Questions by admin / GO Electronics

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1441

GATE ECE 2008 | Question: 20
Consider the amplitude modulated (AM) signal $A_{c} \cos \omega_{c} t+2 \cos \omega_{m} t \cos \omega_{c} t$. For demodulating the signal using envelope detector, the minimum value of $A_{c}$ should be $2$ $1$ $0.5$ $0$

Consider the amplitude modulated (AM) signal $A_{c} \cos \omega_{c} t+2 \cos \omega_{m} t \cos \omega_{c} t$. For demodulating the signal using envelope detector, the min...

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asked Sep 17, 2022

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1442

GATE ECE 2008 | Question: 21
The Thevenin equivalent impedance $\text{Z}_{\text {th }}$ between the nodes $\text{P}$ and $\text{Q}$ in the following circuit is $1$ $1+s+\frac{1}{s}$ $2+s+\frac{1}{s}$ $\frac{s^{2}+s+1}{s^{2}+2 s+1}$

The Thevenin equivalent impedance $\text{Z}_{\text {th }}$ between the nodes $\text{P}$ and $\text{Q}$ in the following circuit is$1$$1+s+\frac{1}{s}$$2+s+\frac{1}{s}$$\f...

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asked Sep 17, 2022

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1443

GATE ECE 2008 | Question: 22
The driving point impedance of the following network is given by $Z(s)=\frac{0.2 s}{s^{2}+0.1 s+2}$. The component values are $\begin{array}{lll} \mathrm{L}=5 \mathrm{~H}, & \mathrm{R}=0.5 \; \Omega, & \mathrm{C}=0.1 \mathrm{~F} \end{array}$ ...

The driving point impedance of the following networkis given by $Z(s)=\frac{0.2 s}{s^{2}+0.1 s+2}$. The component values are$\begin{array}{lll} \mathrm{L}=5 \mathrm{~H}, ...

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asked Sep 17, 2022

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1444

GATE ECE 2008 | Question: 23
The circuit shown in the figure is used to charge the capacitor $\mathrm{C}$ alternately from two current sources as indicated. The switches $\text{S1}$ and $\text{S2}$ ... $\displaystyle{}\sum_{n=0}^{\infty}\left[0.5-e^{-(t-2 n T)}+0.5 e^{-(t-2 n T-T)}\right]$

The circuit shown in the figure is used to charge the capacitor $\mathrm{C}$ alternately from two current sources as indicated. The switches $\text{S1}$ and $\text{S2}$ a...

178 views

asked Sep 17, 2022

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1445

GATE ECE 2008 | Question: 24
The probability density function (PDF) of a random variable $\mathrm{X}$ is as shown below. The corresponding cumulative distribution function (CDF) has the form

The probability density function (PDF) of a random variable $\mathrm{X}$ is as shown below.The corresponding cumulative distribution function (CDF) has the form

104 views

asked Sep 17, 2022

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1446

GATE ECE 2008 | Question: 25
The recursion relation to solve $x=e^{-x}$ using Newton-Raphson method is $x_{n+1}=e^{-x_{n}}$ $x_{n+1}=x_{n}-e^{-x_{n}}$ $x_{n+1}=\left(1+x_{n}\right) \frac{e^{-x_{n}}}{1+e^{-x_{n}}}$ $x_{n+1}=\frac{x_{n}^{2}-e^{-x_{n}}\left(1+x_{n}\right)-1}{x_{n}-e^{-x_{n}}}$

The recursion relation to solve $x=e^{-x}$ using Newton-Raphson method is$x_{n+1}=e^{-x_{n}}$$x_{n+1}=x_{n}-e^{-x_{n}}$$x_{n+1}=\left(1+x_{n}\right) \frac{e^{-x_{n}}}{1+e...

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asked Sep 17, 2022

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1447

GATE ECE 2008 | Question: 26
The residue of the function $f(z)=\dfrac{1}{(z+2)^{2}(z-2)^{2}}$ at $z=2$ is $-\;\frac{1}{32}$ $-\;\frac{1}{16}$ $\frac{1}{16}$ $\frac{1}{32}$

The residue of the function $f(z)=\dfrac{1}{(z+2)^{2}(z-2)^{2}}$ at $z=2$ is$-\;\frac{1}{32}$$-\;\frac{1}{16}$$\frac{1}{16}$$\frac{1}{32}$

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asked Sep 17, 2022

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1448

GATE ECE 2008 | Question: 27
Consider the matrix $\mathbf{P}=\left[\begin{array}{cc}0 & 1 \\ -2 & -3\end{array}\right]$. The value of $\mathbf{e}^{\mathbf{P}}$ ...

Consider the matrix $\mathbf{P}=\left[\begin{array}{cc}0 & 1 \\ -2 & -3\end{array}\right]$. The value of $\mathbf{e}^{\mathbf{P}}$ is$\left[\begin{array}{cc}2 e^{-2}-3 e^...

104 views

asked Sep 17, 2022

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2 answers

1449

GATE ECE 2008 | Question: 28
In the Taylor series expansion of $\exp (x)+\sin (x)$ about the point $x=\pi$, the coefficient of $(x-\pi)^{2}$ is $\exp (\pi)$ $0.5 \exp (\pi)$ $\exp (\pi)+1$ $\exp (\pi)-1$

In the Taylor series expansion of $\exp (x)+\sin (x)$ about the point $x=\pi$, the coefficient of $(x-\pi)^{2}$ is$\exp (\pi)$$0.5 \exp (\pi)$$\exp (\pi)+1$$\exp (\pi)-1$...

300 views

asked Sep 17, 2022

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1450

GATE ECE 2008 | Question: 29
$P_{X}(x)=M \exp (-2|x|)+N \exp (-3|x|)$ is the probability density function for the real random variable $X$, over the entire $x$ axis. $M$ and $N$ are both positive real numbers. The equation relating $M$ and $N$ is $M+\frac{2}{3} N=1$ $2 M+\frac{1}{3} N=1$ $M+N=1$ $M+N=3$

$P_{X}(x)=M \exp (-2|x|)+N \exp (-3|x|)$ is the probability density function for the real random variable $X$, over the entire $x$ axis. $M$ and $N$ are both positive rea...

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asked Sep 17, 2022

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1451

GATE ECE 2008 | Question: 30
The value of the integral of the function $g(x, y)=4 x^{3}+10 y^{4}$ along the straight line segment from the point $(0,0)$ to the point $(1,2)$ in the $x\text{-}y$ plane is $33$ $35$ $40$ $56$

The value of the integral of the function $g(x, y)=4 x^{3}+10 y^{4}$ along the straight line segment from the point $(0,0)$ to the point $(1,2)$ in the $x\text{-}y$ plane...

103 views

asked Sep 17, 2022

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1452

GATE ECE 2008 | Question: 31
A linear, time-invariant, causal continuous time system has a rational transfer function with simple poles at $s=-2$ and $s=-4$, and one simple zero at $s=-1$. A unit step $u(t)$ is applied at the input of the system. At steady state, the output has constant value of $1.$ The impulse response ... $[-0.5 \exp (-2 t)+1.5 \exp (-4 t)] u(t)$

A linear, time-invariant, causal continuous time system has a rational transfer function with simple poles at $s=-2$ and $s=-4$, and one simple zero at $s=-1$. A unit ste...

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asked Sep 17, 2022

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1453

GATE ECE 2008 | Question: 32
The signal $x(t)$ is described by $x(t)=\left\{\begin{array}{ll} 1 & \text { for }-1 \leq t \leq+1 \\ 0 & \text { otherwise } \end{array}\right.$ Two of the angular frequencies at which its Fourier transform becomes zero are $\pi, 2 \pi$ $0.5 \pi, 1.5 \pi$ $0, \pi$ $2 \pi, 2.5 \pi$

The signal $x(t)$ is described by$x(t)=\left\{\begin{array}{ll}1 & \text { for }-1 \leq t \leq+1 \\0 & \text { otherwise }\end{array}\right.$Two of the angular frequencie...

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asked Sep 17, 2022

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1454

GATE ECE 2008 | Question: 33
A discrete time linear shift-invariant system has an impulse response $h[n]$ with $h[0]=1, h[1]=-1$, $h[2]=2$, and zero otherwise. The system is given an input sequence $x[n]$ with $x[0]=x[2]=1$, and zero otherwise. The number of nonzero samples in the output sequence $y[n]$, and the value of $y[2]$ are, respectively $5,2$ $6,2$ $6,1$ $5,3$

A discrete time linear shift-invariant system has an impulse response $h[n]$ with $h[0]=1, h =-1$, $h =2$, and zero otherwise. The system is given an input sequence $x[n]...

107 views

asked Sep 17, 2022

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1455

GATE ECE 2008 | Question: 34
Consider points $\mathrm{P}$ and $\mathrm{Q}$ in the $x\text{-}y$ plane, with $P=(1,0)$ and $Q=(0,1)$. The line integral $\displaystyle{}2 \int_{P}^{Q}(x d x+y d y)$ along the semicircle with the line segment $P Q$ as its diameter is $-1$ is $0$ is $1$ depends on the direction (clockwise or anti-clockwise) of the semicircle

Consider points $\mathrm{P}$ and $\mathrm{Q}$ in the $x\text{-}y$ plane, with $P=(1,0)$ and $Q=(0,1)$. The line integral $\displaystyle{}2 \int_{P}^{Q}(x d x+y d y)$ alon...

100 views

asked Sep 17, 2022

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1456

GATE ECE 2008 | Question: 35
Let $x(t)$ be the input and $y(t)$ be the output of a continuous time system. Match the system properties $\mathrm{P} 1, \mathrm{P} 2$ and $\mathrm{P} 3$ with system relations $\mathrm{R} 1, \mathrm{R} 2, \mathrm{R} 3, \mathrm{R} 4 .$ ... $\text{(P1, R3), (P2, R1), (P3, R2)}$ $\text{(P1, R1), (P2, R2), (P3, R3)}$

Let $x(t)$ be the input and $y(t)$ be the output of a continuous time system. Match the system properties $\mathrm{P} 1, \mathrm{P} 2$ and $\mathrm{P} 3$ with system rela...

140 views

asked Sep 17, 2022

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1457

GATE ECE 2008 | Question: 36
A memoryless source emits $n$ symbols each with a probability $p$. The entropy of the source as a function of $n$ increases as $\log n$ decreases as $\log (1 / n)$ increases as $n$ increases as $n \log n$

A memoryless source emits $n$ symbols each with a probability $p$. The entropy of the source as a function of $n$increases as $\log n$decreases as $\log (1 / n)$increases...

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asked Sep 17, 2022

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1458

GATE ECE 2008 | Question: 37
$\{x(n)\}$ is a real-valued periodic sequence with a period N. $x(n)$ and $X(k)$ form $\mathrm{N}$-point Discrete Fourier Transform (DFT) pairs. The DFT $Y(k)$ of the sequence $\displaystyle{}y(n)=\frac{1}{N} \sum_{r=0}^{N-1} x(r) x(n+r)$ is $|X(k)|^{2}$ ... $\displaystyle{}\frac{1}{N} \sum_{r=0}^{N-1} X(r) X(k+r)$ $0$

$\{x(n)\}$ is a real-valued periodic sequence with a period N. $x(n)$ and $X(k)$ form $\mathrm{N}$-point Discrete Fourier Transform (DFT) pairs. The DFT $Y(k)$ of the seq...

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asked Sep 17, 2022

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1459

GATE ECE 2008 | Question: 38
$\text{Group I}$ lists a set of four transfer functions. $\text{Group II}$ gives a list of possible step responses $y(t)$. Match the step responses with the corresponding transfer functions. $\textbf{Group I}$ \[ P=\frac{25}{s^{2}+25} \quad Q=\frac{36}{s^{2}+20 s+36} \quad R=\frac{36}{s^ ... $\text{P-2, Q-1, R-4, S-3}$ $\text{P-3, Q-4, R-1, S-2}$

$\text{Group I}$ lists a set of four transfer functions. $\text{Group II}$ gives a list of possible step responses $y(t)$. Match the step responses with the corresponding...

115 views

asked Sep 17, 2022

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1460

GATE ECE 2008 | Question: 39
A certain system has transfer function $G(s)=\dfrac{s+8}{s^{2}+\alpha s-4}$, where $\alpha$ is a parameter. Consider the standard negative unity feedback configuration as shown below. Which of the following statements is true? The closed loop ... , the closed loop system is stable. The closed loop system is stable for all values of $\alpha$, both positive and negative.

A certain system has transfer function $G(s)=\dfrac{s+8}{s^{2}+\alpha s-4}$, where $\alpha$ is a parameter. Consider the standard negative unity feedback configuration as...

281 views

asked Sep 17, 2022

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1461

GATE ECE 2008 | Question: 40
A signal flow graph of a system is given below. The set of equations that correspond to this signal flow graph is ...

A signal flow graph of a system is given below.The set of equations that correspond to this signal flow graph is$\dfrac{d}{d t}\left(\begin{array}{l}x_{1} \\ x_{2} \\ x_{...

54 views

asked Sep 17, 2022

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1462

GATE ECE 2008 | Question: 41
The number of open right half plane poles of $G(s)=\dfrac{10}{s^{5}+2 s^{4}+3 s^{3}+6 s^{2}+5 s+3}$ is $0$ $1$ $2$ $3$

The number of open right half plane poles of $G(s)=\dfrac{10}{s^{5}+2 s^{4}+3 s^{3}+6 s^{2}+5 s+3}$ is$0$$1$$2$$3$

36 views

asked Sep 17, 2022

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1463

GATE ECE 2008 | Question: 42
The magnitude of frequency response of an underdamped second order system is $5$ at $0 \; \mathrm{rad} / \mathrm{sec}$ and peaks to $\dfrac{10}{\sqrt{3}}$ at $5 \sqrt{2} \; \mathrm{rad} / \mathrm{sec}$. The transfer function of the system is $\frac{500}{s^{2}+10 s+100}$ $\frac{375}{s^{2}+5 s+75}$ $\frac{720}{s^{2}+12 s+144}$ $\frac{1125}{s^{2}+25 s+225}$

The magnitude of frequency response of an underdamped second order system is $5$ at $0 \; \mathrm{rad} / \mathrm{sec}$ and peaks to $\dfrac{10}{\sqrt{3}}$ at $5 \sqrt{2} ...

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asked Sep 17, 2022

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1464

GATE ECE 2008 | Question: 43
$\text{Group I}$ gives two possible choices for the impedance $\mathrm{Z}$ in the diagram. The circuit elements in $\mathrm{Z}$ satisfy the condition $R_{2} C_{2}>R_{1} C_{1}$. The transfer function $\dfrac{V_{o}}{V_{i}}$ ... $\text{Q-1, R-2}$ $\text{Q-1, R-3}$ $\text{Q-2, R-3}$ $\text{Q-3, R-2}$

$\text{Group I}$ gives two possible choices for the impedance $\mathrm{Z}$ in the diagram. The circuit elements in $\mathrm{Z}$ satisfy the condition $R_{2} C_{2}>R_{1} C...

67 views

asked Sep 17, 2022

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1465

GATE ECE 2008 | Question: 44
For the circuit shown in the following figure, transistors $\text{M1}$ and $\text{M2}$ are identical $\text{NMOS}$ transistors. Assume that $\mathrm{M} 2$ is in saturation and the output is unloaded. The current $I_{X}$ is related to $I_{\text {bias }}$ ... $I_{X}=I_{\text {bias }}-\left(V_{D D}-\frac{V_{\text {out}}}{R_{E}}\right)$

For the circuit shown in the following figure, transistors $\text{M1}$ and $\text{M2}$ are identical $\text{NMOS}$ transistors. Assume that $\mathrm{M} 2$ is in saturatio...

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asked Sep 17, 2022

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1466

GATE ECE 2008 | Question: 45
The measured transconductance $g_{m}$ of an $\text{NMOS}$ transistor operating in the linear region is plotted against the gate voltage $V_{G}$ at a constant drain voltage $V_{D}$. Which of the following figures represents the expected dependence of $g_{m}$ on $V_{G}?$

The measured transconductance $g_{m}$ of an $\text{NMOS}$ transistor operating in the linear region is plotted against the gate voltage $V_{G}$ at a constant drain voltag...

61 views

asked Sep 17, 2022

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1467

GATE ECE 2008 | Question: 46
Consider the following circuit using an ideal $\text{OPAMP}$. The $\text{I-V}$ characteristics of the diode is described by the relation $I=I_{0}\left(e^{\frac{V}{V_{T}}}-1\right)$ where $V_{T}=25 \; \mathrm{mV}, I_{0}=1 \; \mu \mathrm{A}$ and $\mathrm{V}$ is the ... $V_{o}$ is $0 \mathrm{~V}$ $0.1 \mathrm{~V}$ $0.7 \mathrm{~V}$ $1.1 \mathrm{~V}$

Consider the following circuit using an ideal $\text{OPAMP}$. The $\text{I-V}$ characteristics of the diode is described by the relation $I=I_{0}\left(e^{\frac{V}{V_{T}}}...

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asked Sep 17, 2022

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1468

GATE ECE 2008 | Question: 47
The OPAMP circuit shown above represents a high pass filter low pass filter band pass filter band reject filter

The OPAMP circuit shown above represents ahigh pass filterlow pass filterband pass filterband reject filter

25 views

asked Sep 17, 2022

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0 answers

1469

GATE ECE 2008 | Question: 48
Two identical $\text{NMOS}$ transistors $\text{M1}$ and $\text{M2}$ are connected as shown below. $\mathrm{V}_{\text {bias }}$ is chosen so that both transistors are in saturation. The equivalent $g_{m}$ ... transistors nearly equal to the $g_{m}$ of $\mathrm{Ml}$ nearly equal to $g_{m} / g_{o}$ of $\mathrm{M} 2$

Two identical $\text{NMOS}$ transistors $\text{M1}$ and $\text{M2}$ are connected as shown below. $\mathrm{V}_{\text {bias }}$ is chosen so that both transistors are in s...

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asked Sep 17, 2022

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0 answers

1470

GATE ECE 2008 | Question: 49
An $8085$ executes the following instructions $\begin{array}{lll} 2710 & \text { LXI} & \text{H,} & \text{30A0H } \\ 2713 & \text { DAD} & \text{H } \\ 2714 & \text { PCHL } \end{array}$ All addresses and constants are in Hex. ... $ \begin{array}{} \mathrm{PC}=6140 \mathrm{H} \\ \mathrm{HL}=2715 \mathrm{H} \end{array}$

An $8085$ executes the following instructions$\begin{array}{lll}2710 & \text { LXI} & \text{H,} & \text{30A0H } \\2713 & \text { DAD} & \text{H } \\2714 & \text { PCHL ...

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asked Sep 17, 2022

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0 answers

1471

GATE ECE 2008 | Question: 50
An astable multivibrator circuit using $\text{IC 555}$ timer is shown below. Assume that the circuit is oscillating steadily. The voltage $V_{C}$ across the capacitor varies between $3 \mathrm{V}$ to $5 \mathrm{V}$ $3 \mathrm{V}$ to $6 \mathrm{V}$ $3.6 \mathrm{V}$ to $6 \mathrm{V}$ $3.6 \mathrm{V}$ to $5 \mathrm{V}$

An astable multivibrator circuit using $\text{IC 555}$ timer is shown below. Assume that the circuit is oscillating steadily.The voltage $V_{C}$ across the capacitor vari...

50 views

asked Sep 17, 2022

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0 answers

1472

GATE ECE 2008 | Question: 51
Silicon is doped with boron to a concentration of $4 \times 10^{17}$ atoms $/ \mathrm{cm}^{3}$. Assume the intrinsic carrier concentration of silicon to be $1.5 \times 10^{10} / \mathrm{cm}^{3}$ and the value of $\dfrac{k T}{q}$ to be $25 \; \mathrm{mV}$ ... $0.13 \; \mathrm{eV}$ goes down by $0.427 \; \mathrm{eV}$ goes up by $0.427 \; \mathrm{eV}$

Silicon is doped with boron to a concentration of $4 \times 10^{17}$ atoms $/ \mathrm{cm}^{3}$. Assume the intrinsic carrier concentration of silicon to be $1.5 \times 10...

32 views

asked Sep 17, 2022

1 votes

0 answers

1473

GATE ECE 2008 | Question: 52
The cross section of a $\text{JFET}$ is shown in the following figure. Let $V_{G}$ be $-2 \mathrm{~V}$ and let $V_{P}$ be the initial pinch-off voltage. If the width $\mathrm{W}$ is doubled (with other geometrical parameters and doping levels remaining the same), then ... $\frac{1-\left(2 / \sqrt{V_{p}}\right)}{1-\left(1 /\left(2 \sqrt{V_{p}}\right)\right)}$

The cross section of a $\text{JFET}$ is shown in the following figure. Let $V_{G}$ be $-2 \mathrm{~V}$ and let $V_{P}$ be the initial pinch-off voltage. If the width $\ma...

27 views

asked Sep 17, 2022

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1474

GATE ECE 2008 | Question: 53
Consider the Schmidt trigger circuit shown below. A triangular wave which goes from $-12 \mathrm{~V}$ to $12 \mathrm{~V}$ is applied to the inverting input of the $\text{OPAMP}$. Assume that the output of the $\text{OPAMP}$ swings from $+15 \mathrm{~V}$ to $-15 \mathrm{~V}$. ... $+7.5 \mathrm{~V}$ $-5 \mathrm{~V}$ and $+5 \mathrm{~V}$ $0 \mathrm{~V}$ and $5 \mathrm{~V}$

Consider the Schmidt trigger circuit shown below.A triangular wave which goes from $-12 \mathrm{~V}$ to $12 \mathrm{~V}$ is applied to the inverting input of the $\text{O...

29 views

asked Sep 17, 2022

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0 answers

1475

GATE ECE 2008 | Question: 54
The logic function implemented by the following circuit at the terminal $\text{OUT}$ is $\text{P NOR Q}$ $\text{P NAND Q}$ $\text{P OR Q}$ $\text{P AND Q}$

The logic function implemented by the following circuit at the terminal $\text{OUT}$ is$\text{P NOR Q}$$\text{P NAND Q}$$\text{P OR Q}$$\text{P AND Q}$

29 views

asked Sep 17, 2022

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0 answers

1476

GATE ECE 2008 | Question: 55
Consider the following assertions. $\text{S1:}$ For Zener effect to occur, a very abrupt junction is required. $\text{S2:}$ For quantum tunneling to occur, a very narrow energy barrier is required. Which of the following is correct? Only $\text{S2}$ ... true and $\mathrm{S} 2$ is a reason for $\mathrm{S} 1$ Both $\text{S1}$ and $\text{S2}$ are false

Consider the following assertions.$\text{S1:}$ For Zener effect to occur, a very abrupt junction is required.$\text{S2:}$ For quantum tunneling to occur, a very narrow en...

29 views

asked Sep 17, 2022

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1477

GATE ECE 2008 | Question: 56
The two numbers represented in signed $2\text{'s}$ complement form are $\mathrm{P}=11101101$ and $\mathrm{Q}=11100110$. If $\mathrm{Q}$ is subtracted from $\mathrm{P}$, the value obtained in signed $2\text{'s}$ complement form is $100000111$ $00000111$ $11111001$ $111111001$

The two numbers represented in signed $2\text{'s}$ complement form are $\mathrm{P}=11101101$ and $\mathrm{Q}=11100110$. If $\mathrm{Q}$ is subtracted from $\mathrm{P}$, t...

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asked Sep 17, 2022

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0 answers

1478

GATE ECE 2008 | Question: 57
Which of the following Boolean Expressions correctly represents the relation between $\text{P, Q, R}$ and $\mathrm{M}_{1}?$ $\text{M}_{1} = \text{(P OR Q) XOR R}$ $\text{M}_{1} = \text{(P AND Q) XOR R}$ $\text{M}_{1} = \text{(P NOR Q) XOR R}$ $\text{M}_{1} = \text{(P XOR Q) XOR R}$

Which of the following Boolean Expressions correctly represents the relation between $\text{P, Q, R}$ and $\mathrm{M}_{1}?$ $\text{M}_{1} = \text{(P OR Q) XOR R}$$\text{M...

29 views

asked Sep 17, 2022

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0 answers

1479

GATE ECE 2008 | Question: 58
For the circuit shown in the following figure, $\mathrm{I}_{0}\text{-}\mathrm{I}_{3}$ are inputs to the $4: 1$ multiplexer. $\mathrm{R~(MSB)}$ and $\mathrm{S}$ are control bits. The output $\text{Z}$ ...

For the circuit shown in the following figure, $\mathrm{I}_{0}\text{-}\mathrm{I}_{3}$ are inputs to the $4: 1$ multiplexer. $\mathrm{R~(MSB)}$ and $\mathrm{S}$ are contro...

115 views

asked Sep 17, 2022

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0 answers

1480

GATE ECE 2008 | Question: 59
For each of the positive edge-triggered $\text{J-K}$ flip flop used in the following figure, the propagation delay is $\Delta T$. Which of the following waveforms correctly represents the output at $\mathrm{Q}_{1}?$

For each of the positive edge-triggered $\text{J-K}$ flip flop used in the following figure, the propagation delay is $\Delta T$.Which of the following waveforms correctl...

32 views

asked Sep 17, 2022