Calculate the Euler method approximation to the solution of the
initial value problem at the given...
Calculate the Euler method approximation to the solution of the
initial value problem at the given x-values. Compare your results
to the exact solution at these x-values.
For the initial-value problem, ?'(?) = ?? sin(5?) , ?(0) =
0.5,
Use the Euler Method with step size
of 0.1 to calculate the approximate solution for the
differential equation for the initial
condition y(0) = 0.5 and plot the result on the
direction
field graph you produced in paragraph
1. Then do the same for the results of using the Euler Method with
step sizes of 0.01 and then
0.005.
For the initial-value problem in paragraph 2 above, ?'(?)...
Use the method of Undetermined Coefficients to find the solution
of the initial value value problem:
y'' + 8y' + 20y = 9cos(2t) - 18e-4t, y(0) = 5. y'(0)
= 0
1) Find the solution of the given initial value problem and
describe the behavior of the solution as t → +∞
y" + 4y' + 3y = 0, y(0) = 2, y'(0) = −1.
2) Find a differential equation whose general solution is
Y=c1e2t + c2e-3t
3) Determine the longest interval in which the given initial
value problem is certain to have a unique twice-differentiable
solution. Do not attempt to find the solution t(t − 4)y" + 3ty' +
4y...
Compute, by Euler’s method, an approximate solution to the
following initial value problem for h = 1/8 : y’ = t − y , y(0) = 2
; y(t) = 3e^(−t) + t − 1 . Find the maximum error over [0, 1]
interval.
Apply Euler's method twice to approximate the solution to the
initial value problem on the interval [0, .5], first with step size
h=0.25, then with step size h= 0.1. Compare the three-decimal place
values of the two approximations at x=.5 with the value of y(.5) of
the actual solution.
y'=y-3x-6, y(0)=8, y(x)=9+3x-ex
a.) The Euler approximation when h=0.25 of y(.5)
is:
b.)The Euler approximation when h=0.1 of y(.5)
is:
In exercises 1–4, verify that the given formula is a solution to
the initial value problem.
2. Powers of t.
b) y ′ = t^3 , y(0) = 5: y(t) = (1/5)t^(4) + 5
3. Sines and cosines.
a) x′ = −y, y′ = x, x(0) = 1, y(0) = 0: x(t) = cost, y(t) =
sint
Determine the unique solution of the given initial value
problem that is valid in any interval not including the singular
point.
4x2
y’’ + 8xy’ + 17y =
0; y(1)
= 2, y’ (1) = 2(31/2 )− 1
please show all steps
Determine the solution of the following initial boundary-value
problem using the method of separation of Variables
Uxx=4Utt 0<x<Pi t>0
U(x,0)=sinx 0<=x<Pi
Ut(x,0)=x 0<=x<Pi
U(0,t)=0 t>=0
U(pi,t)=0 t>=0