Question

In: Civil Engineering

I. Solve the homogeneous differential equations with the constant coefficient. a. ? ′′ + 5? ′...

I. Solve the homogeneous differential equations with the constant coefficient.

a. ? ′′ + 5? ′ + 6? = 0

b. 4? ′′ − 8? ′ + 3? = 0 ? (0) = 2, ? ′ (0) = ½

 II. Solve non-homogeneous differential equations with the indeterminate coefficient method.

a. ?′′ − 3? ′ = 5cos(?)

b. ? ′ ′ + 5? ′ + 2? ′ = 7? 3?

III. Solve non-homogeneous differential equations with the parameter variation method.

a. ? ′′ − 2? ′ + 3? = ? 2? ? 2

b. ? ′′ − ? = 3??(?)

IV. Solve non-homogeneous differential equations by the operator’s method.

a. 3? ′′ + 3? ′ + ? = √?? −?

b. 6? ′′ − 2? ′ + ? = ? 2

Solutions

Expert Solution

The complete solution of given equation is Y=CF+PI

Here CF = Complementary fumction

PI = particular integral

for given equation is homogenious the solution is CF Only PI is zero.

to find complementary function find roots for the equations as like below

as like that the question B) also done as below

for homogenious functions just find roots followed by complementary function. complementary function may change according to roots are obtain as like below table

FOR NON-HOMOGENIOUS FUNCTION THEY ARE MANY WAYS TO SOLVE QUESTION  ACCORDING TO FUNCTION PRESENT IN THE QUESTION AS BELOW TREE-DIAGRAM

BY THE ABOVE PROCEDURE WE CAN ANSWER ALL THE QUESTIONS BUT I DIDN'T HAVE TIME TO DO SOLUTION FOR EACH AND EVERY QUESTION SO I WAS ANSWERED TWO QUESTIONS AND THE PROCEDURE FOR ALL REMAINING QUESTIONS.

EVEN YOU HAVE ANY QUESTIONS COMMENT I WILL REPLY.


Related Solutions

Solve the following constant coefficient linear differential equations using Laplace Transform (LT), Partial Fraction Expansion (PFE),...
Solve the following constant coefficient linear differential equations using Laplace Transform (LT), Partial Fraction Expansion (PFE), and Inverse Laplace Transform (ILT). You must check answers in the t-domain using the initial conditions. Note: Complex conjugate roots y ̈ (t) + 6 ̇y (t) + 13y (t) = 2 use the initial conditions y(0) = 3, ̇y(0) = 2.
"Brief Discuss Homogeneous Differential Equations." This is the presentation topic of my Subject Differential Equation
"Brief Discuss Homogeneous Differential Equations." This is the presentation topic of my Subject Differential Equation
Hello, I have a question about the heat equation with Non-homogeneous Boundary Conditions in Differential Equations....
Hello, I have a question about the heat equation with Non-homogeneous Boundary Conditions in Differential Equations. u_t = 4u_xx u(0, t) = 2 u_x(3, t) = 0 u(x, 0) = x. If available, could you explain the solution in detail? Thank you.
"Brief Discuss Homogeneous Differential Equations." This is the presentation topic of my Subject Differential Equation. Explain...
"Brief Discuss Homogeneous Differential Equations." This is the presentation topic of my Subject Differential Equation. Explain in a simple way
Suppose that the coefficient matrix of a homogeneous system of equations has a column of zeros....
Suppose that the coefficient matrix of a homogeneous system of equations has a column of zeros. Prove that the system has infinitely many solutions. What are the possibilities for the number of solutions to a linear system of equations? Can you definitively rule out any of these?
Question 4: Homogeneous Second Order Differential equation Solve the following equation for the particular solution. i....
Question 4: Homogeneous Second Order Differential equation Solve the following equation for the particular solution. i. 2?′′ + 5?′ + 3? = 0; ?(0)=3, ?′(0)=−4 ii. 4 (?2?/??2) + 8 (??/??) + 3y = 0 ?(0)=1, ?′(0)=2 iii. ?′′ + 6?′ + 13? = 0; ?(0)=2, ?′(0)=1
Solve the given system of differential equations. ??/?? = ? + 4? ??/?? = ? +...
Solve the given system of differential equations. ??/?? = ? + 4? ??/?? = ? + y
In Exercises 5–37, solve the given differential equations by Laplace transforms. The function is subject to...
In Exercises 5–37, solve the given differential equations by Laplace transforms. The function is subject to the given conditions. 13. 4y″ + 4y′ + 5y = 0, y(0) = 1, y′(0) = -1/2 17. y″ + y = 1, y(0) = 1, y′(0) = 1
Solve the homogeneous differential eqation (1) for the radio circuit. Show that these terms will dissipate...
Solve the homogeneous differential eqation (1) for the radio circuit. Show that these terms will dissipate quickly, leaving only the particular solution. The equation is a second-order differential equation with L=1/30 henrys, R=100 ohms and C in farads can vary as needed to tune to various input frequencies omega
This is a question about Ordinary Differential Equations. For solving linear differential equations, I have seen...
This is a question about Ordinary Differential Equations. For solving linear differential equations, I have seen people use the method of integrating factors and the method of variation of parameters. Is it true that either of these 2 methods can be used to solve any linear differential equation? If so, could you show me an example where a linear differential equation is solved using both of these methods. If not, could you explain using examples as to why this is...
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT