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, :6)];%RSCLC [iout_D1,ind_D1]=oled_modeling(Vech,Y1,imaxP,option), %D1 Y2=[parameters(1),0,parameters(3:4),Inf%D1 [iout_D1D2,ind_D1D2]=oled_modeling, p.2
, :)),'pchip');%do not take values <Vi(1) (otherwise non bijectivity of
, );grid on
, 14);ylabel(sprintf('%s \n %s','relative error (%)
, -sb');xlim([Imin Imax]);grid on; set(G6,'LineWidth',3);... xlabel('current density (mA/cm^2), p.14
, 10) xlabel16);ylabel('Fit, J en mA/cm^2','fontsize',16);grid on file23:08] u XIV B.2. matlab main title(filename) set(gcf,'Name','Fit après optimisation');%gcf : get current figure legend('Gross measures','Sampling measures','Initial extraction, 2008.
, title(filename) set(G310);xlabel('Voltage (V)','fontsize',16);... ylabel('Current density J (mA/cm^2)','fontsize',16);grid on set(gcf,'Name','Optimized fitting');%gcf : get current figure legend, SouthEast') h=text(Vi(1),3*Imax
, ,3);grid on
, 14);ylabel(sprintf('%s \n %s','relative error (%)
, -sb');xlim([Imin Imax]);grid on; set(G6,'LineWidth',3);... xlabel('current density (mA/cm^2), p.14
, title(filename) set(G310);xlabel('Voltage (V)','fontsize',16);... ylabel('Current density J (mA/cm^2)','fontsize',16);grid on set(gcf,'Name','Optimized fitting');%gcf : get current figure legend, p.2
, );grid on
, 14);ylabel(sprintf('%s \n %s','relative error (%)
, -sb');xlim([Imin Imax]);grid on; set(G6,'LineWidth',3);... xlabel('current density (mA/cm^2), p.14
, 0,parameters(5:6)]; [iout_D,ind_D]=oled_modeling(Vech,YD,imaxP,option);%Diode [iout_SCLC,ind_SCLC]=oled_modeling(Vech,YSCLC,imaxP,option)
, 5);... grid on;xlim([Imin Imax]);ylim, p.10
, 14);ylabel(sprintf('%s \n %s','relative error (%)
, -sk');xlim([Imin Imax]);grid on; set(G6,'LineWidth',3);... xlabel('current density (mA/cm^2), p.14
, ^lb(3:N)];pmin=pmin';%Vbi excluded (constant) pmax=[10.^ub(1), ^ub, vol.1010103, issue.1
, %s \n %s \n %s','model 1=metal/orga Diode D1 + orga/orga Diode D2 + RSCLC -6 parameters-','model 2 =Vbi + orga/orga Diode D + RSCLC - 5 parameters
, Select the model
, Extraction of metal/orga diode D1 : N1 fixed, Js1~' dispstr(Is1,1)])
, Extraction of orga/orga diode D2 : Js2~' dispstr(Is2,1) ', N2~' dispstr(N2
, Extraction of RSCLC : K~' dispstr(K,1) ', m~' dispstr(m,0)]); paratmp=
, Extraction of built-in voltage : Vbi~' dispstr(Vbi, Model, vol.2
, Extraction of diode D : Js~' dispstr(Is2,1) ', N~' dispstr(N2
, Extraction of RSCLC : K~' dispstr(K,1) ', m~' dispstr(m,0)]); paratmp=
, Extraction of diode D : Is~' dispstr(Is2,1) ', N~' dispstr(N2
, Extraction of RSCLC : K~' dispstr(K,1) ', m~' dispstr(m,0)]); paratmp=
, Calculation in progress...'); c1=clock; V_tmp=Vmes(a12:a32); i_tmp=imes(a12:a32)
, Extraction of the shunt resistance : Rp~' dispstr(Rp
, Extraction of the built-in voltage : Vbi~' dispstr(Vbi
, %Assumption: SCLC negligible here i_D=i_D_tmp-V_D_tmp./Rp; index=find(i_D>=0);i_D=i_D(index(:))
, Extraction of diode (D) : Is~' dispstr(Is,1) ', N~' dispstr
, Extraction of RSCLC : K~' dispstr(K,1) ', m~' dispstr(m
, Calculation in progress...'); c1=clock; V_tmp=Vmes(a1:a4); i_tmp=imes(a1:a4)
, ^(1/m) + (N*kB*T/q)*log(1+ia, Is) + (Ns*kB*T/q)*log
, ^(1/m)+(N*kB*T/q)*log(1+ia./Is)+Vbi;%voltage at the main branch M=, Vmes, vol.1, issue.112
, ^(1/m)+(N*kB*T/q)*log(1+ia
, Vbi,10)Vb=Vb';ib=Vb./Rp; ia=10.^(alpha:0.075:4);%alpha is not pertinent if leakage current is important, ia=ia, issue.0, pp.10-16
, ^(1/m)+(N*kB*T/q)*log(1+ia./Is)+ Vbi; if Rp==Inf M=, Vmes, vol.1, issue.12
, [Vb;Va],[ib;ia]];%good method if iRp<<ia M=sortrows(M,1)
, Vbi-0.15,10);Vbshunt=Vbshunt'; ibshunt=Vbshunt
, 134)Vb=Vb';ib=Vb./Rp; %(Vb,ib) ok ia=10)
, ^(1/m)+(N*kB*T/q)*log(1+ia./Is)+ Vbi; %(Va,ia) ok if Rp==Inf M=, Vmes, vol.1, issue.12