eq {/jchart 2 def} if
jchartl 3 eq {/jchart 3 def} if
proc_basdef
proc_funcHAU
proc_funcHAU_CIE_IEC_TUB
gsave
/ij ichart 6 mul jchart add def %0<=kchart<48
proc_ij_syij_dyij_Ykij_L*kij_Yxyk
20 setlinewidth
/xpos [00000 00000 00000 00000] def
/ypos [00000 00000 00000 00000] def
%xpos xchartl get ypos xchartl get translate
xpos jchartl get ypos jchartl get translate
0 setgray
150 /Times-ISOL1 FS
150 -140 moveto
(heo8) show kchartl cvishow0 (-) show
jchartl 1 add pchartl add cvishow0
(a) show %a
/xwidth 6000 def
/ywidth 4000 def
25 setlinewidth
1 1 1 setrgbcolor
0 0 moveto xwidth 0 rlineto 0 ywidth rlineto
xwidth neg 0 rlineto closepath fill
0 setlinewidth
0 0 moveto xwidth 0 rlineto 0 ywidth rlineto
xwidth neg 0 rlineto closepath clip
20 setlinewidth
0 setgray
0 0 moveto xwidth 0 rlineto 0 ywidth rlineto
xwidth neg 0 rlineto closepath stroke
tfn %tfw
/xtr0 380 def
/ytr0 280 def
xtr0 ytr0 translate
%*********************************************************************
50 setlinewidth %50 setlinewidth
tfn
0 0 moveto 5000 0 rlineto stroke
0 0 moveto 0 3100 rlineto stroke
5000 100 add 0 moveto
-100 50 rlineto 0 -100 rlineto closepath fill
0 3100 100 add moveto
-50 -100 rlineto 100 0 rlineto closepath fill
TBL
/tx [(-2) (-1) ( 0) ( 1) ( 2)] def
/txl [( ) (0,1) ( 1) ( 10) (100)] def
%!x-Achse: 100 Einheiten = 0600 Skalen-Einheiten
0 1 4 {/i exch def
/ixt {-150 i 1000 mul add} def
/ixl { 000 i 1000 mul add} def
ixt -230 moveto tx i get exec show
tfb
i 1 ge {ixt 100 moveto txl i get exec show} if
tfn
ixl 60 moveto 0 -120 rlineto stroke
} for
tfn %tfw
3300 100 moveto (Y) jLs (u) ibLs TBL (=18) show
tfn
/ixtt 4.5 1000 mul def
/iytt -200 def
ixtt 200 add iytt moveto
(log) bLs 20rm (Y) jLs
/iytt 050 def
ixtt 200 add iytt moveto
tfb (Y) jLs tfn
tfn %tfw
2000 0 moveto 1900 0 rlineto stroke
tfg
[100] 0 setdash
2000 0 moveto 1900 0 rlineto stroke
[ ] 0 setdash
jlog 0 eq {%jlog=0,1
tfn
%!y-Achse: 100 S-Einheiten = 1000 Skalen-Einheiten
/j1y 2 def %default
/j2y 4 def
%ifunc 0 eq {%ifunc=0 HAULAB
%xchartl 0 eq {/j1y 4 def /j2y 6 def} if
%xchartl 2 eq {/j1y 1 def /j2y 3 def} if
%xchartl 4 eq {/j1y 0 def /j2y 2 def} if
%xchartl 6 eq {/j1y 4 def /j2y 6 def} if
% } if %ifunc=0 HAULAB
%ifunc 1 eq {%ifunc=0 CIELAB
%xchartl 0 eq {/j1y 3 def /j2y 5 def} if
%xchartl 2 eq {/j1y 2 def /j2y 4 def} if
%xchartl 4 eq {/j1y 1 def /j2y 3 def} if
%xchartl 6 eq {/j1y 3 def /j2y 5 def} if
% } if %ifunc=1 CIELAB
TBL
%yshift -1000 0 1000 2000 3000 4000
% 0 1 2 3 4 5 6 7 8
/ty [( -3)( -2)( -1) ( 0) ( 1) ( 2) ( 3) ( 4) ( 5)] def
/tyl[(0,001)(0,01) (0,1) (1) (10) (100) (1000) (10000) (100000)] def
ifunc 0 eq
ifunc 2 eq or
ifunc 3 eq or {%ifunc=0,2,3 HAULAB, IECsRGB, TUBsRGB
/ty0[( 0)( 500)(1000)(1500)] def
/ty1[( 0)( 1)( 2)( 3)] def
/ty2[(0,0)(0,2)(0,4)(0,6)] def
/ty3[( 0)( 2)( 4)( 6)] def
/ty4[(0,00)(0,01)(0,02)(0,03)] def
/ty5[( 0)( 2)( 4)( 6)] def
/ty6[( 0)(200)(400)(600)] def
/ty7[( 0)( 1)( 2)( 3)] def
} if %ifunc=0,2,3 HAULAB, IECsRGB, TUBsRGB
ifunc 1 eq {%ifunc=1 CIELAB
/ty0[( 0)( 50)(100)(150)] def
/ty1[( 0)( 1)( 2)( 3)] def
/ty2[( 0)( 2)( 4)( 6)] def
/ty3[( 0)( 2)( 4)( 6)] def
/ty4[(0,0)(0,1)(0,2)(0,3)] def
/ty5[( 0)( 2)( 4)( 6)] def
/ty6[( 0) (20) (40)(60) ] def
/ty7[( 0)( 1)( 2)( 3)] def
} if %ifunc=1 CIELAB
/j1y 0 def
/j2y 3 def
j1y 1 j2y {/j exch def
/jyt {-50 j j1y sub 1000 mul add} def
/jyl {000 j j1y sub 1000 mul add} def
-400
jyt moveto
xchartl 0 eq {ty1 j get show} if
xchartl 1 eq {ty3 j get show} if
xchartl 2 eq {ty5 j get show} if
xchartl 3 eq {ty7 j get show} if
tfn
-60 jyl moveto 120 0 rlineto stroke
} for
} %jlog=0
{ %jlog=1
tfn
%!y-Achse: 100 S-Einheiten = 1000 Skalen-Einheiten
/j1y 2 def %default
/j2y 5 def
%ifunc 0 eq {%ifunc=0 HAULAB
%xchartl 0 eq {/j1y 4 def /j2y 6 def} if
%xchartl 2 eq {/j1y 1 def /j2y 4 def} if
%xchartl 4 eq {/j1y 0 def /j2y 3 def} if
%xchartl 6 eq {/j1y 4 def /j2y 6 def} if
% } if %ifunc=0 HAULAB
%ifunc 1 eq {%ifunc=0 CIELAB
%xchartl 0 eq {/j1y 3 def /j2y 5 def} if
%xchartl 2 eq {/j1y 2 def /j2y 5 def} if
%xchartl 4 eq {/j1y 1 def /j2y 4 def} if
%xchartl 6 eq {/j1y 3 def /j2y 5 def} if
% } if %ifunc=1 CIELAB
TBL
%yshift -1000 0 1000 2000 3000 4000
% 0 1 2 3 4 5 6 7 8
/ty [( -3)( -2)( -1) ( 0) ( 1) ( 2) ( 3) ( 4) ( 5)] def
/tyl[(0,001)(0,01) (0,1) (1) (10) (100) (1000) (10000) (100000)] def
j1y 1 j2y {/j exch def
/jyt {-50 j j1y sub 1000 mul add} def
/jyl {000 j j1y sub 1000 mul add} def
-400 jyt moveto ty j get show
tfb
j j1y 1 add ge {100 jyt moveto tyl j get show} if
tfn
-60 jyl moveto 120 0 rlineto stroke
} for
} ifelse %jlog=0,1
%********************************************************
%BEG C02, C04, C06, C08 ********************************************
%jlog 0:without log, 1:with log in main program
ifunc 0 eq {/n 0.3100 def} if %HAULAB
ifunc 1 eq {/n 1 3.0 div def} if
ifunc 2 eq {/n 1 2.4 div def} if
ifunc 3 eq {/n 1 10 ln div def} if
proc_toptext
/y0del 100 def
50 setlinewidth
%****************************************************************
tfb
/xtfb 00 def
xchartl 00 eq {100 3200 xtfb sub moveto
(L*/L*) jLs ifunc 0 eq {(80,) ibLs} if (u) ibLs
} if
xchartl 01 eq {100 3200 xtfb sub moveto
(D) sKs (Y) jLs (/) bLs
(D) sKs (Y) jLs (u) ibLs
} if
xchartl 02 eq {100 3200 xtfb sub moveto
(S) jLs (r) ibLs (/) bLs (S) jLs (ru) ibLs
(=\050) bLs (D) sKs (Y/Y) jLs (\051/\050) bLs
(D) sKs (Y/Y) jLs (\051) bLs (u) ibLs
} if
xchartl 03 eq {100 3200 xtfb sub moveto
(C) jLs (r) ibLs (/) bLs
(C) jLs (ru) ibLs
(=\050) bLs (Y/) jLs (D) sKs (Y) jLs (\051/\050) bLs
(Y) jLs (/) bLs (D) sKs (Y) jLs (\051) bLs (u) ibLs
} if
tfn
%**************************************************************
xchartl 00 eq {proc_C02_ALOG_L*DL*u} if
xchartl 01 eq {proc_C04_ALOG_DLn} if
xchartl 02 eq {proc_C06_ALOG_DL_Ln} if
xchartl 03 eq {proc_C08_ALOG_L_DLn} if
%END C01_C08**********************************************
%********************************************************
xtr0 neg ytr0 neg translate
%**************************************************************
%xpos xchartl get neg ypos xchartl get neg translate
xpos jchartl get neg ypos jchartl get neg translate
grestore
%} for %xchartl=0,3
} for %jchartl=0,3
showpage
grestore
%%Trailer