Deck 13: The Laplace Transform

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Find F ( s ) if
Find F ( s ) if  <div style=padding-top: 35px>
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Question
Find the Laplace transform of the function f ( t ) = te at sin ( t ) ( t 4).
Question
Given the following functions F ( s ), find the inverse Laplace transform of each function.
(a)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)   (c)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)   (c)  <div style=padding-top: 35px>
(c)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)   (c)  <div style=padding-top: 35px>
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Find the inverse Laplace transform of the function F ( s ) using the convolution integral.
Find the inverse Laplace transform of the function F ( s ) using the convolution integral.  <div style=padding-top: 35px>
Question
The switch in the circuit in Fig. P13.63 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0, using Laplace transforms.
The switch in the circuit in Fig. P13.63 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0, using Laplace transforms.   Figure P13.63<div style=padding-top: 35px>
Figure P13.63
Question
The Laplace transform function for the output voltage of a network is expressed in the following form:
The Laplace transform function for the output voltage of a network is expressed in the following form:   Determine the value of this voltage; that is, v o ( t ) at t a. 6 V b. 2 V c. 12 V d. 4 V<div style=padding-top: 35px>
Determine the value of this voltage; that is, v o ( t ) at t
a. 6 V
b. 2 V
c. 12 V
d. 4 V
Question
Given
Given   find f ( t ).<div style=padding-top: 35px> find f ( t ).
Question
In the circuit in Fig. E3.18, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.
In the circuit in Fig. E3.18, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.   Figure E3.18<div style=padding-top: 35px>
Figure E3.18
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Find f ( t ) using the convolution integral if
Find f ( t ) using the convolution integral if  <div style=padding-top: 35px>
Question
The switch in the circuit in Fig. P13.64 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.
The switch in the circuit in Fig. P13.64 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.   Figure P13.64<div style=padding-top: 35px>
Figure P13.64
Question
Use the time-shifting theorem to determine [ f ( t )], where f ( t ) = [e ( t 2) e 2( t 2) ] u ( t 2).
Question
Find F ( s ) if f ( t ) = e at sin t u(t 1).
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(c)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(d)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Find f ( t ) using convolution if F ( s ) is
Find f ( t ) using convolution if F ( s ) is  <div style=padding-top: 35px>
Question
The switch in the circuit in Fig. P13.65 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.
The switch in the circuit in Fig. P13.65 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.   Figure P13.65<div style=padding-top: 35px>
Figure P13.65
Question
If f ( t ) = te ( t 1) u ( t 1) e ( t 1) u ( t 1), determine F ( s ) using the time-shifting theorem.
Question
Determine f ( t ) if F ( s ) = s /( s + 1) 2.
Question
In the circuit in Fig. E3.19, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.
In the circuit in Fig. E3.19, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.   Figure E3.19<div style=padding-top: 35px>
Figure E3.19
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Find f ( t ) using convolution if F ( s ) is
(a)
Find f ( t ) using convolution if F ( s ) is (a)   (b)  <div style=padding-top: 35px>
(b)
Find f ( t ) using convolution if F ( s ) is (a)   (b)  <div style=padding-top: 35px>
Question
In the circuit shown in Fig. P13.66, switch action occurs at t = 0. Determine the voltage u 0 (t), t 0 using Laplace transforms.
In the circuit shown in Fig. P13.66, switch action occurs at t = 0. Determine the voltage u 0 (t), t 0 using Laplace transforms.   Figure P13.66<div style=padding-top: 35px>
Figure P13.66
Question
The output of a network is expressed as
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.  <div style=padding-top: 35px>
Determine the output as a function of time.
a.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.  <div style=padding-top: 35px>
b.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.  <div style=padding-top: 35px>
c.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.  <div style=padding-top: 35px>
d.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.  <div style=padding-top: 35px>
Question
Find F ( s ) if f ( t ) = te at u ( t 4).
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(c)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(d)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
Question
Find the inverse Laplace transform of the following functions.
(a)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)  <div style=padding-top: 35px>
(b)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)  <div style=padding-top: 35px>
(c)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)  <div style=padding-top: 35px>
Question
Find the initial and final values of f ( t ) if F ( s ) is given as
(a)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
(b)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
(c)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
Question
Use property number 7 to find [ f ( t )] if f ( t ) = t e at u ( t 1).
Question
If F ( s ) = ( s + 2)/ s 2 ( s + 1), find f ( t ).
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Find f ( t ) if F ( s ) is given by the following functions:
(a)
Find f ( t ) if F ( s ) is given by the following functions: (a)   (b)   (c)  <div style=padding-top: 35px>
(b)
Find f ( t ) if F ( s ) is given by the following functions: (a)   (b)   (c)  <div style=padding-top: 35px>
(c)
Find f ( t ) if F ( s ) is given by the following functions: (a)   (b)   (c)  <div style=padding-top: 35px>
Question
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions
(a)
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions (a)   (b)   (c)  <div style=padding-top: 35px>
(b)
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions (a)   (b)   (c)  <div style=padding-top: 35px>
(c)
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions (a)   (b)   (c)  <div style=padding-top: 35px>
Question
Find F ( s ) if f ( t ) = e 4 t ( t e t ).
Question
Use the results of property 3 and the fact that if f ( t ) = e t sin t , then F ( s ) = 1/( s + 1) 2 + 1 to find the Laplace transform of f ( t ) = e 2 t sin 2 t.
Question
Given the following functions F ( s ), find the inverse Laplace transform of each function.
(a)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)  <div style=padding-top: 35px>
Question
Find the inverse Laplace transform of the following functions.
(a)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(b)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(c)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
(d)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)  <div style=padding-top: 35px>
Question
Find the final values of the time function f ( t ) given that
(a)
Find the final values of the time function f ( t ) given that (a)   (b)  <div style=padding-top: 35px>
(b)
Find the final values of the time function f ( t ) given that (a)   (b)  <div style=padding-top: 35px>
Question
Solve the following differential equation using Laplace transforms:
Solve the following differential equation using Laplace transforms:   a. [ 2 e 2 t + e 4 t 3e 3t ] u ( t ) b. [ 3 e 2t + e 4 t + e 3 t ] u ( t ) c. [ e 2t + e 4 t 2 e 3 t ] u ( t ) d. [ 4 e 2t e 4 2 e 3 t ] u ( t )<div style=padding-top: 35px>
a. [ 2 e 2 t + e 4 t 3e 3t ] u ( t )
b. [ 3 e 2t + e 4 t + e 3 t ] u ( t )
c. [ e 2t + e 4 t 2 e 3 t ] u ( t )
d. [ 4 e 2t e 4 2 e 3 t ] u ( t )
Question
Given
Given   find f ( t ).<div style=padding-top: 35px> find f ( t ).
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Find f ( t ) if F ( s ) is given by the following function:
Find f ( t ) if F ( s ) is given by the following function:   .<div style=padding-top: 35px> .
Question
Find the final values of the time function f ( t ) given that
(a)
Find the final values of the time function f ( t ) given that (a)   (b)  <div style=padding-top: 35px>
(b)
Find the final values of the time function f ( t ) given that (a)   (b)  <div style=padding-top: 35px>
Question
Use property number 5 to find [ f ( t )] if f ( t ) = e at u ( t 1).
Question
Find [ f ( t )] if f ( t ) = t 2 e at ( t 2).
Question
Find f ( t ) if F ( s ) is given by the expression.
Find f ( t ) if F ( s ) is given by the expression.   .<div style=padding-top: 35px> .
Question
Find the inverse Laplace transform of the function
Find the inverse Laplace transform of the function   .<div style=padding-top: 35px> .
Question
Find the initial and final values of the time function f ( t ) if F ( s ) is given as
(a)
Find the initial and final values of the time function f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
(b)
Find the initial and final values of the time function f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
(c)
Find the initial and final values of the time function f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
Question
Find f ( t ) if F ( s ) = 10( s + 6)/ s ( s + 1)( s + 3).
Question
Find the initial and final values of the function f ( t ) if F ( s ) = is given by the expression
Find the initial and final values of the function f ( t ) if F ( s ) = is given by the expression  <div style=padding-top: 35px>
Question
Find the inverse Laplace transform of F ( s ) where
Find the inverse Laplace transform of F ( s ) where   .<div style=padding-top: 35px> .
Question
Find f ( t ) if F ( s ) is given by the expression
Find f ( t ) if F ( s ) is given by the expression   .<div style=padding-top: 35px> .
Question
Find the initial and final values of f ( t ) if F ( s ) is given as
(a)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
(b)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
(c)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)  <div style=padding-top: 35px>
Question
If f ( t ) = e at , show that F ( s ) = 1/( s + a ).
Question
Find the Laplace transform of the function f ( t ) = e at ( t 1).
Question
If f ( t ) = t sin ( t ) u ( t 1), find F ( s ).
Question
Find the inverse Laplace transform of the function
Find the inverse Laplace transform of the function   .<div style=padding-top: 35px> .
Question
Use Laplace transforms to solve the following differential equations.
(a)
Use Laplace transforms to solve the following differential equations. (a)   (b)  <div style=padding-top: 35px>
(b)
Use Laplace transforms to solve the following differential equations. (a)   (b)  <div style=padding-top: 35px>
Question
In the network in Fig. P13.57, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.
In the network in Fig. P13.57, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.   Figure P13.57<div style=padding-top: 35px>
Figure P13.57
Question
The output function of a network is expressed using Laplace transforms in the following form:
The output function of a network is expressed using Laplace transforms in the following form:   Find the output v o ( t ) as a function of time. a. [ 12 + 3 e 2 t + 4 e t ] u ( t ) V b. [ 2 + 4 e 2 t + 8 e t ] u ( t )V c. [ 6 + 6 e 2 t 12 e t ] u ( t ) V d. [ 3 + 2 e 2 t 6 e t ] u ( t )V<div style=padding-top: 35px>
Find the output v o ( t ) as a function of time.
a. [ 12 + 3 e 2 t + 4 e t ] u ( t ) V
b. [ 2 + 4 e 2 t + 8 e t ] u ( t )V
c. [ 6 + 6 e 2 t 12 e t ] u ( t ) V
d. [ 3 + 2 e 2 t 6 e t ] u ( t )V
Question
If F ( s ) = 12( s + 2)/ s ( s + 1), find f ( t ).
Question
Find the initial and final values of the time function f ( t ) if
Find the initial and final values of the time function f ( t ) if  <div style=padding-top: 35px>
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Solve the following integrodifferential equation using Laplace transforms.
Solve the following integrodifferential equation using Laplace transforms.   t 0<div style=padding-top: 35px> t 0
Question
In the circuit in Fig. P13.58, the switch moves from position 1 to position 2 at t = 0. Use Laplace transforms to find v ( t ) for t 0.
In the circuit in Fig. P13.58, the switch moves from position 1 to position 2 at t = 0. Use Laplace transforms to find v ( t ) for t 0.   Figure P13.58<div style=padding-top: 35px>
Figure P13.58
Question
Use the time-shifting theorem to determine [ f ( t )] where f ( t )=[ t 1 + e ( t 1) ] u ( t 1).
Question
If f ( t ) = e at sin t, show that
If f ( t ) = e at sin t, show that  <div style=padding-top: 35px>
Question
If F ( s ) = ( s + 1) 2 ( s + 3) 2 /( s + 2)( s + 4), find f ( t ).
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Solve the following integrodifferential equation using Laplace transforms.
Solve the following integrodifferential equation using Laplace transforms.   , y(0) = 0, t 0<div style=padding-top: 35px> , y(0) = 0, t 0
Question
In the network in Fig. P13.59, the switch opens at t = 0. Use Laplace transforms to find i ( t) for t 0.
In the network in Fig. P13.59, the switch opens at t = 0. Use Laplace transforms to find i ( t) for t 0.   Figure P13.59<div style=padding-top: 35px>
Figure P13.59
Question
If f ( t ) = sin t, show that F ( s ) = /( s 2 + 2 ).
Question
Given
Given   , find f ( t ).<div style=padding-top: 35px> , find f ( t ).
Question
Use the Laplace transform to find y ( t ) if
Use the Laplace transform to find y ( t ) if  <div style=padding-top: 35px>
Question
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)  <div style=padding-top: 35px>
Question
Solve the following differential equations using Laplace transforms.
(a)
Solve the following differential equations using Laplace transforms. (a)   (b)  <div style=padding-top: 35px>
(b)
Solve the following differential equations using Laplace transforms. (a)   (b)  <div style=padding-top: 35px>
Question
In the network in Fig. P13.60, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.
In the network in Fig. P13.60, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.   Figure P13.60<div style=padding-top: 35px>
Figure P13.60
Question
The Laplace transform function representing the output voltage of a network is expressed as
The Laplace transform function representing the output voltage of a network is expressed as   Determine the value of v o ( t ) at t = 100 ms. a. 0.64 V b. 0.45 V c. 0.33 V d. 0.24 V<div style=padding-top: 35px>
Determine the value of v o ( t ) at t = 100 ms.
a. 0.64 V
b. 0.45 V
c. 0.33 V
d. 0.24 V
Question
If f(t) = e at , show that F ( s ) =
If f(t) = e at , show that F ( s ) =  <div style=padding-top: 35px>
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Deck 13: The Laplace Transform
1
Find F ( s ) if
Find F ( s ) if
Consider the function.
Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . Consider the formula for Laplace transform.
Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . Substitute
Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . for
Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . .
Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . Therefore, the Laplace transform of the function
Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . is
Consider the function.   Consider the formula for Laplace transform.   Substitute   for   .       Therefore, the Laplace transform of the function   is   . .
2
Find the Laplace transform of the function f ( t ) = te at sin ( t ) ( t 4).
Write the expression of the Laplace transform of
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . .
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . Substitute
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . for
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . .
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . Simplify further.
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . Thus, the Laplace transform of
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . is
Write the expression of the Laplace transform of   .   Substitute   for   .   Simplify further.   Thus, the Laplace transform of   is   . .
3
Given the following functions F ( s ), find the inverse Laplace transform of each function.
(a)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)   (c)
(b)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)   (c)
(c)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)   (c)
(a)
Consider the following function:
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  The function
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Express
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  in a partial fraction expansion.
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Calculate the value of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  .
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Calculate the value of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  .
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  The partial fraction expansion of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is,
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Now apply inverse Laplace transforms on both sides.
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Therefore, the function
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is,
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  (b)
Consider the following function:
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  The function
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Express
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  in a partial fraction expansion.
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Calculate the value of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  .
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Calculate the value of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  .
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  The partial fraction expansion of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is,
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Now apply inverse Laplace transforms on both sides.
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Therefore, the function
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is,
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  (c)
Consider the following function:
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  The function
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Express
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  in a partial fraction expansion.
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Calculate the value of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  .
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Calculate the value of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  .
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Calculate the value of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  .
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  The partial fraction expansion of
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is,
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Now apply inverse Laplace transforms on both sides.
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  Therefore, the function
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,  is,
(a) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (b) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,   (c) Consider the following function:   The function   is   Express   in a partial fraction expansion.   Calculate the value of   .   Calculate the value of   .   Calculate the value of   .   The partial fraction expansion of   is,   Now apply inverse Laplace transforms on both sides.   Therefore, the function   is,
4
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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5
Find the inverse Laplace transform of the function F ( s ) using the convolution integral.
Find the inverse Laplace transform of the function F ( s ) using the convolution integral.
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6
The switch in the circuit in Fig. P13.63 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0, using Laplace transforms.
The switch in the circuit in Fig. P13.63 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0, using Laplace transforms.   Figure P13.63
Figure P13.63
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7
The Laplace transform function for the output voltage of a network is expressed in the following form:
The Laplace transform function for the output voltage of a network is expressed in the following form:   Determine the value of this voltage; that is, v o ( t ) at t a. 6 V b. 2 V c. 12 V d. 4 V
Determine the value of this voltage; that is, v o ( t ) at t
a. 6 V
b. 2 V
c. 12 V
d. 4 V
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8
Given
Given   find f ( t ). find f ( t ).
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9
In the circuit in Fig. E3.18, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.
In the circuit in Fig. E3.18, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.   Figure E3.18
Figure E3.18
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10
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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11
Find f ( t ) using the convolution integral if
Find f ( t ) using the convolution integral if
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12
The switch in the circuit in Fig. P13.64 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.
The switch in the circuit in Fig. P13.64 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.   Figure P13.64
Figure P13.64
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13
Use the time-shifting theorem to determine [ f ( t )], where f ( t ) = [e ( t 2) e 2( t 2) ] u ( t 2).
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14
Find F ( s ) if f ( t ) = e at sin t u(t 1).
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15
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
(c)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
(d)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
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16
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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17
Find f ( t ) using convolution if F ( s ) is
Find f ( t ) using convolution if F ( s ) is
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18
The switch in the circuit in Fig. P13.65 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.
The switch in the circuit in Fig. P13.65 has been closed for a long time and is opened at t = 0. Find i ( t ) for t 0 using Laplace transforms.   Figure P13.65
Figure P13.65
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19
If f ( t ) = te ( t 1) u ( t 1) e ( t 1) u ( t 1), determine F ( s ) using the time-shifting theorem.
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20
Determine f ( t ) if F ( s ) = s /( s + 1) 2.
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21
In the circuit in Fig. E3.19, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.
In the circuit in Fig. E3.19, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.   Figure E3.19
Figure E3.19
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22
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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23
Find f ( t ) using convolution if F ( s ) is
(a)
Find f ( t ) using convolution if F ( s ) is (a)   (b)
(b)
Find f ( t ) using convolution if F ( s ) is (a)   (b)
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24
In the circuit shown in Fig. P13.66, switch action occurs at t = 0. Determine the voltage u 0 (t), t 0 using Laplace transforms.
In the circuit shown in Fig. P13.66, switch action occurs at t = 0. Determine the voltage u 0 (t), t 0 using Laplace transforms.   Figure P13.66
Figure P13.66
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25
The output of a network is expressed as
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.
Determine the output as a function of time.
a.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.
b.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.
c.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.
d.
The output of a network is expressed as   Determine the output as a function of time. a.   b.   c.   d.
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26
Find F ( s ) if f ( t ) = te at u ( t 4).
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27
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
(c)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
(d)
Given the following functions F ( s ), find f ( t ). (a)   (b)   (c)   (d)
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28
Find the inverse Laplace transform of the following functions.
(a)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)
(b)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)
(c)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)
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29
Find the initial and final values of f ( t ) if F ( s ) is given as
(a)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)
(b)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)
(c)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)
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30
Use property number 7 to find [ f ( t )] if f ( t ) = t e at u ( t 1).
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31
If F ( s ) = ( s + 2)/ s 2 ( s + 1), find f ( t ).
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32
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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33
Find f ( t ) if F ( s ) is given by the following functions:
(a)
Find f ( t ) if F ( s ) is given by the following functions: (a)   (b)   (c)
(b)
Find f ( t ) if F ( s ) is given by the following functions: (a)   (b)   (c)
(c)
Find f ( t ) if F ( s ) is given by the following functions: (a)   (b)   (c)
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34
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions
(a)
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions (a)   (b)   (c)
(b)
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions (a)   (b)   (c)
(c)
Determine the initial and final values of f ( t ) if F ( s ) is given by the expressions (a)   (b)   (c)
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35
Find F ( s ) if f ( t ) = e 4 t ( t e t ).
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36
Use the results of property 3 and the fact that if f ( t ) = e t sin t , then F ( s ) = 1/( s + 1) 2 + 1 to find the Laplace transform of f ( t ) = e 2 t sin 2 t.
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37
Given the following functions F ( s ), find the inverse Laplace transform of each function.
(a)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)
(b)
Given the following functions F ( s ), find the inverse Laplace transform of each function. (a)   (b)
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38
Find the inverse Laplace transform of the following functions.
(a)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)
(b)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)
(c)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)
(d)
Find the inverse Laplace transform of the following functions. (a)   (b)   (c)   (d)
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39
Find the final values of the time function f ( t ) given that
(a)
Find the final values of the time function f ( t ) given that (a)   (b)
(b)
Find the final values of the time function f ( t ) given that (a)   (b)
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40
Solve the following differential equation using Laplace transforms:
Solve the following differential equation using Laplace transforms:   a. [ 2 e 2 t + e 4 t 3e 3t ] u ( t ) b. [ 3 e 2t + e 4 t + e 3 t ] u ( t ) c. [ e 2t + e 4 t 2 e 3 t ] u ( t ) d. [ 4 e 2t e 4 2 e 3 t ] u ( t )
a. [ 2 e 2 t + e 4 t 3e 3t ] u ( t )
b. [ 3 e 2t + e 4 t + e 3 t ] u ( t )
c. [ e 2t + e 4 t 2 e 3 t ] u ( t )
d. [ 4 e 2t e 4 2 e 3 t ] u ( t )
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41
Given
Given   find f ( t ). find f ( t ).
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42
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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43
Find f ( t ) if F ( s ) is given by the following function:
Find f ( t ) if F ( s ) is given by the following function:   . .
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44
Find the final values of the time function f ( t ) given that
(a)
Find the final values of the time function f ( t ) given that (a)   (b)
(b)
Find the final values of the time function f ( t ) given that (a)   (b)
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45
Use property number 5 to find [ f ( t )] if f ( t ) = e at u ( t 1).
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46
Find [ f ( t )] if f ( t ) = t 2 e at ( t 2).
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47
Find f ( t ) if F ( s ) is given by the expression.
Find f ( t ) if F ( s ) is given by the expression.   . .
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48
Find the inverse Laplace transform of the function
Find the inverse Laplace transform of the function   . .
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49
Find the initial and final values of the time function f ( t ) if F ( s ) is given as
(a)
Find the initial and final values of the time function f ( t ) if F ( s ) is given as (a)   (b)   (c)
(b)
Find the initial and final values of the time function f ( t ) if F ( s ) is given as (a)   (b)   (c)
(c)
Find the initial and final values of the time function f ( t ) if F ( s ) is given as (a)   (b)   (c)
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50
Find f ( t ) if F ( s ) = 10( s + 6)/ s ( s + 1)( s + 3).
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51
Find the initial and final values of the function f ( t ) if F ( s ) = is given by the expression
Find the initial and final values of the function f ( t ) if F ( s ) = is given by the expression
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52
Find the inverse Laplace transform of F ( s ) where
Find the inverse Laplace transform of F ( s ) where   . .
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53
Find f ( t ) if F ( s ) is given by the expression
Find f ( t ) if F ( s ) is given by the expression   . .
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54
Find the initial and final values of f ( t ) if F ( s ) is given as
(a)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)
(b)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)
(c)
Find the initial and final values of f ( t ) if F ( s ) is given as (a)   (b)   (c)
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55
If f ( t ) = e at , show that F ( s ) = 1/( s + a ).
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56
Find the Laplace transform of the function f ( t ) = e at ( t 1).
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57
If f ( t ) = t sin ( t ) u ( t 1), find F ( s ).
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58
Find the inverse Laplace transform of the function
Find the inverse Laplace transform of the function   . .
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59
Use Laplace transforms to solve the following differential equations.
(a)
Use Laplace transforms to solve the following differential equations. (a)   (b)
(b)
Use Laplace transforms to solve the following differential equations. (a)   (b)
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60
In the network in Fig. P13.57, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.
In the network in Fig. P13.57, the switch opens at t = 0. Use Laplace transforms to find v o ( t ) for t 0.   Figure P13.57
Figure P13.57
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61
The output function of a network is expressed using Laplace transforms in the following form:
The output function of a network is expressed using Laplace transforms in the following form:   Find the output v o ( t ) as a function of time. a. [ 12 + 3 e 2 t + 4 e t ] u ( t ) V b. [ 2 + 4 e 2 t + 8 e t ] u ( t )V c. [ 6 + 6 e 2 t 12 e t ] u ( t ) V d. [ 3 + 2 e 2 t 6 e t ] u ( t )V
Find the output v o ( t ) as a function of time.
a. [ 12 + 3 e 2 t + 4 e t ] u ( t ) V
b. [ 2 + 4 e 2 t + 8 e t ] u ( t )V
c. [ 6 + 6 e 2 t 12 e t ] u ( t ) V
d. [ 3 + 2 e 2 t 6 e t ] u ( t )V
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62
If F ( s ) = 12( s + 2)/ s ( s + 1), find f ( t ).
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63
Find the initial and final values of the time function f ( t ) if
Find the initial and final values of the time function f ( t ) if
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64
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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65
Solve the following integrodifferential equation using Laplace transforms.
Solve the following integrodifferential equation using Laplace transforms.   t 0 t 0
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66
In the circuit in Fig. P13.58, the switch moves from position 1 to position 2 at t = 0. Use Laplace transforms to find v ( t ) for t 0.
In the circuit in Fig. P13.58, the switch moves from position 1 to position 2 at t = 0. Use Laplace transforms to find v ( t ) for t 0.   Figure P13.58
Figure P13.58
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67
Use the time-shifting theorem to determine [ f ( t )] where f ( t )=[ t 1 + e ( t 1) ] u ( t 1).
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68
If f ( t ) = e at sin t, show that
If f ( t ) = e at sin t, show that
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69
If F ( s ) = ( s + 1) 2 ( s + 3) 2 /( s + 2)( s + 4), find f ( t ).
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70
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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71
Solve the following integrodifferential equation using Laplace transforms.
Solve the following integrodifferential equation using Laplace transforms.   , y(0) = 0, t 0 , y(0) = 0, t 0
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72
In the network in Fig. P13.59, the switch opens at t = 0. Use Laplace transforms to find i ( t) for t 0.
In the network in Fig. P13.59, the switch opens at t = 0. Use Laplace transforms to find i ( t) for t 0.   Figure P13.59
Figure P13.59
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73
If f ( t ) = sin t, show that F ( s ) = /( s 2 + 2 ).
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74
Given
Given   , find f ( t ). , find f ( t ).
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75
Use the Laplace transform to find y ( t ) if
Use the Laplace transform to find y ( t ) if
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76
Given the following functions F ( s ), find f ( t ).
(a)
Given the following functions F ( s ), find f ( t ). (a)   (b)
(b)
Given the following functions F ( s ), find f ( t ). (a)   (b)
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77
Solve the following differential equations using Laplace transforms.
(a)
Solve the following differential equations using Laplace transforms. (a)   (b)
(b)
Solve the following differential equations using Laplace transforms. (a)   (b)
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78
In the network in Fig. P13.60, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.
In the network in Fig. P13.60, the switch opens at t = 0. Use Laplace transforms to find i ( t ) for t 0.   Figure P13.60
Figure P13.60
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79
The Laplace transform function representing the output voltage of a network is expressed as
The Laplace transform function representing the output voltage of a network is expressed as   Determine the value of v o ( t ) at t = 100 ms. a. 0.64 V b. 0.45 V c. 0.33 V d. 0.24 V
Determine the value of v o ( t ) at t = 100 ms.
a. 0.64 V
b. 0.45 V
c. 0.33 V
d. 0.24 V
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80
If f(t) = e at , show that F ( s ) =
If f(t) = e at , show that F ( s ) =
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