Given the following Two-stage Operational TransconductanceAmplifier and its corresponding specifications:VDDVout1kpknvth,nvth,pληλp3 51.50.751.13E-032.25E-030.280.30.60.3|Id(M4)| 1.00E-05Vsd40.55Vds20.3a) Assuming Vout2 = 0.75V,determine the the drain current ofM5 and the gate voltage, V₁, of M6b) Draw the small signalequivalent model of the circuitc) Calculate for thetransconductance and outputresistance of the highlighted (inred) portion of the circuitVcVbVaViVDDPPMOSM4PMOSM3M2NMOSM1NMOSVout1VdJUPMOSM5M6NMOSVout2

The given circuit is as shown below, Given, Also, Vout2=0.75V.

Given the following Two-stage Operational Transconductance Amplifier and its corresponding specifications: VDD Vout1 kp kn vth,n vth,p λη λp 1.5 0.75 1.13E-03 2.25E-03 0.28 0.3 0.6 0.3 Id(M4)| 1.00E-05 Vsd4 0.55 Vds2 0.3 a) Assuming Vout2: = 0.75V, determine the the drain current of M5 and the gate voltage, Vå, of M6 b) Draw the small signal equivalent model of the circuit c) Calculate for the transconductance and output resistance of the highlighted (in red) portion of the circuit

Given the following Two-stage Operational Transconductance Amplifier and its corresponding specifications: VDD Vout1 kp kn vth,n vth,p λη λp 1.5 0.75 1.13E-03 2.25E-03 0.28 0.3 0.6 0.3 Id(M4)| 1.00E-05 Vsd4 0.55 Vds2 0.3 a) Assuming Vout2: = 0.75V, determine the the drain current of M5 and the gate voltage, Vå, of M6 b) Draw the small signal equivalent model of the circuit c) Calculate for the transconductance and output resistance of the highlighted (in red) portion of the circuit

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

See similar textbooks

Similar questions

A 10 V Zener diode is used to regulate the voltage across a variable loadresistor. The input voltage Vs varies between 13 and16 V. The loadcurrent (??) varies between 10 and 85 mA. The minimum Zener current is15 mA. Findi. The maximum value of Rsii. The maximum power dissipated by the Zener diode, using the value ofRs.
A R-load half-wave rectifier used sinusoidal voltage source with a peak value (35.353kV). The firing angle is (30). The total resistance is 50k2 and frequency is 50HZ. Calculate (in details): load direct voltage, maximum direct voltage, normalized voltage and effective voltage, power delivered to the load, power factor, form factor, ripple factor?
• Design a classical rectifier to deliver 100W into a resistive load from a 120V, 60HZ mains. ac Quantify the effect for different values of filter capacitance on: >average output voltage >output voltage ripple >Input current shape, harmonic content and THD
The arrow on the symbol of MOSFET indicates O a. that it is a N-channel MOSFET O b. that it is a P-channel MOSFET Oc. the direction of electrons O d. the direction of conventional current flow
Find the performance parameters (FF, RF and n) for the Single phase bridge uncontrolled rectifier with RL load. If the phase voltage: Vph(t) = Vm sin(wt). Draw the circuit diagram and sketch the voltages and current waveforms.
A single phase, fully controlled bridge rectifier supplies a series connected resistor- inductor load (R = 20, L = 0.02H) from 220V, 50HZ AC supply. The triggering angle of the thyristors is 60°. (Assume the circuit is ideal.) a. Sketch the circuit. b. Develop the load current expression and check the continuity of the load current. c. Sketch the load voltage and load current waveforms. d. Calculate the mean values of the load voltage and load current. e. Sketch the inductor voltage and calculate its mean value. f. Calculate the FF (form factor) and RF (ripple factor) of the load voltage.
Determine the ripple factor for the filtered bridge rectifier with a load as indicated in the figure below.
UTM system. (a) Describe their different function and operation in the DC supply system. UTM (b) Can zener replace the function of the regular diode in the application described in a DC power supply A UTM in question 3(a)? Justify your answer. TM UTM UTM 2.UTM UTM UTM 5 UTM UTM UTM & UTM & UTM UTM &UTM UTM TM UTM & UTM UTM
A fully controlled, single-phase bridge rectifier is powered from an ideal 220V, 50Hz source. The rectifier is triggered with a trigger angle of 60 degrees and provides a smooth current of 50A to the load at the output. According to this: a) Draw the waveform of the output voltage in scale and calculate the average value of the output voltage. Combine the average voltage signal with the output voltage wave signal. Show on the same figure. b) Draw the waveforms of the thyristor currents, the gap diode current and the current drawn from the source in scale. c) Calculate the value of the filter inductance used at the output when the ripple in the load current is 3A. (Do the operations by showing the output voltage shapes and areas on the figure. The answers should be in the system and order in the solved examples.)
In the operation of a half-wave rectifier with a capacitor-input filter, the ripple factor can be lowered by ……….the value of the filter capacitor or …………..the load resistors.
QUESTION 1 By referring to Figure Q1, determine: a) The Q-point values of Ic and VCE. b) Draw the DC load line and plot the Q-point based on answer from Q1(a). c) The diode emitter resistance, re and draw re transistor model (AC equivalent circuu). d) The input impedance, Zi as seen from the input voltage. e) The output impedance, Z, as seen from output. f) The voltage gain, Av and the current gain, A¡.
1. Calculate the theoretical output DC voltage of the half-wave rectifier circuit and compare it with measured value. For the capacitive filter, obtain the theoretical values of the DC output voltage and the ripple voltage and compare these values with the measured quantities. Determine also the practical and theoretical values of the ripple factor. 2. Calculate the theoretical output DC voltage of the center-tapped full-wave rectifier circuit and compare it with measured value. For the capacitive filter, obtain the theoretical values of the DC output voltage and the ripple voltage and compare these values with the measured quantities. Determine also the practical and theoretical values of the ripple factor. 3. Repeat the calculations for the full-wave bridge rectifier and filter circuit. 4. Determine the peak inverse voltage (PIV) on each diode in the three rectifier circuits. 5. If diode D4 in the bridge rectifier circuit of Figure 5 was removed or burned, explain the operation of…