📄 rko.base.inp

📁 pic 模拟程序！面向对象
💻 INP
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Klystron{	 RKO klystron}Variables{	 Zmax = .86924	 Rmax = .16075	 Jmax = 340	 Kmax = 63	 DeltaZ = Zmax/Jmax	 DeltaR = Rmax/Kmax	 Rdrift = .0765	 cavOuterR = .148	 RbeamMax = .071  	 RbeamMin = .066	 ROutputUnderBeam = .061 	 Gap1 = .02	 Zgap1 = .188	 Gap2 = .0202	 Gap3 = .02	 gap1l = .188	 cavlinnerR = Rdrift + .002	 cav1l = .078	 cav1gL = cav1l + .03462 	 cav1gStumpL = cav1gL + .01 	 cav1gStumpR = cav1gStumpL + .01 	 cav1gR = cav1gStumpR + .01 	 cav1r = .208	 gap2 = .292	 cav2R = .424	 R2min = Rdrift + .02	 cav2L = gap2 + .0202 	 gap3 = .574	 cav3R = .70524	 RoutWaveGuide = .142	 RinWaveGuide = .128  	 R3min = R2min	 cav3L = .594	 Rshunt = .06	 RouterShunt = .05	 ZmaxShunt = .60524	 RinnerShunt = .03	 Zshunt = .49124	 ZshuntPt = Zshunt-Rshunt	 dumpPt = cav3R/DeltaZ - 3*(Rdrift-Rshunt)/DeltaR	 ExitCavL = cav3R+.02} Region {	 Grid	 {		  J = Jmax		  x1s = 0.0		  x1f = Zmax		  n1 = 1.0		  K = Kmax		  x2s = 0.0		  x2f = Rmax		  n2 = 1.0	 }	 Control	 {		  dt = 4E-12		  B01 = .8		  emdamping = .01	 }//	 Species//	 {//		  name = plasma electrons//      m = 9.11E-31//        q = -1.6e-19//	 }//	 Species//	 {//       name = ions//       m = 1.67E-27//       q = 1.6e-19//	 }	 Species	 {		  name = electrons        m = 9.11E-31        q = -1.6e-19	 }//	 PlasmaSource//	 {//		  j1 = Zshunt/DeltaZ//		  k1 = Rshunt/DeltaR//		  j2 = dumpPt//		  k2 = Rdrift/DeltaR//		  speciesName1 = ions//		  name = plasmaSource//		  speciesName2 = plasma electrons//		  sourceRate = 5.52e22//		  normal = 1//		  np2c = 1e9//		  a0 = 0//		  tdelay = 150e-9//		  trise = 150e-9//		  A = 0//		  analyticF = 0.0//	 }	 BeamEmitter	 {		  speciesName = electrons		  j1 = 0		  k1 = RbeamMin/DeltaR		  j2 = 0		  k2 = RbeamMax/DeltaR		  normal = 1		  np2c = 1e10		  I = 10000		  temperature = 0		  thetadot = 0.0		  v1drift = 2.59e8		  tdelay = 0 //25e-9		  trise = 0 //25e-9		  a0 = 0	 }	 Conductor	 {		  j1 = 0 		  k2 = RbeamMin/DeltaR		  j2 = 0		  k1 = ROutputUnderBeam/DeltaR		  normal = 1	 }	 ExitPort	 {		  j1 = 0 		  k2 = 0		  j2 = 0		  k1 = ROutputUnderBeam/DeltaR		  normal = 1        EFFlag = 1        name = below beam        C = 0        A = 0        frequency = 1	 }	 Conductor	 {		  j1 = 0		  k1 = RbeamMax/DeltaR		  j2 = 0		  k2 = Rdrift/DeltaR		  normal = 1		  name = C1	 }	 Conductor	 {		  j1 = 0		  k2 = Rdrift/DeltaR		  j2 = gap1l/DeltaZ		  k1 = Rdrift/DeltaR		  normal = -1		  name = C2	 }	 Conductor	 {		  j1 = gap1l/DeltaZ		  k2 = Rdrift/DeltaR		  j2 = gap1l/DeltaZ		  k1 = cavlinnerR/DeltaR		  normal = 1		  name = C3	 }	 Conductor	 {		  j1 = gap1l/DeltaZ		  k2 = cavlinnerR/DeltaR		  j2 = cav1l/DeltaZ		  k1 = cavlinnerR/DeltaR		  normal = 1		  name = C4	 }	 Conductor	 {		  j1 = cav1l/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1gL/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = -1		  name = C5	 }	 Conductor	 {		  j1 = cav1gL/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1gL/DeltaZ		  k1 = Rmax/DeltaR		  normal = 1		  name = C5	 }	 Gap	 {		  j1 = cav1gL/DeltaZ		  k2 = Rmax/DeltaR		  j2 = cav1gStumpL/DeltaZ		  k1 = Rmax/DeltaR		  normal = -1		  A = -3.2e6		  frequency = 1.34e9		  phase = 0		  EFFlag = 0		  name = Gap Left	 }	 Conductor	 {		  j1 = cav1gStumpL/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1gStumpL/DeltaZ		  k1 = Rmax/DeltaR		  normal = -1		  name = C5	 }	 Conductor	 {		  j1 = cav1gStumpL/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1gStumpR/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = -1		  name = C6	 }	 Conductor	 {		  j1 = cav1gStumpR/DeltaZ		  k2 = Rmax/DeltaR		  j2 = cav1gStumpR/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = 1		  name = C6	 }	 Gap	 {		  j1 = cav1gStumpR/DeltaZ		  k2 = Rmax/DeltaR		  j2 = cav1gR/DeltaZ		  k1 = Rmax/DeltaR		  normal = -1		  A = 3.2e6		  frequency = 1.34e9		  phase = 0.0		  EFFlag = 0		  name = Gap Right	 }	 Conductor	 {		  j1 = cav1gR/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1gR/DeltaZ		  k1 = Rmax/DeltaR		  normal = -1		  name = C6	 }	 Diagnostic	 {		  Ave = 0		  HistMax = 2024        title = Poyting Flux of Input Gaps        j1 = cav1gL/DeltaZ        k1 = cavOuterR/DeltaR        j2 = cav1gR/DeltaZ        k2 = cavOuterR/DeltaR        VarName = poynting2        integral = sum        x1_Label = time        x2_Label = energy	 }	 Diagnostic	 {		  Ave = 10		  HistMax = 2024		  Comb = 2        title = Beam Current at Gap        j1 = (gap3+cav3L)/(2*DeltaZ)        k1 = RouterShunt/DeltaR        j2 = (gap3+cav3L)/(2*DeltaZ)        k2 = Rdrift/DeltaR        VarName = I1        integral = sum        x1_Label = time        x2_Label = energy	 }	 Diagnostic	 {		  Ave = 0		  HistMax = 2024		  Comb = 2        title = Beam Current at Emitter        j1 = 1        k1 = RbeamMin/DeltaR        j2 = 1        k2 = RbeamMax/DeltaR        VarName = I1        integral = sum        x1_Label = time        x2_Label = energy	 }	 Diagnostic	 {		  Ave = 1870		  HistMax = 2024        title = Cycle Ave Poyting Flux IG        j1 = cav1gL/DeltaZ        k1 = cavOuterR/DeltaR        j2 = cav1gR/DeltaZ        k2 = cavOuterR/DeltaR        VarName = poynting2        integral = sum        x1_Label = time        x2_Label = energy	 }	 Conductor	 {		  j1 = cav1gR/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1r/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = -1		  name = C7	 }	 Conductor	 {		  j1 = cav1l/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1l/DeltaZ		  k1 = cavlinnerR/DeltaR		  normal = 1		  name = C8	 }	 Conductor	 {		  j1 = cav1r/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav1r/DeltaZ		  k1 = Rdrift/DeltaR		  normal = -1		  name = C9	 }	 Conductor	 {		  j1 = cav1r/DeltaZ		  k2 = Rdrift/DeltaR		  j2 = gap2/DeltaZ		  k1 = Rdrift/DeltaR		  normal = -1		  name = C10	 }	 Conductor	 {		  j1 = gap2/DeltaZ		  k2 = Rdrift/DeltaR		  j2 = gap2/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = 1		  name = C11	 }	 Conductor	 {		  j1 = gap2/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav2R/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = -1		  name = C12	 }	 Conductor	 {		  j1 = gap2/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav2R/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = -1		  name = C13	 }	 Conductor	 {		  j1 = cav2R/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav2R/DeltaZ		  k1 = R2min/DeltaR		  normal = -1		  name = C14	 }	 Conductor	 {		  j1 = cav2R/DeltaZ		  k2 = R2min/DeltaR		  j2 = cav2L/DeltaZ		  k1 = R2min/DeltaR		  normal = 1		  name = C15	 }	 Conductor	 {		  j1 = cav2L/DeltaZ		  k2 = R2min/DeltaR		  j2 = cav2L/DeltaZ		  k1 = Rdrift/DeltaR		  normal = -1		  name = C16	 }	 Conductor	 {		  j1 = cav2L/DeltaZ		  k2 = Rdrift/DeltaR		  j2 = gap3/DeltaZ		  k1 = Rdrift/DeltaR		  normal = -1		  name = C17	 }	 Conductor	 {		  j1 = gap3/DeltaZ		  k2 = Rdrift/DeltaR		  j2 = gap3/DeltaZ		  k1 = cavOuterR/DeltaR		  normal = 1		  name = C18	 }	 Conductor	 {		  j1 = gap3/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = Jmax		  k1 = cavOuterR/DeltaR		  normal = -1		  name = C19	 }	 Conductor	 {		  j1 = cav3R/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = cav3R/DeltaZ		  k1 = RoutWaveGuide/DeltaR		  normal = -1		  name = C20	 }	 Conductor	 {		  j1 = cav3R/DeltaZ		  k2 = RoutWaveGuide/DeltaR		  j2 = ExitCavL/DeltaZ		  k1 = RoutWaveGuide/DeltaR		  normal = -1		  name = C20	 }	 Conductor	 {		  j1 = ExitCavL/DeltaZ		  k2 = cavOuterR/DeltaR		  j2 = ExitCavL/DeltaZ		  k1 = RoutWaveGuide/DeltaR		  normal = 1		  name = C20	 }	 ExitPort	 {		  j1 = Jmax		  k2 = R3min/DeltaR		  j2 = Jmax		  k1 = cavOuterR/DeltaR		  normal = -1		  EFFlag = 1		  name = Out Wave Guide		  R = 37		  C = 0		  A = 0		  frequency = 1	 }	 Diagnostic	 {		  Ave = 0		  HistMax = 2024		  Comb = 2        title = Power Output Slot        j1 = cav3R/DeltaZ        k1 = RinWaveGuide/DeltaR        j2 = cav3R/DeltaZ        k2 = RoutWaveGuide/DeltaR        VarName = poynting1        integral = sum        x1_Label = time        x2_Label = energy	 }	 Diagnostic	 {		  Ave = 1870		  Comb = 2		  HistMax = 2024        title = Cycle Ave Power Output Slot        j1 = cav3R/DeltaZ        k1 = RinWaveGuide/DeltaR        j2 = cav3R/DeltaZ        k2 = RoutWaveGuide/DeltaR        VarName = poynting1        integral = sum        x1_Label = time        x2_Label = energy	 }	 Conductor	 {		  j1 = cav3R/DeltaZ		  k2 = RinWaveGuide/DeltaR		  j2 = cav3R/DeltaZ		  k1 = R3min/DeltaR		  normal = -1		  name = C21	 }	 Conductor	 {		  j1 = cav3R/DeltaZ		  k2 = RinWaveGuide/DeltaR		  j2 = ExitCavL/DeltaZ		  k1 = RinWaveGuide/DeltaR		  normal = 1		  name = C21	 }	 Conductor	 {		  j1 = ExitCavL/DeltaZ		  k2 = RinWaveGuide/DeltaR		  j2 = ExitCavL/DeltaZ		  k1 = R3min/DeltaR		  normal = 1		  name = C21	 }	 Conductor	 {		  j1 = Jmax		  k2 = R3min/DeltaR		  j2 = cav3L/DeltaZ		  k1 = R3min/DeltaR		  normal = 1		  name = C22	 }	 Conductor	 {		  j1 = cav3L/DeltaZ		  k2 = R3min/DeltaR		  j2 = cav3L/DeltaZ		  k1 = Rdrift/DeltaR		  normal = -1		  name = C23	 }	 Conductor	 {		  j1 = cav3L/DeltaZ		  k2 = Rdrift/DeltaR		  j2 = cav3R/DeltaZ		  k1 = Rdrift/DeltaR		  normal = -1		  name = C24	 }	 Conductor	 {		  j1 = cav3R/DeltaZ		  k2 = Rdrift/DeltaR		  j2 = cav3R/DeltaZ		  k1 = Rshunt/DeltaR		  normal = -1		  name = C25	 }	 Conductor	 {		  j1 = cav3R/DeltaZ		  k2 = Rshunt/DeltaR		  j2 = cav3L/DeltaZ		  k1 = Rshunt/DeltaR		  normal = 1		  name = C26	 }	 Conductor	 {		  j1 = cav3L/DeltaZ		  k2 = Rshunt/DeltaR		  j2 = cav3L/DeltaZ		  k1 = RouterShunt/DeltaR		  normal = -1		  name = C27	 }	 Conductor	 {		  j1 = cav3L/DeltaZ		  k2 = RouterShunt/DeltaR		  j2 = ZmaxShunt/DeltaZ		  k1 = RouterShunt/DeltaR		  normal = -1		  name = C28	 }	 Conductor	 {		  j1 = ZmaxShunt/DeltaZ		  k2 = RouterShunt/DeltaR		  j2 = ZmaxShunt/DeltaZ		  k1 = RinnerShunt/DeltaR		  normal = -1		  name = C29	 }	 Conductor	 {		  j1 = gap3/DeltaZ		  k2 = RinnerShunt/DeltaR		  j2 = ZmaxShunt/DeltaZ		  k1 = RinnerShunt/DeltaR		  normal = 1		  name = C30	 }	 Conductor	 {		  j1 = gap3/DeltaZ		  k2 = RinnerShunt/DeltaR		  j2 = gap3/DeltaZ		  k1 = Rshunt/DeltaR		  normal = 1		  name = C31	 }	 Conductor	 {		  j1 = gap3/DeltaZ		  k2 = Rshunt/DeltaR		  j2 = Zshunt/DeltaZ		  k1 = Rshunt/DeltaR		  normal = 1		  name = C32	 }	 Conductor	 {		  j1 = Zshunt/DeltaZ		  k2 = Rshunt/DeltaR		  j2 = Zshunt/DeltaZ		  k1 = 0		  normal = -1		  name = C33	 }	 Conductor	 {		  j1 = ZshuntPt/DeltaZ		  k2 = Rshunt/DeltaR		  j2 = Zshunt/DeltaZ		  k1 = 0		  normal = 1		  name = C34	 }	 Conductor	 {		  j1 = cav3R/DeltaZ		  k1 = Rshunt/DeltaR		  j2 = dumpPt		  k2 = Rdrift/DeltaR		  normal = 1		  name = C35	 }	 CylindricalAxis	 {		  j1 = 0		  k1 = 0		  j2 = Jmax		  k2 = 0		  normal = 1		  name = C36	 }}
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