Finally, we emphasize that it is not particularly important if, as in Example 3, we 199 noq are unable to determine the general coefficient a, in terms of ao and a1. What is essential is that we can determine as many coefficients as we want. Thus we can find Juede as many terms in the two series solutions as we want, even if we cannot determine the general term. While the task of calculating several coefficients in a power series solution is not difficult, it can be tedious. A symbolic manipulation package can be very helpful here; some are able to find a specified number of terms in a power series solution in response to a single command. With a suitable graphics package one can also produce plots such as those shown in the figures in this section. ol anoi qulum di lo BLEMS In each of Problems 1 through 14 solve the given differential equation by means of a power series about the given point xo. Find the recurrence relation; also find the first four terms in each of two linearly independent solutions (unless the series terminates sooner). If possible, find the general term in each solution. to ( 1. )y" – y = 0, 3. y" – xy' – y = 0, 5. (1 – x)y" + y = 0, 2. \y" – xy'-y = 0, 4. y" + k²x²y = 0, Xo = 0 %3D %3D %3D Xo = 0, k a constant %3D %3D 6. (2+x²)y" – xy' +4y = 0, Xo = 0 %3D %3D 7 y" + xy' + 2y = 0, 9. (1+x²)y" – 4xy' + 6y = 0, 11. (3 – x²)y" – 3xy' – y = 0, 8. xy" + y' +xy = 0, 10. (4 – x²)y" + 2y = 0, Xo = 0 Xo = 1 %3D %3D %3D Xo = 0 %3D %3D 12. (1 - х)у' + ху — у %3D 0, 14. 2y"+ (x +1)y' + 3y = 0, Xo =0 %3D 13. 2y" + xy' + 3y = 0, Xo = 2 %3D Xo = 0 %3D In each of Problems 15 through 18: (a) Find the first five nonzero terms in the solution of the given initial value problem. (b) Plot the four-term and the five-term approximations to the solution on the same axes. (c) From the plot in part (b) estimate the interval in which the four-term approximation is ouborta sH reasonably accurate. see Problem 2 2 15. y" – xy' – y = 0, 2 16. (2+x²)y" – xy' + 4y = 0, y(0) = 2, y'(0) = 1; %3D y(0) = -1, y'(0) = 3; see Problem 6 %3D %3D

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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Number 1 series near an ordinary point 5.2 number one please 

Finally, we emphasize that it is not particularly important if, as in Example 3, we
199 noq are unable to determine the general coefficient a, in terms of ao and a1. What is
essential is that we can determine as many coefficients as we want. Thus we can find
Juede
as many terms in the two series solutions as we want, even if we cannot determine
the general term. While the task of calculating several coefficients in a power series
solution is not difficult, it can be tedious. A symbolic manipulation package can be
very helpful here; some are able to find a specified number of terms in a power series
solution in response to a single command. With a suitable graphics package one can
also produce plots such as those shown in the figures in this section.
ol anoi
qulum
di lo
BLEMS
In each of Problems 1 through 14 solve the given differential equation by means of a power
series about the given point xo. Find the recurrence relation; also find the first four terms in
each of two linearly independent solutions (unless the series terminates sooner). If possible,
find the general term in each solution.
to
(
1. )y" – y = 0,
3. y" – xy' – y = 0,
5. (1 – x)y" + y = 0,
2. \y" – xy'-y = 0,
4. y" + k²x²y = 0,
Xo = 0
%3D
%3D
%3D
Xo = 0, k a constant
%3D
%3D
6. (2+x²)y" – xy' +4y = 0,
Xo = 0
%3D
%3D
7 y" + xy' + 2y = 0,
9. (1+x²)y" – 4xy' + 6y = 0,
11. (3 – x²)y" – 3xy' – y = 0,
8. xy" + y' +xy = 0,
10. (4 – x²)y" + 2y = 0,
Xo = 0
Xo = 1
%3D
%3D
%3D
Xo = 0
%3D
%3D
12. (1 - х)у' + ху — у %3D 0,
14. 2y"+ (x +1)y' + 3y = 0,
Xo =0
%3D
13. 2y" + xy' + 3y = 0,
Xo = 2
%3D
Xo = 0
%3D
In each of Problems 15 through 18:
(a) Find the first five nonzero terms in the solution of the given initial value problem.
(b) Plot the four-term and the five-term approximations to the solution on the same axes.
(c) From the plot in part (b) estimate the interval in which the four-term approximation is
ouborta sH reasonably accurate.
see Problem 2
2 15. y" – xy' – y = 0,
2 16. (2+x²)y" – xy' + 4y = 0,
y(0) = 2, y'(0) = 1;
%3D
y(0) = -1, y'(0) = 3;
see Problem 6
%3D
%3D
Transcribed Image Text:Finally, we emphasize that it is not particularly important if, as in Example 3, we 199 noq are unable to determine the general coefficient a, in terms of ao and a1. What is essential is that we can determine as many coefficients as we want. Thus we can find Juede as many terms in the two series solutions as we want, even if we cannot determine the general term. While the task of calculating several coefficients in a power series solution is not difficult, it can be tedious. A symbolic manipulation package can be very helpful here; some are able to find a specified number of terms in a power series solution in response to a single command. With a suitable graphics package one can also produce plots such as those shown in the figures in this section. ol anoi qulum di lo BLEMS In each of Problems 1 through 14 solve the given differential equation by means of a power series about the given point xo. Find the recurrence relation; also find the first four terms in each of two linearly independent solutions (unless the series terminates sooner). If possible, find the general term in each solution. to ( 1. )y" – y = 0, 3. y" – xy' – y = 0, 5. (1 – x)y" + y = 0, 2. \y" – xy'-y = 0, 4. y" + k²x²y = 0, Xo = 0 %3D %3D %3D Xo = 0, k a constant %3D %3D 6. (2+x²)y" – xy' +4y = 0, Xo = 0 %3D %3D 7 y" + xy' + 2y = 0, 9. (1+x²)y" – 4xy' + 6y = 0, 11. (3 – x²)y" – 3xy' – y = 0, 8. xy" + y' +xy = 0, 10. (4 – x²)y" + 2y = 0, Xo = 0 Xo = 1 %3D %3D %3D Xo = 0 %3D %3D 12. (1 - х)у' + ху — у %3D 0, 14. 2y"+ (x +1)y' + 3y = 0, Xo =0 %3D 13. 2y" + xy' + 3y = 0, Xo = 2 %3D Xo = 0 %3D In each of Problems 15 through 18: (a) Find the first five nonzero terms in the solution of the given initial value problem. (b) Plot the four-term and the five-term approximations to the solution on the same axes. (c) From the plot in part (b) estimate the interval in which the four-term approximation is ouborta sH reasonably accurate. see Problem 2 2 15. y" – xy' – y = 0, 2 16. (2+x²)y" – xy' + 4y = 0, y(0) = 2, y'(0) = 1; %3D y(0) = -1, y'(0) = 3; see Problem 6 %3D %3D
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