'Small signal model' diaporamas de présentation

Lecture 42: Review of active MOSFET circuits

Lecture 42: Review of active MOSFET circuits. Prof. J. S. Smith. Final Exam. Covers the course from the beginning Date/Time: SATURDAY, MAY 15, 2004 8-11A Location: BECHTEL auditorium One page (Two sides) of notes. Observed Behavior: I D - V DS.

936 views • 76 slides

Current Mode Converter

Current Mode Converter. Shen-Yaur Chen. Limited value of error voltage provides peak current protection No Soft-start mechanism is required Modules share a common error voltage Peak Current in each is kept the same. Limited value of error voltage provides peak current protection

826 views • 59 slides

Current Mode Converter

Current Mode Converter. Shen-Yaur Chen. Limited value of error voltage provides peak current protection No Soft-start mechanism is required Modules share a common error voltage Peak Current in each is kept the same. Limited value of error voltage provides peak current protection

750 views • 59 slides

7-things that we should know about Op-amp Design

822 views • 50 slides

Introduction to MOS Transistors

Introduction to MOS Transistors. Section 6.1-6.4 Selected Figures in Chapter 15. Outline. Review of NMOS Introduction of PMOS Application of CMOS in Digital Circuits Small Signal Model. Introductory Device Physics. A Crude Metal Oxide Semiconductor (MOS) Device. V2 causes movement

1.48k views • 40 slides

Small Signal Model PNP Transistor

1.26k views • 38 slides

Microelectronics 2

544 views • 36 slides

575 views • 34 slides

EE40 Lec 20 MOS Circuits

EE40 Lec 20 MOS Circuits. Reading: Chap. 12 of Hambley Supplement reading on MOS Circuits http://www.inst.eecs.berkeley.edu/~ee40/fa09/handouts/EE40_MOS_Circuit.pdf. OUTLINE. Bias circuits Small-signal equivalent circuits Examples: Common source amplifier Source follower

808 views • 31 slides

Lecture 6

Lecture 6. Nodal/Mesh Analysi 4.2,4.3, 4.5 &4.6. Definitions. Nodes. Node: a point where two or more circuit elements join. Essential Node. Essential Node: a node where three or more circuit elements join. Step 1: Number of Nodal Voltage Equations. n e is essential nodes

594 views • 30 slides

ECE382 (Spring 00):Large-Scale Digital Integrated Circuit Design

ECE382 (Spring 00):Large-Scale Digital Integrated Circuit Design. Professor Naresh Shanbhag Department of Electrical and Computer Engineering University of Illinois at Urbana-Champaign Urbana, IL-61801. Lecture 8 : MOSFET Small Signal Models. 2. =. =. I. I. s. ,. P. P. s. ,. D. ,.

458 views • 26 slides

Problems on Terminal Resistances

Problems on Terminal Resistances. Chapter 5. Schedule. BJT & MOS Transistor. [Chapter 4,5]. [Chapter 6,7]. Equivalent Circuit. Small Signal Model. Three Derivations. Eq. 5.291. Eq. 5.198. Eq. 5.162. Resistance into the Base (1). Eq. 5.217. Resistance into the Base (2). Eq. 5.226.

243 views • 17 slides

Problems on Terminal Resistances

Problems on Terminal Resistances. Chapter 5. Schedule. BJT & MOS Transistor. [Chapter 4,5]. [Chapter 6,7]. Equivalent Circuit. Small Signal Model. Three Derivations. Eq. 5.291. Eq. 5.198. Eq. 5.162. Resistance into the Base (1). Eq. 5.217. Resistance into the Base (2). Eq. 5.226.

289 views • 17 slides

Calvin College Engineering Department

Calvin College Engineering Department Engineering 311 - Electronic Devices and Circuits Fall 2002. Professor: Paulo F. Ribeiro SB130 x 6407 pribeiro@calvin.edu http://engr.calvin.edu/PRibeiro_WEBPAGE/

290 views • 15 slides

Electronics I

Electronics I. Tutorial 2. Question 1. For the circuit shown below: If Vs = 0.8sin( ? t), VBB = 2V, RB = 2K, and Vcc = 15V, determine the maximum value of Rc that ensures that the transistor is not saturated.

225 views • 14 slides

Lecture #38

361 views • 12 slides

Graphical solutions

The sinusoid signal will be distorted if the ac input signal is large. However, the distortion can be neglected if the signal is small. Graphical solutions. Fig. 5.18. Small signal equivalent circuits. Assuming operation in the saturation region.

204 views • 10 slides

Review Test 2

Review Test 2. Ch 6, 7, 8 ECE 2110 Western Michigan University. For the circuit shown solve for the transfer function H(s). R1 = 1.5k, C1 = 4.7 m F, C2 = 6.2 m F. + v o -. ANS. For the diode circuit solve for the DC biases point. V+ = 3v, R1 = 750 W , R2 = 250 W , and Rs = 50 W .

154 views • 9 slides

Lecture 3

Lecture 3. Section 2.5 Dependent Sources. Characteristics. Dependent sources establish a voltage or current whose value depends on the value of a voltage or current else where in the circuit.

202 views • 7 slides

ELEC 311(Fall 09, Lect#7,8)

107 views • 2 slides