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Plasma Application Modeling, POSTECH

Plasma Application Modeling, POSTECH. ODE Global Model. 2005.10. 4. G.J. Kim. Plasma Application Modeling, POSTECH. -----①. -----②. Plasma Application Modeling, POSTECH. Plasma Application Modeling, POSTECH. pi = 4.0*atan(1.0) N = 10000 t = 0.0 dt = 1e-7 Pn = 5.0 Tg = 300.0

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Plasma Application Modeling, POSTECH

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  1. Plasma Application Modeling, POSTECH ODE Global Model 2005.10. 4. G.J. Kim

  2. Plasma Application Modeling, POSTECH -----① -----②

  3. Plasma Application Modeling, POSTECH

  4. Plasma Application Modeling, POSTECH pi = 4.0*atan(1.0) N = 10000 t = 0.0 dt = 1e-7 Pn = 5.0 Tg = 300.0 ng = 3.25e19*Pn*297/Tg lamda = 1e18/ng alpha = 2e-16 R = 0.07 L = 0.02 hR = 0.80/sqrt(4.0+R/lamda) hL = 0.86/sqrt(3.0+0.5*L/lamda) ideff = 2.0*(R*hL+L*hR)/R*L Pabs0 = 50 Volume = pi*R*R*L e = 1.602e-19 Eiz = 15.6 Eex = 11.6 Eel = 4.085e-5 ne = 1e16 te = 0.1

  5. Plasma Application Modeling, POSTECH do 220 i=1,N write(2,*), t,ne,te print *,'p = ',rPabs(t) call ode(ne,te,dt) t = t+dt print *,'t = ',t,' ne =',ne,' te =',te 220 continue subroutine ode(ne,te,dt) real ne,te,dt real new_ne,new_te,ryp,new_yp real Pabs0,Volume,e,Eiz,Eex,Eel common /input2/ Pabs0,Volume,e,Eiz,Eex,Eel ryp = 3.0/2.0*e*te*ne new_ne = ne + dt*Dn(ne,te) new_yp = ryp + dt*Dte(ne,te) new_te = new_yp/3.0*2.0/new_ne/e ne = ne + 0.5*dt*(Dn(new_ne,new_te) + Dn(ne,te)) ryp = ryp + 0.5*dt*(Dte(new_ne,new_te) + Dte(ne,te)) te = ryp/3.0*2.0/ne/e end function Dn(ne,te) Dn = ne*ng*rKiz(te) - ne*rUb(te)*ideff - alpha*ne*ne return end function Dte(ne,te) Dte = rPabs(t)/Volume - ne*ng*e* & (rKiz(te)*Eiz+rKex(te)*Eex+rKel(te)*Eel) & - ne*rUb(te)*ideff*(7.2*e*te) & - alpha*3.0/2.0*e*te*ne*ne return end

  6. Plasma Application Modeling, POSTECH function rKiz(te) real te rKiz = 2.3e-14*te**0.68*exp(-15.76/te) return end function rKel(te) real te real tt tt = te*te if (te .gt. 4) then rKel=1e-13* (0.399*te-0.0186*tt+0.004672*tt*te-6.429e-6*tt*tt) else rKel=1e-13* (5.14e-3+5.51e-2*te+0.229*tt-.0642*tt*te+.006*tt*tt) endif end function rPabs(t) real t,Tp real Pabs0,Volume,e,Eiz,Eex,Eel common /input2/ Pabs0,Volume,e,Eiz,Eex,Eel if(t .lt. 1e-4) then rPabs = Pabs0 else rPabs = 0 endif C Tp = 1e-2 C pi = 4.0*atan(1.0) C rPabs = 2.0*Pabs0*sin(2.0*pi/Tp*t)*sin(2.0*pi/Tp*t) C Tp = 100e-6 C ifl = t/Tp C if( t-ifl*Tp .gt. 0.2*Tp) then C rPabs = 0.0 C else C rPabs = Pabs0/0.2 C endif C return end function rKex(te) real te rKex = 0.371e-13*exp(-15.06/te)+ (0.06271e-13*exp(-14.27/te)*14.3 + 0.0352e-13*exp(-15.07/te)*14.15+0.009237e-13* exp(-15.66/te)*14.1 + 0.002501e-13*exp(-15.92/te)*14.3)/11.6 return end

  7. Plasma Application Modeling, POSTECH

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