The method of reduction of order (see the discussion preceding problem 28 in section 4.2 ) can also be used for the nonhomogeneous equation y ' ' + p ( t ) y ' + q ( t ) y = g ( t ) , (i) Provided one of the solution y 1 of the corresponding homogenous equation is known. Let y = v ( t ) y 1 ( t ) and show that y satisfies Eq. (i) if v is a solution of y 1 ( t ) v ' ' + [ 2 y 1 ' ( t ) + p ( t ) y 1 ( t ) ] v ' = g ( t ) . (ii) Equation (ii) is a first order linear equation for v ' . Solving this equation, integrating the result, and then multiplying by y 1 ( t ) lead to the general solution of Eq. (i).
The method of reduction of order (see the discussion preceding problem 28 in section 4.2 ) can also be used for the nonhomogeneous equation y ' ' + p ( t ) y ' + q ( t ) y = g ( t ) , (i) Provided one of the solution y 1 of the corresponding homogenous equation is known. Let y = v ( t ) y 1 ( t ) and show that y satisfies Eq. (i) if v is a solution of y 1 ( t ) v ' ' + [ 2 y 1 ' ( t ) + p ( t ) y 1 ( t ) ] v ' = g ( t ) . (ii) Equation (ii) is a first order linear equation for v ' . Solving this equation, integrating the result, and then multiplying by y 1 ( t ) lead to the general solution of Eq. (i).
The method of reduction of order (see the discussion preceding problem
28
in section
4.2
) can also be used for the nonhomogeneous equation
y
'
'
+
p
(
t
)
y
'
+
q
(
t
)
y
=
g
(
t
)
, (i)
Provided one of the solution
y
1
of the corresponding homogenous equation is known. Let
y
=
v
(
t
)
y
1
(
t
)
and show that
y
satisfies Eq. (i) if
v
is a solution of
y
1
(
t
)
v
'
'
+
[
2
y
1
'
(
t
)
+
p
(
t
)
y
1
(
t
)
]
v
'
=
g
(
t
)
. (ii)
Equation (ii) is a first order linear equation for
v
'
. Solving this equation, integrating the result, and then multiplying by
y
1
(
t
)
lead to the general solution of Eq. (i).
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