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diff --git a/3554/CH10/EX10.1/Ex10_1.sce b/3554/CH10/EX10.1/Ex10_1.sce
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+// Exa 10.1
+
+clc;
+clear all;
+
+// Given data
+
+// 1st measurement
+f1=1; //  in MHZ
+C1=500; // in pf
+// 2nd measurement
+f2=2; //in MHz
+C2=110; // in pf
+
+// Solution
+// Using equation 10.2(page no. 278) to calculate distributed Capacitance
+
+Cs=(C1-4*C2)/3; // Distributed capacitance in pf
+printf('The value of distributed capacitance = %d pf \n',Cs);
+// using equation of resonant frequency given as f1=1/(2*%pi*sqrt(L*(C1+Cs));
+// Therefore
+L=1/(4*(%pi)^2*f1^2*(C1+Cs)); // Inductor value
+
+printf(' The value of L(inductor) is =%.3f micro H \n',L*10^6); 
diff --git a/3554/CH10/EX10.2/Ex10_2.sce b/3554/CH10/EX10.2/Ex10_2.sce
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+// Exa 10.2
+
+clc;
+clear all;
+
+// Given data
+
+f1=2; // in MHz
+f2=6; // in MHz
+C1=500; // in pf
+C2=50; // in pf
+
+// Solution
+
+disp("Given that f2=3*f1");
+disp("Therefore by using equation 10.1");
+disp(" 1/(2*%pi*sqrt(L*(C2+Cs)) = 3/(2*%pi*sqrt(L*(C1+Cs))");
+disp("Therefore");
+disp("C1+Cs=9(C2+Cs)");
+//Therefore Cs is given as
+Cs=(C1-9*C2)/8;// Self capacitance in pf
+printf(' \nThe value of the self capacitance is = %.2f pf \n', Cs);
+
+