![Ans 2.45) h[n] = u [n]. for the BTBo stability, the necessary and malbad <co sufferent condition is that In cw Cose- - ادا اد](http://img.homeworklib.com/questions/205c8d50-4000-11eb-a8db-ed4ff94e00a2.png?x-oss-process=image/resize,w_560)

![..HG) = 1-2 S+2 .HC) =s - st2 W X© 2{act)? =hluct)} ExG) - L - YG) - HC)x() - -[from W) and Cu).] .: Y(s) = 1 S+2 1. y(t) = 2](http://img.homeworklib.com/questions/22025a30-4000-11eb-8974-55a2380fe831.png?x-oss-process=image/resize,w_560)
2.45,2.48 explain clearly please Signals and Systems: A Primer with MATLAB 104 20 1H y(t) x(t)...
a) Two bandpass signals are added together. j2rfet j2Tfet y(t)-Re y(t)e v(t)-x(t) y(t) v(t) may be represented as, What is v(t) as a function of (t) and y(t)? b) Suppose that a bandpass filter with centre frequency f has an impulse response h(t). Since h(t) is a bandpass function, it has the complex envelope representation, h (t) = Re[h(t)e'2n4 ], where h(t ) is the complex envelope of h (t) Suppose that s(t) is filtered with the filter with impulse...
0.5 F 20 u(t) v 1H Network for Problem 2 e. Find the s-domain current lab(s), delivered by the network to the RL load connected between terminals ab. f. Find the Transfer Function H(s) considering that the Input is the network voltage source Vs(s), and that the Output is the current lad() of item , immediately above. & Use H(s) to derive the Impulse Response h(t) of the network h. Write an expression for the Output Current lab() exclusively in...
1. (20 p) Compute and sketch the output y(t) of the continuous-time LTI system with impulse response h(t) = el-tuſt - 1)for an input signal x(t) = u(t) - ut - 3). 2. (20p) Consider an input x[n] and an unit impulse response h[n] given by n-2 x[n] = (4)”- u[n – 2] h[n] = u(n + 2] Determine and plot the output y[n] = x[n] *h[n].
QUESTION 2 (20 MARKS) (a) A continuous time signal x(t) = 3e2tu(-t) is an input to a Linear Time Invariant system of which the impulse response h(t) is shown as h(t) = { .. 12, -osts-2 elsewhere Compute the output y(t) of the system above using convolution in time domain for all values of time t. [8 marks) (b) The impulse response h[n] of an LTI system is given as a[n] = 4(0.6)”u[n] Determine if the system is stable. [3...
Problem 4: Evaluation of the convolution integral too y(t) = (f * h)(t) = f(t)h(t – 7)dt is greatly simplified when either the input f(t) or impulse response h(t) is the sum of weighted impulse functions. This fact will be used later in the semester when we study the operation of communication systems using Fourier analysis methods. a) Use the convolution integral to prove that f(t) *8(t – T) = f(t – T) and 8(t – T) *h(t) = h(t...
Problem 4.1
For the circuit shown in figure 4.1, there is no initial energy
storage and v = 10u(t) V
Please explain clearly! Thanks!
Problem 4.1 2.5 H For the circuit shown in figure 4.1, there is no initial energy storage and v- 10 u(t) V (a) Obtain the circuit in the s-domain (b) Determine the current Los) (c) Determine for io(t) for t>0. 10Ω to 5 H 4 H Fig. 4.1
Problem 4.1 2.5 H For the circuit shown...
solve 2.40 a,b,c, e using Fourier series.
2.40 part a,b,c,e 2.40 Consider the continuous-time signals depicted in Fig. P2.40. Evaluate the following convolution integrals: (a) m(t) x(t) y(t) (b) m(t)x(t)z(t) (c) m(t) x(t) ft) (d) m(t) x(t) a(t) (e) m(t)y(t) z(t) (f) m(t) -y(t) w(t) (g) m(t) y(t)g(t) (h) m(t)y(t) c(t) (i) m(t) z(t) f(t) (j) m(t) z(t) g(t) (k) m(t) z(t)b(t) (1) m(t) w(t) g(t) (m) m(t) w(t) a(t) (n) m(t) f(t) g(t (o) m(t) fo) . do) (p)...