How Do You Find the Impulse Response h(t) for a Differential Equation System?

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SUMMARY

The discussion centers on finding the impulse response h(t) for a system defined by the differential equation y(2)(t) + 2 y(1)(t) + 17 y(t) = x(2)(t) + 5 x(1)(t) + 18 x(t). The recommended method involves applying the Laplace transform to convert the differential equation into an algebraic equation, solving for the ratio y/x, and then performing an inverse Laplace transform to obtain h(t). This approach effectively utilizes the properties of linear time-invariant systems to derive the impulse response.

PREREQUISITES
  • Understanding of differential equations
  • Familiarity with Laplace transforms
  • Knowledge of linear time-invariant (LTI) systems
  • Ability to perform inverse Laplace transforms
NEXT STEPS
  • Study the properties of Laplace transforms in detail
  • Learn how to derive impulse responses from transfer functions
  • Explore examples of solving differential equations using the Laplace method
  • Investigate the application of impulse response in signal processing
USEFUL FOR

Students and professionals in engineering, particularly those focusing on control systems, signal processing, and applied mathematics, will benefit from this discussion.

yoyo
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can someone show me how to find the impulse response h(t)?

questions: Determine the impulse response h(t) for the system characterized by the differential equation
y(2)(t) + 2 y(1)(t) + 17 y(t) = x(2)(t) + 5 x(1)(t) + 18 x(t)

thanks
 
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How about taking the Laplace transform, solving for y/x, and then transforming back?
 

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