Note that you may need to use the geometric progression equations in the following ques- tions. 1-Find the Fourier-transform (FT), for the following signals: (a) x1(n) = −8(n + 2) + d(n − 2). As this is an odd function, show that the FT is a pure imaginary function of frequency. (b) x2(n) = −8(n) +8(n-2). Calculate it in two ways, first directly, and second by relating it to the signal in the previous part, and then using the properties of the Fourier transform. (c) x3(n) = d(n+2)+58(n) + d(n − 2). As this is an even function, show that the FT is a real function of frequency. (d) v₁(n) = (-0.9)”−¹u(n − 1), (e) v2(n) = (-0.9)u(n − 1), (f) h(n) = 2[u(n) – u(n − 80)]. -
Note that you may need to use the geometric progression equations in the following ques- tions. 1-Find the Fourier-transform (FT), for the following signals: (a) x1(n) = −8(n + 2) + d(n − 2). As this is an odd function, show that the FT is a pure imaginary function of frequency. (b) x2(n) = −8(n) +8(n-2). Calculate it in two ways, first directly, and second by relating it to the signal in the previous part, and then using the properties of the Fourier transform. (c) x3(n) = d(n+2)+58(n) + d(n − 2). As this is an even function, show that the FT is a real function of frequency. (d) v₁(n) = (-0.9)”−¹u(n − 1), (e) v2(n) = (-0.9)u(n − 1), (f) h(n) = 2[u(n) – u(n − 80)]. -
Introductory Circuit Analysis (13th Edition)
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Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
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![Note that you may need to use the geometric progression equations in the following ques-
tions.
1-Find the Fourier-transform (FT), for the following signals:
(a) x1(n) = −8(n + 2) + d(n − 2). As this is an odd function, show that the FT is a pure
imaginary function of frequency.
(b) x2(n) = −8(n) +8(n-2). Calculate it in two ways, first directly, and second by relating
it to the signal in the previous part, and then using the properties of the Fourier transform.
(c) x3(n) = d(n+2)+58(n) + d(n − 2). As this is an even function, show that the FT is a
real function of frequency.
(d) v₁(n) = (-0.9)”−¹u(n − 1),
(e) v2(n) = (-0.9)u(n − 1),
(f) h(n) = 2[u(n) – u(n − 80)].
-](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F86794e1d-a025-469e-9776-3458200614a7%2F61591b64-bcda-40e3-b4f6-2600c41e4b66%2Fuiop179_processed.png&w=3840&q=75)
Transcribed Image Text:Note that you may need to use the geometric progression equations in the following ques-
tions.
1-Find the Fourier-transform (FT), for the following signals:
(a) x1(n) = −8(n + 2) + d(n − 2). As this is an odd function, show that the FT is a pure
imaginary function of frequency.
(b) x2(n) = −8(n) +8(n-2). Calculate it in two ways, first directly, and second by relating
it to the signal in the previous part, and then using the properties of the Fourier transform.
(c) x3(n) = d(n+2)+58(n) + d(n − 2). As this is an even function, show that the FT is a
real function of frequency.
(d) v₁(n) = (-0.9)”−¹u(n − 1),
(e) v2(n) = (-0.9)u(n − 1),
(f) h(n) = 2[u(n) – u(n − 80)].
-
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