L Consider the circuit shown below by Using the traar fanction found in pat (ak derive an cxpress...
Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100kN and C = 1(10)-5 F: for the circuit in terms of frequency f(Hz). VO Part b) 5 pts Compute the gain of at as a function of frequency f(Hz). Vi Part c) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. Part a) 10 pts Find the complex transfer function in R 3R 5R Via V.
Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100kN and C = 1(10)-5 F: Part a) 10 pts Find the complex transfer function for the circuit in terms of frequency f (Hz). Vi Part b) 5 pts Compute the gain of at as a function of frequency f(Hz). Part c) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. Vo R 3R 5R с Vů V.
2. Consider the parallel RLC circuit mentioned in class, with C = 1, L = 4, and R = 1 (a) Derive the iin-to v transfer function, i.e., the circuit's impedance (b) Compute and plot the step response (c) Plot the magnitude of the frequency response function, G(jw) as a function of Compute, via analysis, the frequency wmar Wwhere maximum gain |G(jw)| is w. maximized (d) Verify your results using MATLAB: Plot the system's response to a step, and to...
UPLOAD PSPICE SIMULATION TO VERIFY CALCULATIONS 1- Design a lossy integrator op-amp circuit using op-amp 741. First, derive an expression for - Vo Then assign values to circuit components in order to have Gai 1. Verify your design with a PSpice simulation. Since gain value depends on Vi frequency, perform an AC sweep analysis (frequency response) to obtain which frequency gives you this gain. Report this trequency. IVil 1- Design a lossy integrator op-amp circuit using op-amp 741. First, derive...
Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100kN and C = 1(10)-5F: Part a) 10 pts Find the complex transfer functions for the circuit in terms of frequency f (Hz). Part b) 5 pts Compute the gain of Wat as a function of frequency f (Hz). Part e) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. R 3R 5R с Vi ve
Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100kN and C = 1(10)-5F: Part a) 10 pts Find the complex transfer functions for the circuit in terms of frequency f(Hz). Part b) 5 pts Compute the gain ofat as a function of frequency f(Hz). Parte) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. R 3R 5R Vi ve
Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100kN and C = 1(10)-SP: Part a) 10 pts Find the complex transfer function for the circuit in terms of frequency f(Hz). Part b) 5 pts Compute the gain ofat as a function of frequency f(Hz). Parte) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. R 3R 5R Vim -VO
Experimental methodology Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100kN and C = 1(10)-SP: Part a) 10 pts Find the complex transfer functions for the circuit in terms of frequency f (Hz). Part b) 5 pts Compute the gain of sat as a function of frequency f (Hz). Part e) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. R 3R 5R protein Vi - Vo
VO Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100k12 and C = 1(10)-5 F: Part a) 10 pts Find the complex transfer function for the circuit in terms of frequency f (Hz). Vi Part b) 5 pts Compute the gain of ko at as a function of frequency f (Hz). Part c) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. Vi R BR 5R с Vi - Ve
Problem 1 (25 Pts) Consider the OP amp circuit shown below with R = 100kN and C = 1(10): Parta) 10 pts Find the complex transfer function for the circuit in terms of frequency f(Hz). Part b) 5 pts Compute the gain of at as a function of frequency f(Hz). Parte) 10 pts Compute the corresponding gains at 100, 1000, 10000 Hz. R 3R 5R Vå w V