[PDF] [PDF] Table of Fourier Transform Pairs - Rose-Hulman

There are two similar functions used to describe the functional form sin(x)/x One is the sinc() function, and the other is the Sa() function We will only use the 



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[PDF] Table of Fourier Transform Pairs

Definition of Inverse Fourier Transform Р ¥ ¥- = w w p w de F tf tj )( 2 1 )( wt tSa ) 2 ( 2 Bt Sa B p )( B rect w )( ttri ) 2 (2 w Sa ) 2 () 2 cos( t t p t rect



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[PDF] Table of Fourier Transform Pairs

Function, f(t) Fourier Transform, F(w) Definition of Inverse Fourier Transform Р wt tSa ) 2 ( 2 Bt Sa B p )( B rect w )( ttri ) 2 (2 w Sa ) 2 () 2 cos( t t p t rect



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Function, f(t) Fourier Transform, F(w) Definition of Inverse Fourier Transform ò wt tSa ) 2 ( 2 Bt Sa B p )( B rect w )( ttri ) 2 (2 w Sa ) 2 () 2 cos( t t p t rect



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Table of Fourier Transform Pairs of Energy Signals

Function

name

Time Domain x(t) Frequency Domain X()

FT xt e jt

Xxtdtxt

F IFT 1 1 e 2 jt xtXdX FX

Rectangle

Pulse 1 2 0 T t tt rect TT elsewhen sinc 2 T T

Triangle

Pulse 1 0 t ttW W W elsewhen 2 sinc 2 W W Sinc Pulse sin() sinc Wt Wt Wt 1 2 rect WW

Exponen-

tial Pulse 0 at ea 22
2a a

Gaussian

Pulse 2 2 exp() 2 t 22

2exp()

2

Decaying

Exponen-

tial exp()()Re0atuta 1 aj Sinc 2 Pulse 2 sincBt 2 1 BB

Rect Pulse

0 0.5 1 1.5 -3-2.5-2-1.5-1-0.500.511.522.53 a r ect a T=1

Sinc Pu

lse -0.5 0 0.5 1 1.5 -3-2.5-2-1.5-1-0.500.511.522.53 a Si n c a W=1

Gaussian Pulse

0 0.5 1 1.5 -3-2 .5-2-1.5-1-0.500.511.522.53 a 2 =1

Triangle Pulse

0 0.5 1 1.5 -3-2.5-2-1.5-1-0.500.511.522.53 a W=1

BAF Fall 2002 Page 1 of 4

Table of Fourier Transform Pairs of Power Signals

Function

name

Time Domain x(t) Frequency Domain X()

FT xt e jt

Xxtdtxt

F IFT 1 1 e 2 jt xtXdX FX

Impulse

()t 1 DC 1 2()

Cosine

0 cost 00 jj ee Sine 0 sint 00 jj jee

Complex

Exponential

0 expjt 0 2()

Unit step

10 00 t ut t 1 j

Signum

10 sgn() 10 t t t 2 j

Linear

Decay 1 t sgn()j

Impulse

Train s n tnT 22
k ss k TT

Fourier

Series

0 jkt k k ae , where 0 jkt te 0 0 1 k T ax T dt 0 2 k k ak

BAF Fall 2002 Page 2 of 4

Table of Fourier Transforms of Operations

Operation

FT Property

Given gtG

Linearity aftbgtaFbG

Time Shifting

0 0 e jt gttG

Time Scaling

1 ()gatG aa

Modulation (1)

00 1 cos 2 gttGG 0

Modulation (2)

0 0 e jt gtG

Differentiation If

dgt ft dt , then ()FjG

Integration If

t ftgd , then 1 ()0FGG j

Convolution

gtftGF gtftgft , where d

Multiplication

1 2 ftgtFGquotesdbs_dbs6.pdfusesText_12