(Time Invariance)
(Time Invariance)
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==Time Invariance==
 
==Time Invariance==
A system is called "'''time invariant'''" if for any input signal x(t) in continuous time or x[n] in discrete time and for any time <math>t_0\in\{\mathbb R}</math> for continuous time or <math>n_0\in{\mathbb N}</math>, The response to the shifted input <math>x(t-t_{0})</math> or <math>x[n-n_{0}]</math> is the shifted output <math>y(t-t_{0})</math> or <math>y[n-n_{0}]</math>
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A system is called "'''time invariant'''" if for any input signal x(t) in continuous time or x[n] in discrete time and for any time <math>t_0\in{\mathbb R}</math> for continuous time or <math>n_0\in{\mathbb N}</math>, The response to the shifted input <math>x(t-t_{0})</math> or <math>x[n-n_{0}]</math> is the shifted output <math>y(t-t_{0})</math> or <math>y[n-n_{0}]</math>

Revision as of 18:47, 18 September 2008

Time Invariance

A system is called "time invariant" if for any input signal x(t) in continuous time or x[n] in discrete time and for any time $ t_0\in{\mathbb R} $ for continuous time or $ n_0\in{\mathbb N} $, The response to the shifted input $ x(t-t_{0}) $ or $ x[n-n_{0}] $ is the shifted output $ y(t-t_{0}) $ or $ y[n-n_{0}] $

Alumni Liaison

Ph.D. on Applied Mathematics in Aug 2007. Involved on applications of image super-resolution to electron microscopy

Francisco Blanco-Silva