y" – 7y" + 25y – 175y = A fundamental set of solutions of the homogeneous equation is given sec 5t, y(0) = 2, y'(0) = -2, y"(0) = 61. by the functions: Y1(t) = eat, where a = %3D Y2(t) Y3(t) : A particular solution is given by: Y (t) = ds y1(t) to · Y2(t) Therefore the solution of the initial-value problem is: y(t) +Y(t) +

Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
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```markdown
Given the differential equation:

\[ 
y''' - 7y'' + 25y' - 175y = \sec 5t, \quad y(0) = 2, \quad y'(0) = -2, \quad y''(0) = 61. 
\]

A fundamental set of solutions of the homogeneous equation is given by the functions:

\[ 
y_1(t) = e^{at}, \quad \text{where } a = \boxed{\phantom{a}} 
\]

\[ 
y_2(t) = \boxed{\phantom{y_2(t)}} 
\]

\[ 
y_3(t) = \boxed{\phantom{y_3(t)}} 
\]

A particular solution is given by:

\[ 
Y(t) = \int_{t_0}^{t} \boxed{\phantom{\int}} \, ds \cdot y_1(t)
\]

\[ 
\quad \quad + \left(\boxed{\phantom{y_2}}\right) \cdot y_2(t)
\]

\[ 
\quad \quad + \left(\boxed{\phantom{y_3}}\right) \cdot y_3(t)
\]

Therefore, the solution of the initial-value problem is:

\[ 
y(t) = \boxed{\phantom{y(t)}} + Y(t)
\]
```

Note: This text involves a differential equation and requires finding specific functions and constants, denoted by boxes, to solve the equation. The integral represents a particular solution to the non-homogeneous part of the differential equation, and the complete solution combines this with the homogeneous solution.
Transcribed Image Text:```markdown Given the differential equation: \[ y''' - 7y'' + 25y' - 175y = \sec 5t, \quad y(0) = 2, \quad y'(0) = -2, \quad y''(0) = 61. \] A fundamental set of solutions of the homogeneous equation is given by the functions: \[ y_1(t) = e^{at}, \quad \text{where } a = \boxed{\phantom{a}} \] \[ y_2(t) = \boxed{\phantom{y_2(t)}} \] \[ y_3(t) = \boxed{\phantom{y_3(t)}} \] A particular solution is given by: \[ Y(t) = \int_{t_0}^{t} \boxed{\phantom{\int}} \, ds \cdot y_1(t) \] \[ \quad \quad + \left(\boxed{\phantom{y_2}}\right) \cdot y_2(t) \] \[ \quad \quad + \left(\boxed{\phantom{y_3}}\right) \cdot y_3(t) \] Therefore, the solution of the initial-value problem is: \[ y(t) = \boxed{\phantom{y(t)}} + Y(t) \] ``` Note: This text involves a differential equation and requires finding specific functions and constants, denoted by boxes, to solve the equation. The integral represents a particular solution to the non-homogeneous part of the differential equation, and the complete solution combines this with the homogeneous solution.
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