Meiling chensignals & systems1 Lecture #06 Laplace Transform.

Slides:



Advertisements
Similar presentations
Signals and Systems Fall 2003 Lecture #18 6 November 2003 Inverse Laplace Transforms Laplace Transform Properties The System Function of an LTI System.
Advertisements

Signals and Systems Fall 2003 Lecture #22 2 December 2003
Lecture 7: Basis Functions & Fourier Series
Leo Lam © Signals and Systems EE235 Lecture 16.
Familiar Properties of Linear Transforms
Leo Lam © Signals and Systems EE235. Today’s menu Leo Lam © Laplace Transform.
Leo Lam © Signals and Systems EE235. Leo Lam © Futile Q: What did the monserous voltage source say to the chunk of wire? A: "YOUR.
Leo Lam © Signals and Systems EE235. Today’s menu Leo Lam © Almost done! Laplace Transform.
Lecture 141 EEE 302 Electrical Networks II Dr. Keith E. Holbert Summer 2001.
Chapter 7 Laplace Transforms. Applications of Laplace Transform notes Easier than solving differential equations –Used to describe system behavior –We.
Lecture 17: Continuous-Time Transfer Functions
Lesson 3 Signals and systems Linear system. Meiling CHEN2 (1) Unit step function Shift a Linear system.
Bogazici University Dept. Of ME. Laplace Transforms Very useful in the analysis and design of LTI systems. Operations of differentiation and integration.
Lecture 25 Laplace Transform
Meiling chensignals & systems1 Lecture #04 Fourier representation for continuous-time signals.
9.0 Laplace Transform 9.1 General Principles of Laplace Transform linear time-invariant Laplace Transform Eigenfunction Property y(t) = H(s)e st h(t)h(t)
Lecture #07 Z-Transform meiling chen signals & systems.
Differential Equation Models Section 3.5. Impulse Response of an LTI System.
Professor Walter W. Olson Department of Mechanical, Industrial and Manufacturing Engineering University of Toledo Loop Transfer Function Real Imaginary.
Leo Lam © Signals and Systems EE235 Lecture 31.
EE513 Audio Signals and Systems Digital Signal Processing (Systems) Kevin D. Donohue Electrical and Computer Engineering University of Kentucky.
Fourier representation for discrete-time signals And Sampling Theorem
The z-Transform Prof. Siripong Potisuk. LTI System description Previous basis function: unit sample or DT impulse  The input sequence is represented.
10.0 Z-Transform 10.1 General Principles of Z-Transform linear, time-invariant Z-Transform Eigenfunction Property y[n] = H(z)z n h[n]h[n] x[n] = z n.
University of Khartoum -Signals and Systems- Lecture 11
SE 207: Modeling and Simulation Introduction to Laplace Transform
CISE315 SaS, L171/16 Lecture 8: Basis Functions & Fourier Series 3. Basis functions: Concept of basis function. Fourier series representation of time functions.
Signal and Systems Prof. H. Sameti Chapter 9: Laplace Transform  Motivatio n and Definition of the (Bilateral) Laplace Transform  Examples of Laplace.
Lecture 24: CT Fourier Transform
Introduction to Laplace Transforms. Definition of the Laplace Transform  Some functions may not have Laplace transforms but we do not use them in circuit.
CHAPTER 4 Laplace Transform.
CHAPTER 4 Laplace Transform.
Signal and Systems Prof. H. Sameti Chapter 9: Laplace Transform  Motivatio n and Definition of the (Bilateral) Laplace Transform  Examples of Laplace.
Course Outline (Tentative) Fundamental Concepts of Signals and Systems Signals Systems Linear Time-Invariant (LTI) Systems Convolution integral and sum.
Signals and Systems Using MATLAB Luis F. Chaparro
10. Laplace TransforM Technique
Leo Lam © Signals and Systems EE235 Lecture 20.
ME375 Handouts - Fall 2002 MESB 374 System Modeling and Analysis Laplace Transform and Its Applications.
Using Partial Fraction Expansion
Signal and System I Analysis and characterization of the LTI system using the Laplace transform Causal ROC associate with a causal system is a right-half.
Chapter 7 The Laplace Transform
Motivation for the Laplace Transform
Alexander-Sadiku Fundamentals of Electric Circuits
Signals and Systems Fall 2003 Lecture #19 18 November CT System Function Properties 2.System Function Algebra and Block Diagrams 3.Unilateral Laplace.
Min-Plus Linear Systems Theory Min-Plus Linear Systems Theory.
Table of Basic Laplace Transforms. Example: ramp function t.
Inverse Laplace Transform. Laplace Transform of derivatives.
DR S. & S.S. GHANDHY ENGINEENRING COLLEGE SUBJECT:- ADVANCE ENGINEERING MATHEMATICS SUBJECT CODE : Topic : Laplace Transform.
Lecture 7: Basis Functions & Fourier Series
Lecture 24 Outline: Circuit Analysis, Inverse, LTI Systems
Translation Theorems and Derivatives of a Transform
ELECTRIC CIRCUITS EIGHTH EDITION
CHAPTER 5 Z-Transform. EKT 230.
Complex Frequency and Laplace Transform
Feedback Control Systems (FCS)
Lecture 3: Solving Diff Eqs with the Laplace Transform
Chapter 15 Introduction to the Laplace Transform
LAPLACE TRANSFORMS PART-A UNIT-V.
Everything You Ever Wanted to Know About Filters*
Signal and Systems Chapter 9: Laplace Transform
Signals and Systems EE235 Leo Lam ©
Research Methods in Acoustics Lecture 9: Laplace Transform and z-Transform Jonas Braasch.
Signals and Systems EE235 Lecture 31 Leo Lam ©
Laplace Transform Department of Mathematics
Fundamentals of Electric Circuits Chapter 15
9.0 Laplace Transform 9.1 General Principles of Laplace Transform
CIRCUITS and SYSTEMS – part II
CHAPTER 4 Laplace Transform. EMT Signal Analysis.
10.3 The Inverse z-Transform
Loop Transfer Function
Presentation transcript:

meiling chensignals & systems1 Lecture #06 Laplace Transform

meiling chensignals & systems2 Eigenfunction A

meiling chensignals & systems3

meiling chensignals & systems4 LTI system h(t) is the impulse response of the LTI system According to the convolution: We define that

meiling chensignals & systems5 We identify as an eigenfunction of the LTI system and H(s) as the corresponding eigenvalue. In which s is a complex frequency Is the Fourier transform of

meiling chensignals & systems6 Laplace transform Inverse Laplace transform

meiling chensignals & systems7 Unilateral Laplace transform for causal system

meiling chensignals & systems8 Laplace transform properties

meiling chensignals & systems9 Time convolution

meiling chensignals & systems10 Initial Value Theorem Initial-Value Theorem If is continuous at and may different and if is not impulse function or derivative of impulse function, then Example 1

meiling chensignals & systems11 Final Value Theorem Final-Value Theorem If and are Laplace transformable, if exists and if is analytic on the imaginary axis and in right half of the s-plane, then 1.No any pole on the imaginary axis or in right half of s-plane. 2.System is stable.

meiling chensignals & systems12 Example 2 Example 3 not exist

meiling chensignals & systems13 Remark 1 Remark 2 If include impulse function at. Example 4 Example 5

meiling chensignals & systems14 Inverse Laplace transform F(s) is a strictly proper rational function Degree of denominator Case I simple root where

meiling chensignals & systems15 Example 6 or

meiling chensignals & systems16 Inverse Laplace transform Case II complex root let

meiling chensignals & systems17 Example 7

meiling chensignals & systems18 Inverse Laplace transform Case III repeated root

meiling chensignals & systems19 Example 8