Example B The equation z(k+1, l) = 42(k, l+ 1) (5.84) leads to the conclusion that A = 4µ. Therefore, equation (5.84) has the special solutions 2(k, l) = 4*µk+e. (5.85) Summing expressions of this form allows the conclusion z(k, l) = 4* f(k + l), (5.86) where f is an arbitrary function of k + l. The separation-of-variables method, where zp(k, l) = CkDe, gives Ck+1De = 4CkDe+1; (5.87) which can be written in either of the forms Ck+1 De+1 Ck+1 or 4De+1 = a. (5.88) 4С = a De Ck De The respective solutions to these equations give z(k, l) = 4*ak+l or z(k, l) = 4-ak+e. (5.89) Summing over a allows us to obtain the general solution z(k, l) = 4* f (k + l) or z(k,l) = 4 g(k, l), (5.90) where f and g are arbitrary functions of k + l.
Example B The equation z(k+1, l) = 42(k, l+ 1) (5.84) leads to the conclusion that A = 4µ. Therefore, equation (5.84) has the special solutions 2(k, l) = 4*µk+e. (5.85) Summing expressions of this form allows the conclusion z(k, l) = 4* f(k + l), (5.86) where f is an arbitrary function of k + l. The separation-of-variables method, where zp(k, l) = CkDe, gives Ck+1De = 4CkDe+1; (5.87) which can be written in either of the forms Ck+1 De+1 Ck+1 or 4De+1 = a. (5.88) 4С = a De Ck De The respective solutions to these equations give z(k, l) = 4*ak+l or z(k, l) = 4-ak+e. (5.89) Summing over a allows us to obtain the general solution z(k, l) = 4* f (k + l) or z(k,l) = 4 g(k, l), (5.90) where f and g are arbitrary functions of k + l.
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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Explain the determine yellow
![5.3.2 Example B
The equation
z(k + 1, l) = 4z(k, l + 1)
(5.84)
leads to the conclusion that A = 4µ. Therefore, equation (5.84) has the special
solutions
2(k, l)
4k
(5.85)
Summing expressions of this form allows the conclusion
z(k, l) = 4* f(k + l),
(5.86)
where f is an arbitrary function of k + l.
The separation-of-variables method, where zp(k, l) = CkDe, gives
Ck+1De = 4CkDe+1;
(5.87)
which can be written in either of the forms
Ck+1
De+1
Ck+1
4De+1
= a.
(5.88)
or
4С
De
C
De
The respective solutions to these equations give
2(k, l) = 4*a*+e or z(k, l) = 4-la*+l.
(5.89)
Summing over a allows us to obtain the general solution
z(k, l) = 4* f (k + e)
or z(k, l) = 4¬'g(k, l),
(5.90)
where f and g are arbitrary functions of k + l.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F7ae7d80b-7c46-4638-8712-b4be41e1370a%2Fb67213b7-c742-48a9-a242-a13e58ed20ca%2Fbhcbwn_processed.jpeg&w=3840&q=75)
Transcribed Image Text:5.3.2 Example B
The equation
z(k + 1, l) = 4z(k, l + 1)
(5.84)
leads to the conclusion that A = 4µ. Therefore, equation (5.84) has the special
solutions
2(k, l)
4k
(5.85)
Summing expressions of this form allows the conclusion
z(k, l) = 4* f(k + l),
(5.86)
where f is an arbitrary function of k + l.
The separation-of-variables method, where zp(k, l) = CkDe, gives
Ck+1De = 4CkDe+1;
(5.87)
which can be written in either of the forms
Ck+1
De+1
Ck+1
4De+1
= a.
(5.88)
or
4С
De
C
De
The respective solutions to these equations give
2(k, l) = 4*a*+e or z(k, l) = 4-la*+l.
(5.89)
Summing over a allows us to obtain the general solution
z(k, l) = 4* f (k + e)
or z(k, l) = 4¬'g(k, l),
(5.90)
where f and g are arbitrary functions of k + l.
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