ODE :: xy'' + y' +2xy = 0 :: Method of Frobenius Series Solution about a Regular Singular Point
In this video we apply the method of Frobenius to solve a differential equation xy'' + y' + 2xy = 0 with a power series expanded about the regular singular point x=0. We find a repeated indicial root, and a recurrence relation that has terms staggered by two. We also find that c1 = 0 making all odd coefficients, then, equal zero. Thus, the series solution we find here only has even exponents. ------------------ My name is Jonathan, and differential equations are one of the most useful and exciting applications of mathematics. I hope this video helps bring to light some of the techniques involved with the method of Frobenius for finding a power series solutions expanded about a regular singular point. Thanks for watching!

▶︎
Frobenius Method Example 1

▶︎
POWER SERIES SOLUTION TO DIFFERENTIAL EQUATION
![[개인전 결승] 제11회 김택수배 전국오픈 탁구대회](https://i.ytimg.com/vi/p79AJUBYka0/hqdefault.jpg?sqp=-oaymwEjCNACELwBSFryq4qpAxUIARUAAAAAGAElAADIQj0AgKJDeAE=&rs=AOn4CLC4pjPcqQ8iabkxCf1d-znnmRwtwQ)
▶︎
[개인전 결승] 제11회 김택수배 전국오픈 탁구대회

▶︎
What are Regular Singular Points of Differential Equations?? With 3 Full Examples

▶︎
ODE:: y'' - xy' + 2y=0 :: Power Series Solution about an Ordinary Point

▶︎
Power Series Solution for a differential equation

▶︎
Introduction to Frobenius Method Part 1

▶︎
Power Series Solutions Part 2: Frobenius Method

▶︎
How (and why) to raise e to the power of a matrix | DE6

▶︎
Method of Frobenius

▶︎
Solving the Bessel Equation (for general order of nu) using the Frobenius Method

▶︎
Show sin(t) y'' + cos(t) y' +n(n+1) sin(t) y = 0 is a Legendre Equation

▶︎
Power Series Solutions of Differential Equations (Differential Equations)

▶︎
The Integral Explained Better Than School Ever Did

▶︎
Frobenius Method

▶︎
Solving 3xy'' + y' - y = 0 Using the Frobenius Method

▶︎
How Maxwell's Equations Were Discovered

▶︎
But what is a partial differential equation? | DE2

▶︎
When can you use Series to solve ODEs? Ordinary vs Singular Points

▶︎
