Previously, we learned some of the many important applications of differential equations, and learned some approaches to solve or analyze them. Here, we consider an important approach that will allow us to solve a wider variety of differential equations. Let's consider the familiar differential equation from exponential population growth given by =ky, where k is the constant of proportionality. While we can solve this differential equation using familiar methods, we take a different approach now that can be applied to a much larger set of differential equations. For the rest of this activity, let's assume that k = 1. We will use our knowledge of Taylor series to find a solution to the differential equation. To do so, we assume that we have a solution y = f(x) and that f(x) has a Taylor series that can be written in the form ∞ y = f(x) = - Σαΐα, i=0 where the coefficients a; are undetermined. Our task is to find the coefficients.
Previously, we learned some of the many important applications of differential equations, and learned some approaches to solve or analyze them. Here, we consider an important approach that will allow us to solve a wider variety of differential equations. Let's consider the familiar differential equation from exponential population growth given by =ky, where k is the constant of proportionality. While we can solve this differential equation using familiar methods, we take a different approach now that can be applied to a much larger set of differential equations. For the rest of this activity, let's assume that k = 1. We will use our knowledge of Taylor series to find a solution to the differential equation. To do so, we assume that we have a solution y = f(x) and that f(x) has a Taylor series that can be written in the form ∞ y = f(x) = - Σαΐα, i=0 where the coefficients a; are undetermined. Our task is to find the coefficients.
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
Related questions
Question
![Part (b)
Two series are equal if and only if they have the same coefficients on like power terms. Use this fact to write a₁ in terms of ao. When writing your answer, use a0 for að.
Answer: a1
Part (c)
Now write a2 in terms of a₁. Then write a2 in terms of ag. When writing your answer, use al for a₁
Answer in terms of a₁: a2
Answer in terms of ao: a2
Part (d)
Write ag in terms of a2. Then write ag in terms of ao. When writing your answer, use a2 for a2
Answer in terms of a2: a3
Answer in terms of an: a3](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F77f25919-c9cc-41ec-b3bf-4e76a5fe8c8e%2F7014f1f9-395e-4e00-9e55-b9a459356d50%2F1zn4csa_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Part (b)
Two series are equal if and only if they have the same coefficients on like power terms. Use this fact to write a₁ in terms of ao. When writing your answer, use a0 for að.
Answer: a1
Part (c)
Now write a2 in terms of a₁. Then write a2 in terms of ag. When writing your answer, use al for a₁
Answer in terms of a₁: a2
Answer in terms of ao: a2
Part (d)
Write ag in terms of a2. Then write ag in terms of ao. When writing your answer, use a2 for a2
Answer in terms of a2: a3
Answer in terms of an: a3
![Previously, we learned some of the many important applications of differential equations, and learned some approaches to solve or analyze them. Here, we
consider an important approach that will allow us to solve a wider variety of differential equations.
Let's consider the familiar differential equation from exponential population growth given by
y = ky,
where k is the constant of proportionality. While we can solve this differential equation using familiar methods, we take a different approach now that can be
applied to a much larger set of differential equations. For the rest of this activity, let's assume that k = 1. We will use our knowledge of Taylor series to find a
solution to the differential equation.
To do so, we assume that we have a solution y = f(x) and that f(x) has a Taylor series that can be written in the form
∞
y=f(x) = Σa;x¹,
i=0
where the coefficients a; are undetermined. Our task is to find the coefficients.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F77f25919-c9cc-41ec-b3bf-4e76a5fe8c8e%2F7014f1f9-395e-4e00-9e55-b9a459356d50%2Fs6cl20b_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Previously, we learned some of the many important applications of differential equations, and learned some approaches to solve or analyze them. Here, we
consider an important approach that will allow us to solve a wider variety of differential equations.
Let's consider the familiar differential equation from exponential population growth given by
y = ky,
where k is the constant of proportionality. While we can solve this differential equation using familiar methods, we take a different approach now that can be
applied to a much larger set of differential equations. For the rest of this activity, let's assume that k = 1. We will use our knowledge of Taylor series to find a
solution to the differential equation.
To do so, we assume that we have a solution y = f(x) and that f(x) has a Taylor series that can be written in the form
∞
y=f(x) = Σa;x¹,
i=0
where the coefficients a; are undetermined. Our task is to find the coefficients.
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