1
GATE EE 2003
MCQ (Single Correct Answer)
+2
-0.6
List $$-$$ $${\rm I}$$ represents the figures obtained on a $$CRO$$ screen when the voltage signals $$\,{V_X}\,\, = \,\,{V_{Xm}}\sin \,\,\omega t\,\,$$ and $$V_y^ \cdot \,\, = \,\,{V_{ym}}\sin \,\,\left( {\omega t + \Phi } \right)\,\,$$ are given to its $$X$$ and $$Y$$ plates respectively and $$\Phi $$ is changed. Choose the correct value of $$\Phi $$ from List $$-$$ $${\rm I}$$ to match with the corresponding figure of List $$-$$ $${\rm II}$$. GATE EE 2003 Electrical and Electronics Measurement - Cathode Ray Oscilloscope Question 7 English 1 GATE EE 2003 Electrical and Electronics Measurement - Cathode Ray Oscilloscope Question 7 English 2
A
$$A = 1,\,B = 3,\,\,C = 6,\,\,D = 5$$
B
$$A = 2,\,B = 6,\,\,C = 4,\,\,D = 5$$
C
$$A = 2,\,B = 3,\,\,C = 5,\,\,D = 4$$
D
$$A = 1,\,B = 5,\,\,C = 6,\,\,D = 4$$
2
GATE EE 2003
MCQ (Single Correct Answer)
+2
-0.6
The simplified block diagram of a $$10$$bit A/D converter of dual slope integrator type is shown in fig. The $$10$$-bit counter at the output is clocked by a $$1MHz$$ clock. Assuming negligible timing overhead for the control logic, the maximum frequency of the analog signal that can be converted using this A/D converter is approximately. GATE EE 2003 Electrical and Electronics Measurement - Digital Voltmeters Questions Question 3 English
A
$$2$$ $$kHz$$
B
$$1$$ $$kHz$$
C
$$500Hz$$
D
$$250Hz$$
3
GATE EE 2003
MCQ (Single Correct Answer)
+2
-0.6
An ac voltmeter uses the circuit shown below, where the $$PMMC$$ meter has an internal resistance of $$100$$$$\Omega $$ and requires a dc current of $$1$$ $$mA$$ for full scale deflection. Assuming the diodes to be ideal, the value of $${R_s}$$ to obtain full scale deflection with $$100$$ $$V$$ (ac rms) applied to the input terminal would be GATE EE 2003 Electrical and Electronics Measurement - Basic of Indicating Instruments Question 18 English
A
$$80\,\,k\Omega $$
B
$$89\,\,k\Omega $$
C
$$89.9\,\,k\Omega $$
D
$$90\,\,k\Omega $$
4
GATE EE 2003
MCQ (Single Correct Answer)
+2
-0.6
The inductance of a certain moving-iron ammeter is expressed as $$L = 10 + 3\theta - {{{\theta ^2}} \over 4}\mu H,\,\,$$ where $$\,\,\theta \,\,\,$$ is the deflection in radians from the zero position. The control spring torque in $$\,\,25\,\, \times \,\,{10^{ - 6}}\,\,\,$$ Nm/radian. The deflection of the pointer in radian when the meter carries a current of $$5A,$$ is
A
$$2.4$$
B
$$2.0$$
C
$$1.2$$
D
$$1.0$$