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The chapter explores the Dirac Delta Function and its applications in engineering, particularly through the use of Laplace Transforms. It defines the Dirac Delta Function as a mathematical abstraction employed to model instantaneous signals and demonstrates how to compute its Laplace Transform. Moreover, real-world applications across various engineering fields are highlighted, emphasizing the function's utility in simplifying complex differential equations into more manageable forms.
References
Unit 1 ch10.pdfClass Notes
Memorization
What we have learnt
Final Test
Revision Tests
Term: Dirac Delta Function
Definition: A generalized function that represents an impulse or instantaneous input, defined such that it is zero everywhere except at a single point where it is infinite, with the area under the curve equal to one.
Term: Laplace Transform
Definition: A mathematical transformation that converts a time-domain function into a frequency-domain representation, making it simpler to analyze linear time-invariant systems.
Term: Sifting Property
Definition: The property of the Dirac Delta Function that allows it to 'sample' a function at a specific point, meaning that the integral of a function multiplied by the delta function yields the value of the function at the location of the delta.
Term: Impulse Response
Definition: The output of a system when subjected to an impulse input, used in system dynamics analysis to understand system characteristics.