Question 4 The input signal to the circuit below is a Triangle wave with a peak...
Question 13 The input Vs to the comparator circuit below is a 10 V Triangle Wave. Determine the voltage Vs when the output of the comparator will become maximum positive VCC = 12 V, R1 10 k2, R2 = 3.1 k Enter your results in volts. Do not type the units Vcc R1 Vout R2 AN Vs ww Question 13 The input Vs to the comparator circuit below is a 10 V Triangle Wave. Determine the voltage Vs when the...
PROTEUS +15V R5 1M R3 750 C3 HE Dvout luf Q1 ZVN2110 R1 C1 R4 100F V1 VSINE R6 1M R2 1k C2 Tur Figure 8.2. CS Amplifier with a bypassed Rs 1. Design and build the common source amplifier as shown in Figure 8.2. 2. Provide Vai= 100 m Vpp at 5 KHz frequency and measure the output voltage. 3. Record pictures of the input and output waveforms and calculate the gain. 4. Vary Vsig (Try 1V, 400mV, 100mV)...
1. For the 4 circuits shown below, sketch the output waveform for a 1V peak, 1kHz, sinusoidal wave in put signal. Assume the diodes are ideal and they exhibit ON-OFF switch model behaviour. Create an ideal diode model in LT-Spice with the following specification [.model IdealDiode D(Ron=0.1m Roff=100G Vfwd-0.0) ] simulate the circuit and verify the output waveform. Vin Vout Vin Vout 1k 1k (a) (b) 1k Vin 1k Vin Vout Vout ww 1k (c) (d) KH 1. For the...
w R Vinn Vou V. R W (a) (b) An alternating square wave signal f(t) has frequency, f = 1 kHz, peak-to-peak voltage, Vpp = 8 V and zero DC offset. (10 pts) A. Given that Vin(t) = f(t), find the steady-state output voltage value for Circuit (a) when i. Vin(t) > 0; ii. Vin(t) <0. B. Given that Vin(t) = f(t), find the steady-state output voltage value for Circuit (b) when i. Vin(t)>0; ii. Vin(t) <0. C. Given that...
(a) Design a inverting Schmitt trigger circuit to be used as a zero crossing detector with transition voltages about ±25 mV. Assume the saturation voltages for the op–amp are ±13 V. Draw the voltage transfer characteristic (VTC), i.e., vout vs. vin. (b) Design an astable multivibrator to produce a square signal with a frequency of 1 kHz using C=0.01 µF, R1 = 30 kΩ, and R2 = 20 kΩ. Sketch the circuit waveforms (vo, v +, and v −) assuming...
A MOSFET is wired as a common-source amplifier as shown below. The input voltage vIN is the total of the source for biasing the circuit at its operating point (vBIAS), and a small signal ac source providing the signal that we want to amplify (vin). The total output voltage is vO. a) Assume VDD = 5?, VIN = 2?, and ? = 4?Ω in the circuit and the MOSFET parameters are K = 0.5??/?2, VTH 1?, and ? = 0.05V-1....
In the circuit of given below, Vsig is a small sine wave signal with zero average. The transistor B is 100. a) Find the value of RE to establish a dc emitter current of about 0.5 mA. b) Find Rc to establish a dc collector voltage of about +5 V c) For RL10 kS2 and the transistor ro 200 k2, draw the small-signal equivalent circuit 5. of the amplifier and determine its overall voltage gain +15 V Re O Vo...
URGENT!! PLEASE HELP! be clear and answer all questions clearly!! Lab ll: Voltage Follower ECE 210: 1. For the following circuit, Theoretically calculate the peak voltage across R3 (Vo) an ved R1-2.2k0 2.17362(Actual) R2 = 3.3kN-3.Z44KAL (Actual) R3-10kΩ 9.873M. (Actual) Vin- 1kHz Triangle wave, 2V peak, NO DC offset e) R Draw the output waveform Vo: UI R1 R2 X-Axis 0.1 msec/div 2. Remove the resistor R2 to create the following circuit Draw the output waveform Vo: U1 R1 R3...
The circuit 3-The circuit of problem # 2 is subjected to a small ac input by the signal generator. By neglecting the voltage drop across the coupling and bypass capacitors, determine the small signal voltage gain Vo/ Vì = Avi , input resistance Ri-vi / ii and the output resistance Ro external to R Avi= Ri= , Ro The accompanying circuit shows a 4-resistor biased JFET transistor Determine the values of Rp and Rs so that the Q-point is equal...
IV, Laboratory Procedure 1. Construct the circuit of Figure 6.1, measure the current value 2. Construct the circuit of Figure 6.2; measure Vn and v., using the oscilloscope. 3. Construct the circuit of Figure 6.3, measure the value of Io and V 4. Construct the clipper design circuit, Capture the input and output waveforms. 5. Construct your clamper design circuit. Capture the input and output waveforms Figure 6.3 Design a clipper circuit which limits input signals to +3V and -2V....