The Inverse Laplace Transform
howellkb.uah.edu › DEtext › Part4Theorem 26.2 (linearity of the inverse Laplace transform) The inverse Laplace transform transform is linear. That is, L−1[c 1F 1(s)+c 2F 2(s)+···+c n F n(s)] = c 1L−1[F 1(s)] + c 2L[F 2(s)] + ··· + c nL[F n(s)] when each c k is a constant and each F k is a function having an inverse Laplace transform.
Lecture XV: Inverse Laplace transform
maxim.ece.illinois.edu › teaching › fall08The inverse Laplace transform We can also define the inverse Laplace transform: given a function X(s) in the s-domain, its inverse Laplace transform L−1[X(s)] is a function x(t) such that X(s) = L[x(t)]. It can be shown that the Laplace transform of a causal signal is unique; hence, the inverse Laplace transform is uniquely defined as well.
Inverse Laplace transform - Wikipedia
https://en.wikipedia.org/wiki/Inverse_Laplace_transformIn mathematics, the inverse Laplace transform of a function F(s) is the piecewise-continuous and exponentially-restricted real function f(t) which has the property: where denotes the Laplace transform. It can be proven that, if a function F(s) has the inverse Laplace transform f(t), then f(t) is uniquely determined (considering functions which differ from each other only on a point set having Lebes…