Impulse response of a discrete time system h[n] and an input x[n] has been given for a linear shift invariant (LSI) system as follows: h[n]u[n+2]-u[n-1] x[n] = 8[n]-8[n 1] (a) Plot the system function h[n] and the input x[n]. (b) Specify and plot response of the system (n)) for the input x[n] using convolution sum (analytical method). (e) Specify whether the system is causal or not by indicating a reason.
Impulse response of a discrete time system h[n] and an input x[n] has been given for a linear shift invariant (LSI) system as follows: h[n]u[n+2]-u[n-1] x[n] = 8[n]-8[n 1] (a) Plot the system function h[n] and the input x[n]. (b) Specify and plot response of the system (n)) for the input x[n] using convolution sum (analytical method). (e) Specify whether the system is causal or not by indicating a reason.
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DISCRETE SYSTEM PROBLEM( NEED NEAT HANDWRITTEN SOLUTION ONLY OTHERWISE DOWNVOTE).
![**Discrete Time System Analysis**
_Impulse response of a discrete-time system \( h[n] \) and an input \( x[n] \) has been given for a linear shift-invariant (LSI) system as follows:_
\[ h[n] = u[n+2] - u[n-1] \]
\[ x[n] = \delta[n] - \delta[n-1] \]
### Problem Statement:
**(a)** Plot the system function \( h[n] \) and the input \( x[n] \).
**(b)** Specify and plot the response of the system \( y[n] \) for the input \( x[n] \) using convolution sum (analytical method).
**(c)** Specify whether the system is causal or not by indicating a reason.
---
**Explanation of Symbols and Functions:**
- \( u[n] \): Unit step function. \( u[n] = 0 \) for \( n < 0 \) and \( u[n] = 1 \) for \( n \geq 0 \).
- \( \delta[n] \): Unit impulse function. \( \delta[n] = 1 \) for \( n = 0 \) and \( \delta[n] = 0 \) for \( n \neq 0 \).
### Detailed Steps to Solution:
**(a) Plots:**
- **System Function \( h[n] \):**
The unit step function \( u[n+k] = 1 \) for \( n \geq -k \).
Therefore:
- \( u[n+2] \): This function shifts the unit step function to the left by 2 units.
- \( -u[n-1] \): This function shifts the unit step function to the right by 1 unit and inverts it.
The combination \( u[n+2] - u[n-1] \) results in a function that equals 1 between the shifted locations of the unit step functions (i.e., from \( n = -2 \) to \( n = 0 \)).
- **Input \( x[n] \):**
The input \( x[n] = \delta[n] - \delta[n-1] \) is a combination of two impulse functions. It consists of an impulse at \( n = 0 \) and an inverted impulse at \( n = 1 \).
**(b)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F0aee0e3d-a57d-4304-8930-413dab086e20%2F96644fba-56fc-4296-9a83-09b8c03f9b0e%2Fxnlenxb_processed.jpeg&w=3840&q=75)
Transcribed Image Text:**Discrete Time System Analysis**
_Impulse response of a discrete-time system \( h[n] \) and an input \( x[n] \) has been given for a linear shift-invariant (LSI) system as follows:_
\[ h[n] = u[n+2] - u[n-1] \]
\[ x[n] = \delta[n] - \delta[n-1] \]
### Problem Statement:
**(a)** Plot the system function \( h[n] \) and the input \( x[n] \).
**(b)** Specify and plot the response of the system \( y[n] \) for the input \( x[n] \) using convolution sum (analytical method).
**(c)** Specify whether the system is causal or not by indicating a reason.
---
**Explanation of Symbols and Functions:**
- \( u[n] \): Unit step function. \( u[n] = 0 \) for \( n < 0 \) and \( u[n] = 1 \) for \( n \geq 0 \).
- \( \delta[n] \): Unit impulse function. \( \delta[n] = 1 \) for \( n = 0 \) and \( \delta[n] = 0 \) for \( n \neq 0 \).
### Detailed Steps to Solution:
**(a) Plots:**
- **System Function \( h[n] \):**
The unit step function \( u[n+k] = 1 \) for \( n \geq -k \).
Therefore:
- \( u[n+2] \): This function shifts the unit step function to the left by 2 units.
- \( -u[n-1] \): This function shifts the unit step function to the right by 1 unit and inverts it.
The combination \( u[n+2] - u[n-1] \) results in a function that equals 1 between the shifted locations of the unit step functions (i.e., from \( n = -2 \) to \( n = 0 \)).
- **Input \( x[n] \):**
The input \( x[n] = \delta[n] - \delta[n-1] \) is a combination of two impulse functions. It consists of an impulse at \( n = 0 \) and an inverted impulse at \( n = 1 \).
**(b)
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