Mathematics (Civil Engineering -1) | 6. Non-Homogeneous Equations by Abraham | Learn Smarter
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6. Non-Homogeneous Equations

6. Non-Homogeneous Equations

Non-homogeneous differential equations are essential for modeling physical systems affected by external forces in engineering, particularly civil engineering. This chapter introduces two primary methods to solve such equations: the method of undetermined coefficients and the method of variation of parameters. It covers various applications, higher-order equations, and concepts of resonance, providing a comprehensive understanding of analyzing real-world scenarios.

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Sections

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  1. 6
    Non-Homogeneous Equations

    Non-homogeneous differential equations describe systems influenced by...

  2. 6.1
    General Form Of A Linear Non-Homogeneous Differential Equation

    This section introduces the general form of a second-order linear...

  3. 6.2
    Solving The Homogeneous Part

    In this section, we explore how to solve the homogeneous part of a...

  4. 6.3
    Finding The Particular Integral

    This section discusses methods for finding the particular integral of...

  5. 6.3.1
    Method Of Undetermined Coefficients

    The Method of Undetermined Coefficients is a technique for finding...

  6. 6.3.2
    Method Of Variation Of Parameters

    The method of variation of parameters is a technique used to solve...

  7. 6.4
    Applications In Civil Engineering

    Non-homogeneous equations are essential for modeling various civil...

  8. 6.5
    Higher-Order Non-Homogeneous Equations

    This section explores the structure and solution methodologies for...

  9. 6.6
    Special Case: Resonance

    Resonance occurs when the frequency of an external forcing function matches...

  10. 6.7
    Non-Homogeneous Systems Of Differential Equations

    This section discusses non-homogeneous systems of differential equations...

  11. 6.8
    Worked Examples With Engineering Applications

    This section presents worked examples that illustrate the application of...

  12. 6.9
    Conceptual Notes

    Non-homogeneous differential equations represent systems under external...

  13. 6.10
    Visualizing Solutions

    This section discusses the significance of visualizing solutions to...

What we have learnt

  • Non-homogeneous differential equations model systems impacted by external forces.
  • Two primary methods to solve non-homogeneous equations are the method of undetermined coefficients and the method of variation of parameters.
  • Understanding the complementary function and particular integral is crucial for solving these equations.

Key Concepts

-- NonHomogeneous Differential Equations
Equations that describe systems influenced by external forces, differentiating them from homogeneous equations which only describe natural responses.
-- Complementary Function (CF)
The general solution of the corresponding homogeneous equation, representing the natural response of the system.
-- Particular Integral (PI)
A specific solution to a non-homogeneous equation that accounts for the external forcing functions.
-- Resonance
Occurs when the frequency of the forcing function matches the system's natural frequency, leading to amplification in system response.
-- Method of Undetermined Coefficients
A technique used to find particular solutions for non-homogeneous equations when the non-homogeneous term is a linear combination of simple functions.
-- Variation of Parameters
A method for finding particular solutions by assuming solutions can be written as a combination of the solutions of the homogeneous part, multiplied by functions that are determined through solving a system.

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