Math Problem Statement
Solution
To determine which ODE corresponds to the given general solution, let's first analyze the general solution:
Given General Solution:
Characteristic Equation:
For a second-order linear homogeneous differential equation of the form: the solution is based on the roots of the characteristic equation:
For the given general solution, the roots are and .
So, the characteristic equation corresponding to these roots would be: Expanding this:
This gives us the corresponding differential equation:
Matching the Correct ODE:
Now, let's match this to the given options:
-
- Characteristic equation: .
- Roots: , not matching the given roots.
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- Characteristic equation: .
- Roots: , not matching the given roots.
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- Characteristic equation: .
- Roots: , not matching the given roots.
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- Characteristic equation: .
- Roots: , not matching the given roots.
Conclusion:
The correct ODE from the provided options is:
Would you like further elaboration on how to solve these types of equations or other aspects of the problem?
Relative Questions:
- How do you find the characteristic equation of a differential equation?
- What are the methods to solve second-order linear homogeneous differential equations?
- How do initial conditions affect the solution of a second-order ODE?
- Can complex roots occur in the characteristic equation? What would the general solution look like then?
- What are the real-world applications of second-order differential equations?
Tip:
Always check the roots of the characteristic equation to ensure they match the exponents in the general solution for homogeneous linear differential equations.
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Math Problem Analysis
Mathematical Concepts
Differential Equations
Characteristic Equation
Second-order Differential Equations
Formulas
Characteristic equation: r^2 + br + c = 0
Theorems
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Suitable Grade Level
Advanced High School / College
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