A) Wave length B) Time C) Frequency D) Peak amplitude
A) Digital signal B) Bit rate C) Baud rate D) Bps
A) No answer B) Composite signal C) Harmonic D) Waveforms
A) 5 petabits B) 5 terabits C) 5 gigabits
A) Composite signals B) Transistor C) Diode
A) Power B) Bandwidth C) Time D) Phase
A) 396kHz B) 360MHz C) 3.96MHz
A) Crosstalk B) Attenuation C) Capture effect
A) Ics B) Composite signal C) Diode
A) Input transducer B) Output transducer C) Encoder
A) Wavelength B) Phase C) No answer
A) Kapagod yan B) Periodic and continuous C) Periodic and discrete
A) Sender B) Channel C) User
A) Biometrics B) Electronics C) Physics
A) Oscilloscope B) Amplifier C) Transponder
A) ICs B) Amplifier C) Transducer
A) Digital modulation B) Analog modulation C) Bahala ka
A) Yes B) Throughout C) No
A) Both? B) Decreases C) Increases
A) 50bits B) 5000bits C) 500bits
A) Choose wisely B) PSK C) ASK
A) Digital modulation B) Bahala ka C) Analog modulation
A) Throughout B) Period C) Frequent
A) Sine wave B) Digital signal C) Frequency
A) Distortion B) Noise C) Reflection
A) Crosstalk B) Distortion C) Decibel
A) Peak amplitude B) Phase C) Wavelength
A) Amplifier B) Channel C) Transducer
A) 0.000002 seconds B) 0.002 seconds C) 0.000002 milliseconds
A) 0.001 seconds B) 0.01 seconds C) 0.01 milliseconds
A) voltage follower B) inverting amplifier C) non-inverting amplifier D) differential amplifier
A) Fourier theorem B) Kirchhoff's theorem C) Ohm's law D) Nyquist theorem
A) low accuracy B) high quantization error C) large number of comparators required D) slow operation
A) modulation B) digital-to-analog Conversion C) analog-to-digital Conversion D) demodulation
A) converting each sample into discrete amplitude levels B) sampling the signal in time C) filtering the analog signal D) encoding binary data
A) comparator B) summing amplifier C) integrator D) differential amplifier
A) very high speed B) simplicity C) low cost D) low power consumption
A) generate clock pulses B) remove high-frequency noise C) remove high-frequency noise D) hold the input signal constant during conversion
A) sampling only at zero crossings B) integrating input voltage over time C) comparing input voltage with reference voltages step-by-step D) counting clock pulses during conversion
A) output current B) quantization error C) resolution speed D) sampling frequency
A) filtering unwanted frequencies B) taking discrete time samples of a continuous signal C) converting binary to decimal D) dividing the signal into equal voltage levels
A) both input and output impedances are zero B) zero input impedance and infinite output impedance C) infinite input impedance and zero output impedance D) both input and output impedances are infinite
A) inverting input B) ground terminal C) non-inverting input D) output terminal
A) binary form B) sinusoidal waveform C) current form D) analog voltage
A) the non-inverting input terminal B) the positive supply voltage C) the positive output voltage D) the feedback terminal
A) one B) Zero C) very high D) very small
A) increase input impedance B) reduce bandwidth C) reduce distortion and stabilize gain D) increase gain
A) difference between actual and quantized value B) ratio of signal to noise C) sampling frequency error D) sum of all sampled values
A) twice the highest signal frequency B) four times the signal frequency C) equal to the signal frequency D) half the signal frequency
A) filtering B) sampling C) encoding D) quantization |