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The solution to the initial value problemdydx+yx=x3y2,y(1)=3has a vertical asymptote (“blows up”) at some point in the interval [1,2]By experimenting with the improved Euler’s method subroutine, determine this point to two decimal places.

Short Answer

Expert verified

The solution on the given conditions and on the interval (“blows up”) at x = 1.26.

Step by step solution

01

Find the equation of approximation value

Heredydx+yx=x3y2,y(1)=3,

For, xo=1,yo=3,M = 280, h = 0.005, interval =1,2

F=f(x,y)=x3y2-yxG=f(x+h,y+hF)=(x+0.005)3y+0.005x3y2-yx2-y+0.005x3y2-yxx+0.005

02

Solve for x and y

Apply initial points x=0,y=3,h=0.005

F(1,3)=6G(1,3)=6.030x=(xo+h)y=yo+h2(F+G)x=0.005y=3

03

Determine the all-other values

Apply the same procedure for all other values and the values are

(x = 1.261, y = 2197….)

(x = 1.262, y = 11800…)

Hence, the solution on the given conditions and on the interval cross x-axis at x = 1.26.

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