2 EC-wave propagation using Mathematica. 2.1 O-X propagation for 2nd harmonic resonance for KSTAR tokamak with low density
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1 2 EC-wave propagation using Mathematica 2.1 O-X propagation for 2nd harmonic resonance for KSTAR tokamak with low density 8
2 OX-propagation-2ndHarm-lowDensity.nb 1 Propagation of 84-GHz Microwave in KSTAR tokamak for Second Harmonic Resonance with low plasma density Electron density in unit of 10^20 m^-3 Electron temperuture in unit of kev Toroidal magnetic field in unit of Tesla All frequencies in unit of GHz KSTAR major radius: 1.8 m KSTAR plasma minor radius: 0.5 m KSTAR toroidal magnetic field, B0: 1.5 T KSTAR ECH system frequency: 84 GHz Clear "Global` " Off General::spell ; Off General::spell1 ; a 0.5; R0 1.8; f 84.0; bz0 1.5; te0 10.; ne1 0.; Nh 2; Nnu 1.; Tnu 1; Az 1; massr 2000.Az; sc 310^8; mc ; 9
3 OX-propagation-2ndHarm-lowDensity.nb 2 ne ne0 1 rho^2 ^Nnu ne1; te te0 1 rho^2 ^Tnu; ve scsqrt 2te mc2 ; bz bz0 1 a R0 rho ; fce 28.0bz; fci fce massr; fpe 90.0Sqrt ne ; fpi fpe Sqrt massr ; w 2.0Pif; wce 2.0Pifce; wpe 2.0Pifpe; wci 2.0Pifci; wpi 2.0Pifpi; SS = 1-2 pe / ( 2-2 ce) DD = (- 2 pe/( 2-2 ce)) ( ce / ) PP = 1-2 pe/ 2 If define q = 2 pe/ 2 u = 2 ce/ 2 q wpe^2 w^2; u wce^2 w^2; SS 1 q 1 u ; DD q 1 u Sqrt u ; PP 1 q; AA SS; BB SS PP SS Npar^2 DD^2; CC PP SS Npar^2 ^2 DD^2 ; Disc BBBB 4AACC; Nppsq BB Sqrt Disc 2.0AA ; Npnsq BB Sqrt Disc 2.0AA ; 10
4 OX-propagation-2ndHarm-lowDensity.nb 3 + sign : O-mode, - sign : X-mode Density plot (low density) NePlot Plot 10ne.ne0 0.8, rho, 1, 1, PlotStyle Thickness 0.005, GrayLevel Graphics BTPlot Plot bz, rho, 1, 1, PlotStyle Thickness 0.005, GrayLevel Graphics Cutoff and Resonances O-mode cutoff: q = 1 ( P = 0) X-mode cutoff: q = (1- u )(1-N 2 ) ( (S-N 2 ) 2 - D 2 = 0 ) Upper Hybrid Resonance: q = 1 - u ( 2 = 2 pe+ 2 ce) Electron Cyclotron Resonance: u = 1 ( = N ce ) O-X conversion: q = 1 + u [(1-N 2 )/(2 N )] 2 ( B 2-4 AC = 0) Clear Npar ; 11
5 OX-propagation-2ndHarm-lowDensity.nb 4 ocut 1; xcut 1 Sqrt u 1 Npar^2 ; uhr 1 u ; ecr NhSqrt u 1; oxc 1 u 1 Npar^2 2Npar ^2; O-Mode Cutoff position (for maximum density of 0.8 x 10^20 m^-3) solocut Solve q ocut.ne0 0.8, rho rho , rho No O-mode cutoff! X-mode Cutoff position for N = 0.5 solxcut Solve q xcut. ne0 0.8, Npar 0.5, rho rho , rho , rho , rho xcutrho1 rho.solxcut 4 ; xcutrho2 rho.solxcut 3 ; Upper Hybrid Resonance position soluhr Solve q uhr.ne0 0.8, rho rho , rho , rho , rho uhrrho1 rho.soluhr 4 ; uhrrho2 rho.soluhr 3 ; ECR position solecr Solve ecr 0, rho rho 7.2, rho 0. ecrrho rho.solecr 2 ; O-X Conversion [No O-X conversion] [1] For fixed centeral density, n e0 =0.8x m 3 and fixed N = 0.5 soloxc1 Solve q oxc. ne0 0.8, Npar 0.5, rho rho , rho , rho , rho
6 OX-propagation-2ndHarm-lowDensity.nb 5 No solution! [2] For fixed centeral density, n e0 =0.8 x m 3 and fixed N = 0.7 soloxc2 Solve q oxc. ne0 0.8, Npar 0.7, rho rho , rho , rho , rho No solution! [3] For fixed = 0.2 and fixed N = 0.5 soloxc3 Solve q oxc. rho 0.2, Npar 0.5, ne0 ne oxcne0 ne0.soloxc3 1 ; [4] For fixed = 0.2 and fixed n e0 =1.0 x m 3 soloxc4 Solve q oxc. rho 0.2, ne0 1, Npar Npar , Npar , Npar , Npar No solution! Thus, for fixed N of 0.5, the maximum density > 1.0 x m 3 is required to have O-X mode conversion at = 0.2. For the maximum density of 1.0 x m 3, the parallel refractive index, N > 0.5 to have O-X mode conversion at = 0.2. O-X Propagation Plot for N = 0.5 OX_temp1 Plot Nppsq. ne0 0.8, Npar 0.5, Npnsq. ne0 0.8, Npar 0.5, rho, 1, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1, Thickness 0.008, RGBColor 1, 0, 0, PlotRange 0, 5 Omode1 Plot Nppsq. ne0 0.8, Npar 0.5, rho, 1, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Xmode1 Plot Npnsq. ne0 0.8, Npar 0.5, rho, xcutrho1, 1, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode2 Plot Npnsq. ne0 0.8, Npar 0.5, rho, uhrrho2, uhrrho1, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 13
7 OX-propagation-2ndHarm-lowDensity.nb 6 Xmode3 Plot Npnsq. ne0 0.8, Npar 0.5, rho, 1, xcutrho2, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 OXWavePlot Show Omode1, Xmode1, Xmode2, Xmode3, PlotRange 0, 5 Show NePlot, BTPlot, OXWavePlot, Graphics Dashing 0.01, 0.01, Line xcutrho1, 0, xcutrho1, 10, Dashing 0.01, 0.01, Line xcutrho2, 0, xcutrho2, 10, Dashing 0.01, 0.01, Line uhrrho1, 0, uhrrho1, 10, Thickness 0.015, GrayLevel 0.5, Line ecrrho, 0, ecrrho, 10, Graphics Text "N 0.5", 0.2, 6, Text "O", 0.6, 0.5, Text "UHR", uhrrho1 0.1, 4, Text "Ne", 0.25, 8., Text "B T ", 0.6, 2.2, Text "X", 0.9, 0.2, Text "X cutoff", xcutrho1, 2, Text "X", 0.42, 3, Frame True, FrameLabel " ", "N 2, Ne m 3, B T T ", PlotRange 1, 1, 0, N 2, N e m 3, BT T B T X Ne N 0.5 UHR X cutoff O X Graphics 14
8 2.2 O-X propagation for 2nd harmonic resonance for KSTAR tokamak with high density 15
9 OX-propagation-2ndHarm-highDensity.nb 1 Propagation of 84-GHz Microwave in KSTAR tokamak for Second Harmonic Resonance with high plasma density Electron density in unit of 10^20 m^-3 Electron temperuture in unit of kev Toroidal magnetic field in unit of Tesla All frequencies in unit of GHz KSTAR major radius: 1.8 m KSTAR plasma minor radius: 0.5 m KSTAR toroidal magnetic field, B0: 1.5 T KSTAR ECH system frequency: 84 GHz Clear "Global` " Off General::spell ; Off General::spell1 ; a 0.5; R0 1.8; f 84.0; bz0 1.5; te0 10.; ne1 0.; Nh 2; Nnu 1.; Tnu 1; Az 1; massr 2000.Az; sc 310^8; mc ; 16
10 OX-propagation-2ndHarm-highDensity.nb 2 ne ne0 1 rho^2 ^Nnu ne1; te te0 1 rho^2 ^Tnu; ve scsqrt 2te mc2 ; bz bz0 1 a R0 rho ; fce 28.0bz; fci fce massr; fpe 90.0Sqrt ne ; fpi fpe Sqrt massr ; w 2.0Pif; wce 2.0Pifce; wpe 2.0Pifpe; wci 2.0Pifci; wpi 2.0Pifpi; SS = 1-2 pe / ( 2-2 ce) DD = (- 2 pe/( 2-2 ce)) ( ce / ) PP = 1-2 pe/ 2 If define q = 2 pe/ 2 u = 2 ce/ 2 q wpe^2 w^2; u wce^2 w^2; SS 1 q 1 u ; DD q 1 u Sqrt u ; PP 1 q; AA SS; BB SS PP SS Npar^2 DD^2; CC PP SS Npar^2 ^2 DD^2 ; Disc BBBB 4AACC; Nppsq BB Sqrt Disc 2.0AA ; Npnsq BB Sqrt Disc 2.0AA ; 17
11 OX-propagation-2ndHarm-highDensity.nb 3 + sign : O-mode, - sign : X-mode Density plot (low density) NePlot Plot 2ne.ne0 1, rho, 1, 1, PlotStyle Thickness 0.005, GrayLevel Graphics BTPlot Plot bz, rho, 1, 1, PlotStyle Thickness 0.005, GrayLevel Graphics Cutoff and Resonances O-mode cutoff: q = 1 ( P = 0) X-mode cutoff: q = (1- u )(1-N 2 ) ( (S-N 2 ) 2 - D 2 = 0 ) Upper Hybrid Resonance: q = 1 - u ( 2 = 2 pe+ 2 ce) Electron Cyclotron Resonance: u = 1 ( = N ce ) O-X conversion: q = 1 + u [(1-N 2 )/(2 N )] 2 ( B 2-4 AC = 0) Clear Npar ; 18
12 OX-propagation-2ndHarm-highDensity.nb 4 ocut 1; xcut 1 Sqrt u 1 Npar^2 ; uhr 1 u ; ecr NhSqrt u 1; oxc 1 u 1 Npar^2 2Npar ^2; O-Mode Cutoff position (for maximum density of 0.8 x 10^20 m^-3) solocut Solve q ocut.ne0 1, rho rho , rho ocutrho1 rho.solocut 2 ; ocutrho2 rho.solocut 1 ; X-mode Cutoff position for N = 0.5 solxcut Solve q xcut. ne0 1, Npar 0.5, rho rho , rho , rho , rho xcutrho1 rho.solxcut 4 ; xcutrho2 rho.solxcut 3 ; Upper Hybrid Resonance position soluhr Solve q uhr.ne0 1, rho rho , rho , rho , rho uhrrho1 rho.soluhr 4 ; uhrrho2 rho.soluhr 3 ; ECR position solecr Solve ecr 0, rho rho 7.2, rho 0. ecrrho rho.solecr 2 ; O-X Conversion [1] For fixed centeral density, n e0 =1x m 3 and fixed N = 0.5 soloxc1 Solve q oxc. ne0 1, Npar 0.5, rho rho , rho , rho , rho
13 OX-propagation-2ndHarm-highDensity.nb 5 oxcrho1 rho.soloxc1 4 ; oxcrho2 rho.soloxc1 3 ; For the maximum density of 1.0 x m 3, the parallel refractive index, N > 0.5 to have O-X mode conversion at ~ 0.1. O-X Propagating for N = 0.5 (O-X conversion occurrence) OXconv_temp2 Plot Nppsq. ne0 1, Npar 0.5, Npnsq. ne0 1, Npar 0.5, rho, 1, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1, Thickness 0.008, RGBColor 1, 0, 0, PlotRange 0, 5 Omode21 Plot Nppsq. ne0 1, Npar 0.5, rho, oxcrho1, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Omode22 Plot Nppsq. ne0 1, Npar 0.5, rho, oxcrho2, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Xmode21 Plot Npnsq. ne0 1, Npar 0.5, rho, xcutrho1, 1, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode22 Plot Npnsq. ne0 1, Npar 0.5, rho, oxcrho1, uhrrho , PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode23 Plot Npnsq. ne0 1, Npar 0.5, rho, oxcrho2, uhrrho2 0.02, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode24 Plot Npnsq. ne0 1, Npar 0.5, rho, 1, xcutrho2, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 OXWavePlot2 Show Omode21, Omode22, Xmode21, Xmode22, Xmode23, Xmode24 20
14 OX-propagation-2ndHarm-highDensity.nb 6 Show NePlot, BTPlot, OXWavePlot2, Graphics Dashing 0.01, 0.01, Line xcutrho2, 0, xcutrho2, 3, Dashing 0.01, 0.01, Line xcutrho1, 0, xcutrho1, 3, Dashing 0.01, 0.01, Line oxcrho2, 0, oxcrho2, 3, Dashing 0.01, 0.01, Line oxcrho1, 0, oxcrho1, 3, Dashing 0.01, 0.01, Line uhrrho1, 0, uhrrho1, 3, Dashing 0.01, 0.01, Line uhrrho2, 0, uhrrho2, 3, Thickness 0.015, GrayLevel 0.5, Line ecrrho, 0, ecrrho, 3, Graphics Text "N 0.5", 0.2, 2.7, Text "O X Conv", oxcrho1 0.1, 1, Text "Ne", 0.25, 2., Text "B T ", 0.75, 2, Text "O X Conv", oxcrho2 0.1, 1, Text "O", 0.6, 0.3, Text "UHR", uhrrho1 0.1, 2, Text "X", 0.9, 0.2, Frame True, FrameLabel " ", "N 2, Ne 0.5 x m 3, B T T ", PlotRange 1, 1, 0, N 0.5 N 2, N e 0. 5 x m 3, BT T B T Ne O X Conv O X Conv UHR O X Graphics 21
15 2.3 O-X-B heating 22
16 OXB.nb 1 Propagation of 84-GHz Microwave in KSTAR tokamak for Fundamental Harmonic Resonance with high density plasma Electron density in unit of 10^20 m^-3 Electron temperuture in unit of kev Toroidal magnetic field in unit of Tesla All frequencies in unit of GHz KSTAR major radius: 1.8 m KSTAR plasma minor radius: 0.5 m KSTAR toroidal magnetic field, B0: 3.5 T KSTAR ECH system frequency: 84 GHz Clear "Global` " Off General::spell ; Off General::spell1 ; a 0.5; R0 1.8; f 84.0; bz0 3.5; te0 10.; ne1 0.; Nh 1; Nnu 1.; Tnu 1; Az 1; massr 2000.Az; sc 310^8; mc ; 23
17 OXB.nb 2 ne ne0 1 rho^2 ^Nnu ne1; te te0 1 rho^2 ^Tnu; ve scsqrt 2te mc2 ; bz bz0 1 a R0 rho ; fce 28.0bz; fci fce massr; fpe 90.0Sqrt ne ; fpi fpe Sqrt massr ; w 2.0Pif; wce 2.0Pifce; wpe 2.0Pifpe; wci 2.0Pifci; wpi 2.0Pifpi; SS = 1-2 pe / ( 2-2 ce) DD = (- 2 pe/( 2-2 ce)) ( ce / ) PP = 1-2 pe/ 2 If define q = 2 pe/ 2 u = 2 ce/ 2 q wpe^2 w^2; u wce^2 w^2; SS 1 q 1 u ; DD q 1 u Sqrt u ; PP 1 q; AA SS; BB SS PP SS Npar^2 DD^2; CC PP SS Npar^2 ^2 DD^2 ; Disc BBBB 4AACC; Nppsq BB Sqrt Disc 2.0AA ; Npnsq BB Sqrt Disc 2.0AA ; 24
18 OXB.nb 3 + sign : O-mode, - sign : X-mode NePlot Plot 100ne.ne0 1, rho, 1, 1, PlotStyle Thickness 0.005, GrayLevel Graphics BTPlot Plot 10bz, rho, 1, 1, PlotStyle Thickness 0.005, GrayLevel Graphics Cutoff and Resonances O-mode cutoff: q = 1 ( P = 0) X-mode cutoff: q = (1- u )(1-N 2 ) ( (S-N 2 ) 2 - D 2 = 0 ) Upper Hybrid Resonance: q = 1 - u ( 2 = 2 pe+ 2 ce) Electron Cyclotron Resonance: u = 1 ( = ce ) O-X conversion: q = 1 + u [(1-N 2 )/(2 N )] 2 ( B 2-4 AC = 0) Clear Npar ; 25
19 OXB.nb 4 ocut 1; xcut 1 Sqrt u 1 Npar^2 ; uhr 1 u ; ecr Sqrt u 1; oxc 1 u 1 Npar^2 2Npar ^2; O-Mode Cutoff position solocut Solve q ocut.ne0 1, rho rho , rho ocutrho1 rho.solocut 1 ; ocutrho2 rho.solocut 2 ; X-mode Cutoff position for N = 0.5 solxcut Solve q xcut. ne0 1, Npar 0.5, rho rho , rho , rho , rho xcutrho rho.solxcut 4 ; Upper Hybrid Resonance position soluhr Solve q uhr.ne0 1, rho rho , rho , rho , rho uhrrho rho.soluhr 4 ; ECR position solecr Solve ecr 0.ne0 1, rho rho 7.8, rho 0.6 ecrrho rho.solecr 2 ; O-X Conversion [1] For fixed centeral density, n e0 =1x m 3 and fixed N = 0.5 soloxc1 Solve q oxc. ne0 1, Npar 0.5, rho rho , rho , rho , rho
20 OXB.nb 5 No solution! [2] For fixed centeral density, n e0 =1 x m 3 and fixed N = 0.8 soloxc2 Solve q oxc. ne0 1, Npar 0.8, rho rho , rho , rho , rho oxcrho1 rho.soloxc2 3 ; oxcrho2 rho.soloxc2 4 ; [3] For fixed = 0.2 and fixed N = 0.5 soloxc3 Solve q oxc. rho 0.2, Npar 0.5, ne0 ne oxcne0 ne0.soloxc3 1 ; [4] For fixed = 0.2 and fixed n e0 =1 x m 3 soloxc4 Solve q oxc. rho 0.2, ne0 1, Npar Npar , Npar , Npar , Npar oxcnpar Npar.soloxc4 3 ; Thus, for fixed N of 0.5, the maximum density > 1.53 x m 3 is required to have O-X mode conversion at = 0.2. For the maximum density of 1.0 x m 3, the parallel refractive index, N > 0.75 to have O-X mode conversion at = 0.2. However, for large N, there X-mode Cutoff position for N = 0.8 solxcut Solve q xcut. ne0 1, Npar 0.8, rho rho , rho , rho , rho xcutrho2 rho.solxcut 4 ; Graphics`Graphics` $TextStyle FontFamily "Times", FontSize 14 ; 27
21 OXB.nb 6 Electron Bernstein Mode Q,b e 1 b 2 e pe2 e where 2 Q,b e 1 3 b e b e 1 b e Q with Q, b e k 2 2 V e e Q Q Q Q Q kperp2 10. w 3. ^2Npb2; be kperp2ve^2 2.wce^210^18 ; Qe w wce; XX wpe^2 wce^2; alphaovbe 1 Qe^2 1 3be Qe^2 1 Qe^2 2^2 ; solnpb Solve alphaovbe 1 XX, Npb2 Npb rho rho rho rho 2 0. ne rho rho rho 2 NEBW Npb2.solNpb rho rho rho rho 2 0. ne rho rho rho 2 28
22 OXB.nb 7 EBWPlot Plot NEBW.ne0 1, rho, ecrrho, uhrrho 0.015, PlotStyle Thickness 0.008, PlotRange Automatic Graphics X-EBW Heating Scheme Omode1 Plot 10Nppsq. ne0 1, Npar 0.5, rho, ecrrho, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Omode2 Plot 10Npnsq. ne0 1, Npar 0.5, rho, ecrrho, ocutrho2, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Omode3 Plot 10Npnsq. ne0 1, Npar 0.5, rho, 1, ocutrho2, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Xmode1 Plot 10Npnsq. ne0 1, Npar 0.5, rho, xcutrho, 1, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode2 Plot 10Npnsq. ne0 1, Npar 0.5, rho, ecrrho, uhrrho 0.014, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode3 Plot 10Nppsq. ne0 1, Npar 0.5, rho, 1, ecrrho, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 OXWavePlot Show Omode1, Omode2, Omode3, Xmode1, Xmode2, Xmode3 29
23 OXB.nb 8 Show NePlot, BTPlot, OXWavePlot, EBWPlot, Graphics Dashing 0.01, 0.01, Line ocutrho1, 0, ocutrho1, 110, Dashing 0.01, 0.01, Line ocutrho2, 0, ocutrho2, 110, Dashing 0.01, 0.01, Line xcutrho, 0, xcutrho, 110, Dashing 0.01, 0.01, Line uhrrho, 0, uhrrho, 110, Thickness 0.015, GrayLevel 0.5, Line ecrrho, 0, ecrrho, 118, Graphics Text "N 0.5", 0.2, 80, Text "O", 0.75, 8, Text "UHR", uhrrho 0.09, 50, Text "Ne", 0.55, 80, Text "B T ", 0.6, 37, Text "X", 0.75, 22, Text "EBW", 0.8, 80, Frame True, FrameLabel " ", "N 2, Ne m 3, B T kg ", PlotRange 1, 1, 0, N 2, N e m 3, BT k G B T Ne N 0.5 EBW UHR X O Graphics O-X-EBW Heating Scheme OXconv_temp2 Plot 10Nppsq. ne0 1, Npar 0.8, 10Npnsq. ne0 1, Npar 0.8, rho, 1, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1, Thickness 0.008, RGBColor 1, 0, 0, PlotRange 0, 100 Omode21 Plot 10Nppsq. ne0 1, Npar 0.8, rho, ecrrho, 1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Omode22 Plot 10Npnsq. ne0 1, Npar 0.8, rho, ecrrho, oxcrho2, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Omode23 Plot 10Npnsq. ne0 1, Npar 0.8, rho, 1, oxcrho1, PlotStyle Thickness 0.008, RGBColor 0, 0, 1 Xmode21 Plot 10Npnsq. ne0 1, Npar 0.8, rho, xcutrho2, 1, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 30
24 OXB.nb 9 Xmode22 Plot 10Npnsq. ne0 1, Npar 0.8, rho, ecrrho, uhrrho 0.016, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode23 Plot 10Nppsq. ne0 1, Npar 0.8, rho, oxcrho2, ecrrho, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 Xmode24 Plot 10Nppsq. ne0 1, Npar 0.8, rho, 1, oxcrho1, PlotStyle Thickness 0.008, RGBColor 1, 0, 0 OXWavePlot2 Show Omode21, Omode22, Omode23, Xmode21, Xmode22, Xmode23, Xmode24 Show NePlot, BTPlot, OXWavePlot2, EBWPlot, Graphics Dashing 0.01, 0.01, Line xcutrho2, 0, xcutrho2, 110, Dashing 0.01, 0.01, Line oxcrho2, 0, oxcrho2, 110, Dashing 0.01, 0.01, Line oxcrho1, 0, oxcrho1, 110, Dashing 0.01, 0.01, Line uhrrho, 0, uhrrho, 110, Thickness 0.015, GrayLevel 0.5, Line ecrrho, 0, ecrrho, 118, Graphics Text "N 0.8", 0.15, 80, Text "O X Conv", oxcrho1, 50, Text "Ne", 0.55, 80, Text "B T ", 0.6, 37, Text "O X Conv", oxcrho2, 50, Text "O", 0.75, 6, Text "UHR", uhrrho 0.09, 50, Text "X", 0.75, 20, Text "EBW", 0.8, 80, Frame True, FrameLabel " ", "N 2, Ne m 3, B T kg ", PlotRange 1, 1, 0, N 2, N e m 3, BT k G B T Ne O X Conv N 0.8 O X Conv EBW UHR X O Graphics 31
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