1. Euler method (first order differential equation) example ( Enter your problem )
  1. Formula & Example-1 : `y''=1+2xy-x^2z`
  2. Example-2 : `y''=xz^2-y^2`
  3. Example-3 : `y''=-4z-4y`
Other related methods
  1. Euler method (first order differential equation)
  2. Runge-Kutta 2 method (first order differential equation)
  3. Runge-Kutta 3 method (first order differential equation)
  4. Runge-Kutta 4 method (first order differential equation)
  5. Improved Euler method / Modified Euler method (first order differential equation)
  6. Midpoint Euler method (first order differential equation)
  7. Taylor Series method (first order differential equation)
  8. Euler method (second order differential equation)
  9. Runge-Kutta 2 method (second order differential equation)
  10. Runge-Kutta 3 method (second order differential equation)
  11. Runge-Kutta 4 method (second order differential equation)
  12. Improved Euler method / Modified Euler method (second order differential equation)
  13. Midpoint Euler method (second order differential equation)
  14. Taylor Series method (second order differential equation)

2. Example-2 : `y''=xz^2-y^2`
(Next example)

1. Formula & Example-1 : `y''=1+2xy-x^2z`





Formula
Euler Rule
`y_(n+1)=y_n+hf(x_n,y_n)`

Examples
1. Find y(0.2) for `y'=(x-y)/2`, `x_0=0, y_0=1`, with step length 0.1 using Euler method (first order differential equation)

Solution:
Given `y'=(x-y)/(2), y(0)=1, h=0.1, y(0.2)=?`

Euler method


for `n=0,x_0=0,y_0=1`

`y_1=y_0+hf(x_0,y_0)`

`=1+(0.1)f(0,1)`

`=1+(0.1)*(-0.5)`

`=1+(-0.05)`

`=0.95`

`x_1=x_0+h=0+0.1=0.1`



for `n=1,x_1=0.1,y_1=0.95`

`y_2=y_1+hf(x_1,y_1)`

`=0.95+(0.1)f(0.1,0.95)`

`=0.95+(0.1)*(-0.425)`

`=0.95+(-0.0425)`

`=0.9075`

`x_2=x_1+h=0.1+0.1=0.2`

`:.y(0.2)=0.9075`

`n``x_n``y_n``x_(n+1)``y_(n+1)`
0010.10.95
10.10.950.20.9075





This material is intended as a summary. Use your textbook for detail explanation.
Any bug, improvement, feedback then Submit Here



2. Example-2 : `y''=xz^2-y^2`
(Next example)





Share this solution or page with your friends.
 
 
Copyright © 2026. All rights reserved. Terms, Privacy
 
 

.