2.12 Example for E-MOSFET Voltage Divider Bias CircuitEXAMPLE 7.11 Determine ID, VGS, and Vps for the network of Fig. 7.44.22 ΜΩ18 ΜΩ9 40 VGENGG CC ORT NVosoFIG. 7.44D3kQOS100xVps2N4351VGS (Th) = 5 VID (on) = 3 mAat VGS (on) = 10 V0.82 kQ2Figure 2.12 Example for E-MOSFET Voltage Divider Bias Circuit.

We need to find out the drain current, gate to source voltage and drain to source voltage for given…

2.12 Example for E-MOSFET Voltage Divider Bias Circuit EXAMPLE 7.11 Determine Ip VGS and Vps for the network of Fig. 7.44. 22 ΜΩ ww 18 ΜΩ. ENGG 9 40 V G Vaso FIG. 7.44 Do 3kQ2 -OS 1pQ + Vps 2N4351 VGS = SV Ip (on) =3 mA at VGS (0) = 10 V 0.82 ΚΩ Figure 2.12 Example for E-MOSFET Voltage Divider Bias Circuit.

2.12 Example for E-MOSFET Voltage Divider Bias Circuit EXAMPLE 7.11 Determine Ip VGS and Vps for the network of Fig. 7.44. 22 ΜΩ ww 18 ΜΩ. ENGG 9 40 V G Vaso FIG. 7.44 Do 3kQ2 -OS 1pQ + Vps 2N4351 VGS = SV Ip (on) =3 mA at VGS (0) = 10 V 0.82 ΚΩ Figure 2.12 Example for E-MOSFET Voltage Divider Bias 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

Electrical Engineering A uniformly doped silicon pnp bipolar transistor is to be designed with NĘ = 1019 cm³ and Nc = 1016 cm³. The metallurgical base width is 0.75 µm. Determine the minimum base doping so that the punch- through voltage is no less than 25 V.
PROBLEM 7.16 Determine vo versus vj for the circuit shown in Figure 7.87. Assume that the MOSFET operates in saturation and is characterized by the parameters K and VT. What is the value of vo when vị = 0? + Vs Rp Vo VI Rs Vs FIGURE 7.87 www
20. The circuit shown in Figure 7.49b has a load with a range of R. = 10 N to 100 N. Delermine the normal range of V. for the circuit using its Thevenin equivalent.
Design a voltage-divider bias network using a supply of 24 V, a transistor with a beta of 100, VBE = 0.7 V ,and an operating point of ICQ = 4 mA and VCEQ = 8 V, R1 = 6R2. Choose VE =1/8 VCC.
A base bias method is used in the following circuit. For Bpc - 300, the value of emitter current is: -Vc. +15 V Rc 1.8 k2 RB 560 k2 7.82 mA O 6.84 mA O 7.27 mA
7.2 Fixed-Bias Configuration 1. For the fixed-bias configuration of Fig. 7.75: a. Sketch the transfer characteristics of the device. b. Superimpose the network equation on the same graph. c. Determine Ip, and Vpsg d. Using Shockley's equation, solve for Ip, and then find Vpsg. Compare with the solutions of part (c). 14 V 1.8 kn IDQ Ipss = 12 mA Vpso Vp = -4 V 1 M2 1.5 V FIG. 7.75
Calculate the resistance value, Rs needed for a p-channel JFET transistor circuit if you know that IDss = 25 mA, VGSS (off) = 15V, and VGs = 5V. %3D
a one port consist of a 2nf capacitance in parallel with a 2k ohm. Sketch and label the current drawn by this one port in response to the voltage waveform of figure p7.16
An n-type MOSFET has the following parameters: Kn = 100 μA/V² VTO = 0.5 V L = 0.5 μm W = 1 μm The MOSFET operates with VGS=1V and VDS-5V. Use the Shichman-Hodges model to calculate the drain current in mA through the device (answer to 3 decimal places).
A half-wave rectifier with a 270 2 load resistor operates from a 120 Vrms 60 Hz household supply current through a 3-to-1 step-down transformer. It uses a silicon diode that can be modelled as having a constant Vf = 0.84 V drop for any current. vs(t) VL (t) RL (a) What is the peak voltage, vs,peak, of the secondary? What is the peak voltage, UL,peak of the rectified output? (b) For what fraction of the cycle (in percentage) does the diode conduct? (c) What is the average output voltage, V₁? (state which formula you used: the more accurate formula obtained via integration or the approximate formula) 1 (d) What is the average output current, IL? (e) You want to create a DC source with a peak-to-peak ripple voltage, Vr, of 11% of the peak output. (1) What size of capacitor should you add across the output? (2) What is the average voltage now? (State whether you used the more accurate or the approximate formula.)