D. De Venuto,Politecnico di Bari 0 The CMOS common-gate amplifier: (a) circuit; (b) small-signal equivalent circuit; and (c) simplified version of the.

Slides:

Advertisements

Similar presentations

Copyright © 2004 by Miguel A. Marin Revised CMOS CIRCUIT TECHNOLOGY NMOS & PMOS TRANSISTOR SWITCH NMOS & PMOS AS LOGIC CIRCUITS NMOS & PMOS.

Advertisements

Transistors (MOSFETs)

Elettronica T A.A Digital Integrated Circuits © Prentice Hall 2003 Inverter CMOS INVERTER.

D. De Venuto,Politecnico di Bari 0 (a) ideal structure; (b) equivalent circuit. The series-series feedback amplifier.

ELECTRICAL ENGINEERING: PRINCIPLES AND APPLICATIONS, Fourth Edition, by Allan R. Hambley, ©2008 Pearson Education, Inc. Lecture 28 Field-Effect Transistors.

Microelectronic Circuits, Sixth Edition Sedra/Smith Copyright © 2010 by Oxford University Press, Inc. C H A P T E R 13 CMOS Digital Logic Circuits.

ECE 201 Circuit Theory I1 Introduction to the Operational Amplifier μA 741 OP AMP.

Module 2: Part 2 Basic BJT Amplifiers. Learning Objectives After studying this module, the reader should have the ability to: n Explain graphically the.

Field Effect Transistors Circuit Analysis EE314 HP PA8000 Fujitsu Fairchild Clipper C100.

Paulo MoreiraInverter1 The CMOS inverter. Paulo MoreiraInverter2 The CMOS inverter.

EE40 Lec 20 MOS Circuits Reading: Chap. 12 of Hambley

Fig Operation of the enhancement NMOS transistor as vDS is increased

Physical States for Bits. Black Box Representations.

Chapter 5 – Field-Effect Transistors (FETs)

Fig. 5.1 Physical structure of the enhancement-type NMOS transistor: (a) perspective view; (b) cross section. Typically L = 1 to 10 m, W = 2 to 500.

Memory and Advanced Digital Circuits 1.

Summer, 2003 Dr. H. Kaufman Consider the inverter shown in the Figure. A capacitor C = 10pF is connected between the output and ground. Let V DD = 5V,

The Basic MOSFET Current Source

Transistors in Parallel. Why connect transistors in parallel? Connect in parallel to handle high currents Need to be closely matched for equal current.

FET AND ITS APPLICATIONS UNIT - III 7/2/2015www.noteshit.com1.

© 2000 Prentice Hall Inc. Figure 7.1 The current mirror.

MOS Field-Effect Transistors (MOSFETs)

© 2000 Prentice Hall Inc. Figure 6.1 AND operation.

Chapter Five The Field-Effect Transistor. Figure 6—2 A three-terminal nonlinear device that can be controlled by the voltage at the third terminal v.

Digital CMOS Logic Circuits

Single-Stage Integrated- Circuit Amplifiers

Field-Effect Transistors 1.Understand MOSFET operation. 2. Understand the basic operation of CMOS logic gates. 3. Make use of p-fet and n-fet for logic.

MOSFET As switches. Regions of Operation In analogue electronics, the MOSFETs are designed to operation in the pinch-off or saturation region. ▫They are.

Week 6 – Chapter 3 FET Small-Signal Analysis Mohd Shawal Jadin FKEE UMP © 2009.

ANALOGUE ELECTRONICS I

Amplifier Circuit This amplifier circuit DC analysis.

Metal-Oxide- Semiconductor (MOS) Field-Effect Transistors (MOSFETs)

Transistors (MOSFETs)

A.1 Large Signal Operation-Transfer Charact.

7-1 McGraw-Hill Copyright © 2001 by the McGraw-Hill Companies, Inc. All rights reserved. Chapter Seven Frequency Response.

Chapter Seven Frequency Response. Figure 7.1 Amplifier gain versus frequency.

Ch 10 MOSFETs and MOS Digital Circuits

Microelectronic Circuits, Sixth Edition Sedra/Smith Copyright © 2010 by Oxford University Press, Inc. C H A P T E R 14 Advanced MOS and Bipolar Logic Circuits.

MOS Field-Effect Transistors (MOSFETs)

16-1 McGraw-Hill Copyright © 2001 by the McGraw-Hill Companies, Inc. All rights reserved. Chapter Sixteen MOSFET Digital Circuits.

10-1 McGraw-Hill Copyright © 2001 by the McGraw-Hill Companies, Inc. All rights reserved. Chapter Ten Integrated Circuit Biasing and Active Loads.

Microelectronic Circuits, Sixth Edition Sedra/Smith Copyright © 2010 by Oxford University Press, Inc. C H A P T E R 9 Frequency Response.

Field Effect Transistors: Operation, Circuit Models, and Applications AC Power CHAPTER 11.

CS/EE 3700 : Fundamentals of Digital System Design

Figure 3.1 Logic values as voltage levels Figure 3.2 NMOS transistor as a switch DrainSource x = "low"x = "high" (a) A simple switch controlled by the.

ELECTRICA L ENGINEERING Principles and Applications SECOND EDITION ALLAN R. HAMBLEY ©2002 Prentice-Hall, Inc. Chapter 12 Field-Effect Transistors Chapter.

Device Characterization ECE/ChE 4752: Microelectronics Processing Laboratory Gary S. May April 1, 2004.

Field Effect Transistors

Chapter 2 Field-Effect Transistors(FETs) SJTU Zhou Lingling.

BJT amplifier & small-signal concept

Chapter 12 : Field – Effect Transistors 12-1 NMOS and PMOS transistors 12-2 Load-line analysis of a simple NMOS amplifier 12-3 Small –signal equivalent.

Midterm 2 performance Full points is 48. Average is

© 2000 Prentice Hall Inc. Figure 5.1 n-Channel enhancement MOSFET showing channel length L and channel width W.

Introduction to MicroElectronics

Basic FET Amplifiers Chapter Six McGraw-Hill

11. 9/14 Music for your ears 9/14 Musique 101 9/14 Audio Spectrum 4.

1. Digital cmos.2 10/15 Figure 10.1 Digital IC technologies and logic-circuit families. Digital IC Technologies CMOS & Pass Transistor Logic dominate.

Introduction to Electronic Circuit Design

Microelectronic Circuits, Sixth Edition Sedra/Smith Copyright © 2010 by Oxford University Press, Inc. Figure 9.23 The CS circuit at s = s Z. The output.

11. 9/15 2 Figure A 2 M+N -bit memory chip organized as an array of 2 M rows  2 N columns. Memory SRAM organization organized as an array of 2.

1 Tai-Cheng Lee Spring 2006 MOS Field-Effect Transistors (MOS) Tai-Cheng Lee Electrical Engineering/GIEE, NTU.

EE210 Digital Electronics Class Lecture 8 June 2, 2008.

1 Small Signal Model MOS Field-Effect Transistors (MOSFETs)

Exam 3 information Open book, open notes, bring a calculator Eligible topics (1 of 9) (not an exhaustive list) Generic amplifiers Amplifier basics voltage.

6/8/2016Faculty of Engineering Cairo University Chap Lecture 2 Single-Transistor Amplifiers Dr. Ahmed Nader Adapted from presentation by Richard.

The Bipolar Junction Transistor

ECE 333 Linear Electronics Chapter 7 Transistor Amplifiers How a MOSFET or BJT can be used to make an amplifier  linear amplification  model the linear.

1 MOS Field-Effect Transistors (MOSFETs). Copyright  2004 by Oxford University Press, Inc. Microelectronic Circuits - Fifth Edition Sedra/Smith2 Figure.

FET AND ITS APPLICATIONS UNIT - III. Field Effect Transistor Family.

Bipolar Junction Transistor

Presentation transcript:

D. De Venuto,Politecnico di Bari 0 The CMOS common-gate amplifier: (a) circuit; (b) small-signal equivalent circuit; and (c) simplified version of the circuit in (b). CMOS common-gate amplifier

D. De Venuto,Politecnico di Bari 1 The source follower: (a) circuit; (b) small-signal equivalent circuit; and (c) simplified version of the equivalent circuit. The source follower

D. De Venuto,Politecnico di Bari 2 (a) NMOS amplifier with enhancement load; (b) graphical determination of the transfer characteristic; NMOS amplifier with an active load

D. De Venuto,Politecnico di Bari 3 NMOS amplifier with an active load (2) (c) transfer characteristic.

D. De Venuto,Politecnico di Bari 4 The NMOS amplifier with depletion load: (a) circuit; (b) graphical construction to determine the transfer characteristic; and (c) transfer characteristic. NMOS amplifier with a depletion load

D. De Venuto,Politecnico di Bari 5 Small-signal equivalent circuit of the depletion-load amplifier, incorporating the body effect of Q 2. Small-signal equivalent circuit

D. De Venuto,Politecnico di Bari 6 (a) The CMOS inverter. (b) Simplified circuit schematic for the inverter. The CMOS inverter

D. De Venuto,Politecnico di Bari 7 Operation of the CMOS inverter when v 1 is high: (a) circuit with v 1 = V DD (logic-1 level, or V OH ); (b) graphical construction to determine the operating point; and (c) equivalent circuit. Operation of the CMOS inverter

D. De Venuto,Politecnico di Bari 8 Operation of the CMOS inverter when v 1 is low: (a) circuit with v 1 = 0V (logic-0 level, or V OL ); (b) graphical construction to determine the operating point; and (c) equivalent circuit. Operation of the CMOS inverter (2)

D. De Venuto,Politecnico di Bari 9 The voltage transfer characteristic of the CMOS inverter. Voltage transfer characteristic

D. De Venuto,Politecnico di Bari 10 Dynamic operation of a capacitively loaded CMOS inverter: (a) circuit; (b) input and output waveforms; Dynamic operation

D. De Venuto,Politecnico di Bari 11 Dynamic operation (2) (c) trajectory of the operating point as the input goes high and C discharges through the Q N ; (d) equivalent circuit during the capacitor discharge.

D. De Venuto,Politecnico di Bari 12 The CMOS transmission gate. CMOS transmission gate

D. De Venuto,Politecnico di Bari 13 Equivalent circuits for visualizing the operation of the transmission gate in the closed (on) position: (a) v A is positive; (b) v A is negative. Transmission gate (2)

D. De Venuto,Politecnico di Bari 14 (a) High-frequency equivalent circuit model for the MOSFET; (b) the equivalent circuit for the case the source is connected to the substrate (body); (c) the equivalent circuit model of (b) with C db neglected (to simplify analysis). High frequency equivalent model

D. De Venuto,Politecnico di Bari 15 Determining the short-circuit current gain I o /I i. Short circuit current gain