Question

IV, Laboratory Procedure 1. Construct the circuit of Figure 6.1, measure the current value 2. Construct the circuit of Figure

Figure 6.3 Design a clipper circuit which limits input signals to +3V and -2V. This means that the output signal should not r

Calculate vour in Figure 6.2, with Vin- 10 Vpp with a frequency of 1 kHz, R 100 Ω, Di-|N4001, RL= 680 Ω. Also, show a compute

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. This means that the output signal should not rise above 3V and should not fall below -2V. Assume V has amplitude of 5V and a frequency of 1 kHz, Verify your design by computer simulation on a computer. Design a clamper circuit to clamp the upper limit of the input signal to 0V. Use a 5.1 k2 resistor, IN4001diode. Use a square wave input signal of +1.5V amplitude and a frequency of 1 kHz. Calculate the value of capacitance required. Verify your 4. 5. design by computer simulation on a computer.
Calculate vour in Figure 6.2, with Vin- 10 Vpp with a frequency of 1 kHz, R 100 Ω, Di-|N4001, RL= 680 Ω. Also, show a computer simulation. 2. Ri out Vin RL. Figure 6.2
0 0
Add a comment Improve this question Transcribed image text
Answer #1

4.0 R1 10000 XFG1 D1 1N4001GP 02 1N4001GP V2 V1 3 V T11← →I Time T2[←→1736.940 us T2-T1 Channel A 3.569 V -2.582 v 6.151 V Chan

5. given frequancy F= 1Khz

F=1/2*pi* R* C so given R=5.1Kohms substitute R and F values then C=31.2nF.

| IOscilloscope-XSC1 C1 31.2nF 01 1N4001GP XFG1 R1 5.1 ㏀ Chamel A Chame B Time T1 712.003 ms 633.548 mV [ Saveコ Trigger Edge:2. Vout=8.18V

+..计戈拎:B罗 or目凹 @蒐 Oscilloscope-XSC1 R1 D1 R2 6800 XFG1 T11← → Time T2 [++ 1.250 ms T2-T1 Tmebase Scale: 1ms/Div X pos. Div):

Add a comment
Know the answer?
Add Answer to:
IV, Laboratory Procedure 1. Construct the circuit of Figure 6.1, measure the current value 2. Con...
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for? Ask your own homework help question. Our experts will answer your question WITHIN MINUTES for Free.
Similar Homework Help Questions
  • Prelab a) Look over Section 2-7 of Electronic Devices by Floyd to get a basic understanding...

    Prelab a) Look over Section 2-7 of Electronic Devices by Floyd to get a basic understanding of diode limiters and clampers. b) Design a diode limiter or "clipper circuit which limits input signals to +3 V and -2 V (cf. Floya, Example 2-11). This means that the output signal should not rise above 3 V and should not fall below -2 V. Also calculate the maximum current flowing through each of the diodes. Simulate your clipper in Multisim and compare...

  • Prelab Preparation: For the RC circuit shown in Figure 1, derive the modeling equation relating the output volta ge...

    Prelab Preparation: For the RC circuit shown in Figure 1, derive the modeling equation relating the output volta ge Vout to the input voltage vin. What is the transfer function? What is the time constant of the system? Vout Figure 1: RC Circuit What is the analytical step response solution in terms of vin, Rand C? For assumed values of R 1 K, and C 6.8 uF, perform a simulation using Matlab/Simulink assuming an input square wave signal of 5Vpp,...

  • Laboratory 1: operation amplifier characteristics A. Objectives: 1. To study the basic characteri...

    thanks Laboratory 1: operation amplifier characteristics A. Objectives: 1. To study the basic characteristics of an operational amplifier 2. To study the bias circuit of an operational amplifier B. Apparatus: 1. DC Power supply 2. Experimental board and corresponding components 3. Electronic calculator (prepared by students) 4. Digital camera (prepared by students for photo taking of the experimental results) 5. Laptop computer with the software PicoScope 6 and Microsoft Word installed. 6. PicoScope PC Oscilloscope and its accessories. 7. Multimeter...

  • Experiment and Procedure CIRCUIT 1 10 kOhm 10 kOhm Vin) = 10kOhm 10kOhm V(out) FIGURE 10....

    Experiment and Procedure CIRCUIT 1 10 kOhm 10 kOhm Vin) = 10kOhm 10kOhm V(out) FIGURE 10. PROPORTIONALITY AND LINEARITY 1. Measure and verify all the individual 10 KA resistors shown in Figure 10, then build the given circuit 2. Vary the power supply from OV to 20V in 2V increments. Measure the corresponding output voltages for each input. 3. Calculate the corresponding proportionality constant that relates the output and input voltages. Use the equation: K = 4. Tabularize and plot...

  • Part I: Inverting Amplifier Procedure: 1. Build the circuit model for inverting amplifier in PSpice with...

    Part I: Inverting Amplifier Procedure: 1. Build the circuit model for inverting amplifier in PSpice with the following parameters: Ri = 5 k 2, R2 = 20 ks2, V+ = 10 V, V-=-10 V. 2. Hand calculates the theoretical closed loop gain Vout/Vin of the circuit model. 3. Generate a triangular waveform for Vin with the amplitude of 1 V and the period of 1 ms. 4. Run simulation. a. Set circuit model parameters. i.e., for voltage source: click VPWL...

  • Laboratory 2: Transistor circuit characteristics A. Objectives: 1. To study the basic characteris...

    Laboratory 2: Transistor circuit characteristics A. Objectives: 1. To study the basic characteristics of a transistor circuit. 2. To study the bias circuit of a transistor circuit. B. Apparatus: 1. DC Power supply 2. Experimental boards and corresponding components 3. Electronic calculator (prepared by students) 4. Digital camera (prepared by students for photo taking of the experimental results) 5. Laptop computer with the software PicoScope 6 and Microsoft Word installed. 6. PicoScope PC Oscilloscope and its accessories. 7. Digital multi-meter....

  • In Multisim, rewire your opamp circuit so that it matches the circuit in Figure 2 U1-....

    In Multisim, rewire your opamp circuit so that it matches the circuit in Figure 2 U1-. V4 1kn 0.707 Vrms z OPAMP 3T BASIC R1 0o Figure 2 10. Perform a transient analysis on the circuit. Plot both the input signal (node 3 in Figure 1), and the output (node 1 in Figure 1) on the same graph. Set the time start and end time of the plot to start at zero and run for approximately two cycles of the...

  • 1) For the bridge opamp circuit in the figure, find the total voltage gain expression Vo/Vin...

    1) For the bridge opamp circuit in the figure, find the total voltage gain expression Vo/Vin when the opamps are not saturated. (20p) When Vin (4th) (2001Tt) signal is applied to the input and R1 = R4 = 10K, R2 = R3 = 20K resistance values are selected, draw a single period of the Vo output signal by specifying its time and amplitude values. R2 +12V R1 Vin 1-12V RL Vo +12V -12V WW R3 R4

  • 1. Find the transfer function Voda)/Vin(a) for the circuit shown in Figure 1 of the lab (where co...

    Please answer number 1 1. Find the transfer function Voda)/Vin(a) for the circuit shown in Figure 1 of the lab (where complex frequency variable s jo can be substituted for ease of analysis.) Calculate values for R and C such that the phase shift between the output and input is zero for an input frequency of 10kHz. What is the amplitude ratio (gain) of the output to the input at this frequency. 2. The RC network in figure 3 of...

  • Title: Combinational Circuit Design and Simulation Objectives: a. b. c. Design combinational circuit Verify design with...

    Title: Combinational Circuit Design and Simulation Objectives: a. b. c. Design combinational circuit Verify design with simulation Verify design with laboratory test data Materials Needed IBM Compatible computer, PSpice software, IC Chips (as needed), Data Switches, 4702 (1), LED (1). Pre-Lab: Problem Statement The four parameters in a chemical process control system to be monitored are temperature (T), pressure (P), flow (F), and level (L) of the fluid. The parameters are monitored by sensor circuits that produce a High logic...

ADVERTISEMENT
Free Homework Help App
Download From Google Play
Scan Your Homework
to Get Instant Free Answers
Need Online Homework Help?
Ask a Question
Get Answers For Free
Most questions answered within 3 hours.
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT