Answer these 100+ Circuit Design MCQs and assess your grip on the subject of Circuit Design.
Scroll below and get started!
A. capacitors
B. diodes
C. resistors
D. inductors
A. inductors and resistors
B. inductors and capacitors
C. resistors and capacitors
D. resistors and transistors
A. Because the network employs one or more inductors, elements that are traditionally abbreviated with the symbol "L."
B. Because it is similar to a launch pad in terms of the large amount of power throughput enabled by a favorable impedance match.
C. Because the two resistors in the network are traditionally oriented in the shape of the capital letter "L" on schematic drawings.
D. Because it was named in honor of Hendrik Lorentz, an early electromagnetic theorist.
A. inductor
B. diode
C. transistor
D. vacuum tube
A. 0.6 Ohm
B. 377 Ohm
C. 50 Ohm
D. 1 million Ohm
A. L
B. Q
C. R
D. T
A. a thick layer of dielectric has a higher breakdown voltage than a thinner layer of the same dielectric
B. a thin layer of dielectric has a higher breakdown voltage than a thicker layer of the same dielectric
C. the thickness of a dielectric does not affect its breakdown voltage
A. potentiometer
B. rheostat
C. varistor
A. photodiode
B. relay
C. piezoelectric crystal
A. Z2 . Vin
B. Z1 . Vin
C. [Z2 / (Z1 + Z2)] . Vin
D. [Z1 / (Z1 + Z2)] . Vin
A. True
B. False
A. NAND
B. OR
C. AND
D. NOR
A. low-pass filter
B. band pass filter
C. high-pass filter
A. inductor
B. capacitor
C. resistor
D. transistor
A. transformer
B. balun
C. capacitor
D. diode
A. False
B. True
A. The lights must be wired in series with each other.
B. The lights must be wired in parallel with each other.
A. solenoid
B. memristor
C. RTD
D. JFET
A. 0
B. 1
A. Planar Method
B. Nodal Analysis
C. Mesh Analysis
D. Superposition
A. a circuit breaker
B. a two- to three- prong plug adaptor
C. a relay
D. a ground-fault interruptor
A. the resistance of that loop
B. two
C. the sum of the potential drops in that loop
D. one
A. False
B. True
A. a dimmer switch
B. a three-prong plug
C. a circuit breaker
D. a ground-fault interruptor
A. one
B. two
C. four
D. three
A. series
B. parallel
A. bias, collector, ground
B. positive, negative, zero
C. increasing, decreasing, inverting
D. base, collector, emitter
A. 8
B. 17
C. 256
D. 16
A. Ohm's Law
B. Faraday's Law
C. Gauss's Law
D. Lenz's Law
A. six
B. two
C. three
D. one
A. lumped element model
B. distributed element model
A. capacitor
B. op-amp
C. transistor
D. diode
A. resistor
B. LED
C. capacitor
D. inductor
A. differentiator
B. filter
C. transformer
D. regulator
A. False
B. True
A. the number of voltage levels used to sample the signal amplitude
B. how often in time the signal is sampled
C. the phase of the noise used for dithering
A. triplexer
B. tri-state buffer
C. three phase switch
D. impedance logic
A. Wheatstone Bridge
B. Diode Bridge
C. Galvanometer
D. Maxwell Bridge
A. True
B. False
A. surface mount board
B. PCB
C. breadboard
A. an off-center-fed dipole
B. an operational amplifier
C. a current balance
D. a mechanical spring
A. source circuit
B. equivalent circuit
C. analytical model
D. linear circuit
A. the ground lead
B. the hot lead
C. the neutral lead
A. two 100-nF capacitors connected in parallel to 10 V
B. one 100-nF capacitor connected to 10 V
C. two 100-nF capacitors connected in series to 10 V
A. a push-pull follower
B. a diode bridge
C. a reverse-biased divider
D. a double-double amplifier
A. a NAND gate
B. a low-pass filter
C. an analog-to-digital converter
D. a voltage divider
A. by removing any ground connections on the high-voltage circuit
B. by using a secondary, low-voltage relay circuit
C. by increasing the inductance in the high-voltage circuit
D. by inserting a fuse on the high-voltage circuit
A. time
B. energy
C. capacitance
D. power
A. negative
B. positive
A. overload clipping
B. low charge-carrier density
C. poor high-voltage linearity
D. high heater current