Search results for "Impulse Response" - Rhea

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• HW4.3 Nicholas Browdues ECE301Fall2008mboutin
  ==Impulse Response== the impulse response is...
  2 KB (339 words) - 07:23, 25 September 2008
• HW4.3 Paul Scheffler ECE301Fall2008mboutin
  ==Unit Impulse and System Function== The unit impulse is the systems response to an input of the function <math>\delta(t)</math>.
  731 B (144 words) - 06:42, 25 September 2008
• HW4.4 Scott Erdbruegger ECE301Fall2008mboutin
  ==unit impulse response== Obtain the unit impulse response h(t) and the system function H(s) of your system. :
  920 B (187 words) - 07:27, 25 September 2008
• HW4.3 Justin Kietzman ECE301Fall2008mboutin
  ===Unit Impulse Response=== ===Response to a signal===
  971 B (188 words) - 08:43, 25 September 2008
• HW4.3 Ben Horst ECE301Fall2008mboutin
  ==Impulse Response== =>impulse response = <math>3\delta(t)</math>
  2 KB (297 words) - 17:34, 25 September 2008
• HW4.3 Phil Cannon ECE301Fall2008mboutin
  == Unit Impulse Response == ...to an input <math>\delta(t)\!</math>. Thus, in our case, the unit impulse response is simply <math>h(t)=2\delta(t)-3\delta(t-2)\!</math>
  1 KB (275 words) - 11:52, 25 September 2008
• HW4.3 Nicholas Gentry ECE301Fall2008mboutin
  == UNIT IMPULSE RESPONSE OF SYSTEM == ...ath>x(t) = \delta(t)\! </math>. Then we obtain the following unit impulse response:
  1 KB (238 words) - 08:31, 26 September 2008
• HW4.3 Xujun Huang ECE301Fall2008mboutin
  Unit Impulse Response: <math>h(t) = K \delta(t)</math> Frequency Response:
  1,003 B (203 words) - 12:33, 25 September 2008
• HW4.4 Zachary Curosh ECE301Fall2008mboutin
  == Obtain the Unit Impulse Response h[n] == By definition, to obtain the unit impulse response from a system defined by <math>y[n] = x[n]\,</math>, simply replace the <ma
  2 KB (308 words) - 14:13, 25 September 2008
• HW4.4 Eric Zarowny ECE301Fall2008mboutin
  == Unit Impulse Response == == Frequency Response ==
  1 KB (242 words) - 13:11, 25 September 2008
• HW4.4 Brian Thomas ECE301Fall2008mboutin
  '''a)''' Obtain the unit impulse response h[n] and the system function H(z) of f. '''b)''' Compute the response of f to the signal x[n] found [[HW4.2_Brian_Thomas_ECE301Fall2008mboutin|he
  2 KB (355 words) - 16:48, 25 September 2008
• HW4.3 Jeff Kubascik ECE301Fall2008mboutin
  Find the system's unit impulse response <math>\,h(t)\,</math> and system function <math>\,H(s)\,</math>. The unit impulse response is simply (plug a <math>\,\delta(t)\,</math> into the system)
  2 KB (434 words) - 18:11, 25 September 2008
• HW4.4 Kathleen Schremser ECE301Fall2008mboutin
  ...t <math> x[n] = \delta [n] </math> to y[n]. h[n] is then the unit impulse response.<br><br> === b) Response of Signal in Question 1 ===
  2 KB (390 words) - 07:56, 26 September 2008
• HW4.4 Jeff Kubascik ECE301Fall2008mboutin
  Find the system's unit impulse response <math>\,h[n]\,</math> and system function <math>\,H(z)\,</math>. The unit impulse response is simply (plug a <math>\,\delta[n]\,</math> into the system)
  2 KB (360 words) - 18:54, 25 September 2008
• HW4.3 Travis Safford ECE301Fall2008mboutin
  ==CT LTI Impulse Response== ==Response to My Function From Part 1==
  1 KB (207 words) - 18:48, 25 September 2008
• HW4.3 Nathan Najdek ECE301Fall2008mboutin
  == Part A: Unit Impulse Response and System Function == == Part B: Response of the System ==
  1 KB (203 words) - 18:54, 25 September 2008
• HW4.3 Ronny Wijaya ECE301Fall2008mboutin
  ==Obtain the input impulse response h(t) and the system function H(s) of your system== ==Compute the response of your system to the signal you defined in Question 1 using H(s) and the F
  2 KB (349 words) - 08:25, 26 September 2008
• HW4.4 Ronny Wijaya ECE301Fall2008mboutin
  =Obtain the input impulse response h[n] and the system function H(z) of your system= So, we have the unit impulse response:
  1 KB (241 words) - 09:04, 26 September 2008
• HW4.3 Nicholas Block ECE301Fall2008mboutin
  The impulse response, h(t), of this system is computed using the following: The response, y(t) = H(jw)*x(t)
  837 B (166 words) - 09:55, 26 September 2008
• HW4.3 Cory Ocker ECE301Fall2008mboutin
  ==Impulse Response== so the impulse response is 7d(t)
  426 B (79 words) - 10:24, 26 September 2008
• HW4.3 Christen Juzeszyn ECE301Fall2008mboutin
  The unit impulse response of this system is: Taking the laplace transform of the unit impulse response of this system gives us:
  910 B (185 words) - 14:36, 26 September 2008
• HW4.4 Joseph Mazzei ECE301Fall2008mboutin
  Unit Impulse Response: Frequency Response:
  1,016 B (194 words) - 15:50, 26 September 2008
• HW4.4 Sangwan Han ECE301Fall2008mboutin
  unit impulse response then we can can a unit impulse response as
  408 B (77 words) - 14:07, 26 September 2008
• HW4.4 Caleb Tan ECE301Fall2008mboutin
  ==a) Finding the unit impulse response h[n] and the system function F(z).== Therefore the unit impulse response, <big><math>h[n] = 5\delta [n]</math></big>
  1 KB (294 words) - 15:59, 26 September 2008
• HW4.3 Adrian Delancy ECE301Fall2008mboutin
  ==Computing the Impulse Response and System Function== Now computing the actual response:
  1 KB (239 words) - 17:50, 26 September 2008
• HW4.3 William Schmidt ECE301Fall2008mboutin
  ...is the output and <math>x(t)\,</math> is the input, find the unit impulse response <math>h(t)\,</math> and the system function <math>H(s)\,</math>.<br> Then find the response to <math>x(t) = 5cos(3\pi t) + sin(\pi t)\,</math>
  1 KB (208 words) - 15:01, 26 September 2008
• HW4.3 Virgil Hsieh ECE301Fall2008mboutin
  ==Unit Impulse Response== Well, this is rather straightforward. You want the response to the unit impulse, do ya? Well, if that is what you want, that is what you will get. All you
  2 KB (334 words) - 16:10, 26 September 2008
• HW4.3 David Hartmann ECE301Fall2008mboutin
  The unit impulse response is then <math>h(t) =3u(t-1)</math> The response of the input <math>x(t)</math> to the system <math>y(t)</math> using <math>
  986 B (178 words) - 16:31, 26 September 2008
• HW4.3 Jack Williams ECE301Fall2008mboutin
  The unit impulse response of the system would then simply be ...be determined by taking the Laplace Transform of the system's unit impulse response, h(t).
  1 KB (233 words) - 17:43, 26 September 2008
• HW4.3 Hetong Li ECE301Fall2008mboutin
  ==Unit Impulse Response h(t) and System Function H(s)== ==Response of the Signal and Fourier Series Coefficients==
  1 KB (214 words) - 17:41, 26 September 2008
• HW4.3 Sean Ray ECE301Fall2008mboutin
  ===Unit Impulse Response=== The unit impulse response of the system is found by substituting <math>\delta(t)</math> for <math>x(t
  1 KB (204 words) - 17:09, 26 September 2008
• HW4.3 Josh Long ECE301Fall2008mboutin
  ===The Unit Impulse Response=== ===HW 4.1 Response===
  550 B (110 words) - 17:36, 26 September 2008
• HW4.3 I-Cheng Chen ECE301Fall2008mboutin
  Obtain the unit impulse response h(t) and the system function H(s)<br><br> Compute the response of the system to the signal using H(s) and the Fourier series coefficients
  905 B (182 words) - 19:11, 26 September 2008
• HW4.3 Naman Anand Verma ECE301Fall2008mboutin
  Unit Impulse Response This is also the Laplace transform of the impulse response evaulated .
  1 KB (205 words) - 19:22, 26 September 2008
• Lecture17 ECE301Fall2008mboutin
  Fourier Transforms and the frequency response of a system. The frequency response has a fundamental relationship to the unit step response through Fourier Transforms as follows
  3 KB (449 words) - 17:07, 8 October 2008
• HW6.3 Jun Hyeong Park ECE301Fall2008mboutin
  * An LTI system has unit impulse response h[n] =u[-n]. Compute the system's response to the input <math>x[n] = 2^{n}u[-n].</math> Simplify your answer until all
  725 B (114 words) - 14:31, 10 October 2008
• HW6.3 Austin Melnyk ECE301Fall2008mboutin
  An LTI system has unit impulse response <math> h[n] = u[-n] </math> Compute the system's response to the input <math> x[n] = 2^{n}u[-n] </math>
  907 B (154 words) - 10:57, 12 October 2008
• HW6.3 Sangwan Han ECE301Fall2008mboutin
  ...has unit impulse response <math>h[n] = u[-n]</math>. compute the system's response to the
  751 B (125 words) - 11:06, 14 October 2008
• HW6.3 Max Paganini ECE301Fall2008mboutin
  ...as unit impulse response <math> h[n] = u[-n] </math>. Compute the system's response to the input <math> x[n] = 2^nu[-n] </math>. (simplify your answer until al
  1 KB (189 words) - 07:52, 22 October 2008
• HW6.3 Ben Laskowski ECE301Fall2008mboutin
  ...Compute (a) the system's function <math>H(z)</math> and (b) the system's response to the input <math>x[n]=\cos(\pi n)</math>. The response to the input signal <math>z^n</math> is <math>H(z)z^n</math>, giving
  680 B (127 words) - 03:59, 15 October 2008
• HW6.3 SangMo Je ECE301Fall2008mboutin
  ...tem has unit impulse response <math>h[n]=u[-n]</math> Compute the system's response to the input <math> x[n]=2^{n}u[-n].</math>(Simplify your answer until all
  748 B (146 words) - 10:56, 15 October 2008
• HW6.3 Hang Zhang ECE301Fall2008mboutin
  ...Compute (a) the system's function <math>H(z)</math> and (b) the system's response to the input <math>x[n]=\cos(\pi n)</math>.
  919 B (166 words) - 14:34, 15 October 2008
• HW6.3 Steve Anderson ECE301Fall2008mboutin
  An LTI system has unit impulse response <math>h[n] = u[n] - u[n - 2]\,</math>. b)Use the answer from a) to compute the system's response to the input <math>x[n] = cos(\pi n)\,</math>
  577 B (102 words) - 15:16, 15 October 2008
• HW6.3 Jonathan Morales ECE301Fall2008mboutin
  '''Problem 5''' An LTI system has unit impulse response h[n] = u[n] -u[n-2]. b.) Use your answer in a) to compute the system's response to the input x[n] = cos(pi n)
  403 B (78 words) - 15:27, 15 October 2008
• HW6.3 Kofo Adafin ECE301Fall2008mboutin
  An LTI system has unit impulse response h[n] = u[n] - u[n-2]. b) the system's response to the input <math>x[n]=\cos(\pi n)</math>.
  568 B (112 words) - 16:14, 15 October 2008
• HW6.3 Seung Seob Lee ECE301Fall2008mboutin
  An LTI system has unit impulse response h[n]=u[n]-u[n-2]. b) Use your answer in a) to compute the system's response to the input x[n] = cos(<math>\pi</math>n).
  814 B (167 words) - 18:03, 15 October 2008
• HW6.3 William Schmidt ECE301Fall2008mboutin
  An LTI system has unit impulse response <math>h[n] = u[n] - u[n-2]\,</math>. b) What is the system response to the input <math>x[n]=\cos(\pi n)\,</math>.
  543 B (107 words) - 18:07, 15 October 2008
• Examples ECE301Fall2008mboutin
  The impulse response of an LTI system is <math>h(t)=e^{-2t}u(t)+u(t+2)-u(t-2)</math>. What is the Frequency response <math>H(j\omega)</math> of the system?
  4 KB (753 words) - 16:48, 23 April 2013
• Midterm Exam Div 2 Fall 2006 Solution ECE301Fall2008mboutin
  ...thcal{F}((a)^n u[n]) = \frac{1}{1-a}, a<0 \,</math>, thus the unit impulse response for <math>\mathcal{X}(\omega)\,</math> is ...is <math> \frac{1}{1-ae^{-j\omega}}, a<1 \,</math>, thus the unit impulse response for <math>\mathcal{X}(\omega)\,</math> is
  11 KB (1,951 words) - 03:48, 25 March 2011
• Tyler Houlihan - Difference equations - a few examples with Partial Fraction Expansion explanation ECE301Fall2008mboutin
  ...a})</math>, the unit impulse response <math>\,h[n]</math>, or the system's response to an input <math>\,x[n]</math>.
  4 KB (633 words) - 11:13, 24 October 2008