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+clc
+//Example 16.6
+disp('Given')
+disp('Km=20 Kf=50')
+Km=20; Kf=50;
+s=poly(0,'s')
+//From figure 16.20(a)
+C=0.05; L=0.5;
+//Performing magnitude as well as frequency scaling simultaneously
+Cscaled =C/(Km*Kf)
+Lscaled = L*Km/Kf
+printf("Scaled values are \n")
+printf("Cscaled =%d uF \t Lscaled =%d mH \n",Cscaled*10^6,Lscaled*10^3)
+//Converting the Laplace transform of the circuit
+//From figure 16.20(c)
+disp('Vin=V1+0.5s*(1-0.2*V1)')
+disp('V1=20/s')
+//On substituting V1 in equation of Vin
+
+Zin=(s^2-4*s+40)/(2*s)
+disp(Zin,'Zin=')
+//Now we need to scale Zin
+//We will multiply Zin by Km and replace s by s/Kf
+Zinscaled=horner(Km*Zin,s/Kf)
+disp(Zinscaled,'Zinscaled')
+