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B. E. Boser 1 Advanced Analog Integrated Circuits Overview Bernhard E. Boser University of California, Berkeley [email protected] Copyright © 2016 by Bernhard Boser EE240B - Introduction

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B. E. Boser 1

Advanced Analog Integrated Circuits

Overview

Bernhard E. BoserUniversity of California, Berkeley

[email protected]

Copyright © 2016 by Bernhard Boser

EE240B - Introduction

B. E. Boser 2

Mixed Signal Circuits

EE240B - Introduction

Physical World

Transducers

Signal

Conditioning

Signal

Conditioning

DSP

A/D

D/A

EE 247A…

EE 240AEE 240BEE 242A

EE 240C EE 241A/BEE 251A…

B. E. Boser 3

Example: Accelerometer

EE240B - Introduction

[Lemkin, JSSC 4/1999]

B. E. Boser 4

Example: RF Transceiver

EE240B - Introduction

http://www.ti.com/product/CC110L

B. E. Boser 5

Example: Pipeline ADC

EE240B - Introduction

S

ADC DAC-

D1

Vres1Vin1

Stage 1 Stage n-1 Stage nSHAVin

G1

Align & Combine BitsDout

G1

B. E. Boser 6

Example: Electronic Filter

EE240B - Introduction

R-Vin

C1+C2

R -

-

Rx2

C2+C3+C4

-

-

C4+C5

-

L 2/R

x22

Rx2 Rx4Rx4Vout

-1-1

-1 -1

-1 -1 -1 -1V1 V3 V5

V2 V4

Rx2 Rx2 Rx4Rx4

C2

C2

C4

C4

R

L 4/R

x42

B. E. Boser 7

Course Overview

EE 240B: Building Blocks

• Amplifiers

• Comparators

• References

• MOS S/H

• Device Models

• Noise

• Feedback

EE 240C: Analog Functions

• A/D & D/A Converters

• Analog Filters

EE 241: Digital Circuits

EE 242: RF Circuits

EE240B - Introduction

B. E. Boser 8

Advanced Analog Integrated Circuits

Amplifier Design

Bernhard E. BoserUniversity of California, Berkeley

[email protected]

Copyright © 2016 by Bernhard Boser

EE240B - Introduction

B. E. Boser 9

Design Considerations

EE240B - Introduction

B. E. Boser 10

Hierarchical Design

EE240B - Introduction

B. E. Boser 11

Good Hierarchical Design Strategies

• Start from high level abstraction– Add details later

• Establish early that specifications are met– When architectural changes are still feasible– Rework is minimal

• Are predictive– No drastic performance degradation during design process– Hmm …

EE240B - Introduction

B. E. Boser 12

(Amplifier) Design High Level Objectives

Specifications Figures-of-Merit

EE240B - Introduction

B. E. Boser 13

Dynamic Range Comparison (Example)

EE240B - Introduction

B. E. Boser 14

Electronic Noise

• Random agitation of electrons at finite temperature

EE240B - Introduction

B. E. Boser 15

Information

EE240B - Introduction

B. E. Boser 16

Advanced Analog Integrated Circuits

Administrative

Bernhard E. BoserUniversity of California, Berkeley

[email protected]

Copyright © 2016 by Bernhard Boser

EE240B - Introduction

B. E. Boser 17

Administrative

• Instructors:– Prof. Bernhard Boser, [email protected]– Efthymios Papageorgiou, [email protected]

• Websites– http://bcourses.berkeley.edu– http://www.eecs.berkeley.edu/~boser/courses/240B

• References– Gray, Hurst, Lewis, Meyer, Analysis and Design of Analog Integrated

Circuits, Wiley.– Carusone, Johns, Martin, Analog Integrated Circuit Design, 2nd Edition,

Wiley, 2011.– Course website

EE240B - Introduction

B. E. Boser 18

Schedule Variances

• Tuesday, February 7: ISSCC – no class

• Thursday, March 16: Midterm (in-class)

• Thursday, April 27: Final (in-class)

• Please inform instructor(s) within two weeks if you have conflicts or need special accommodations

EE240B - Introduction

B. E. Boser 19

Prerequisites

1. Small signal circuit analysis

2. Feedback analysis, stability criteria, phase margin

3. Bode plots

… such as covered in EECS 240A.

EE240B - Introduction

B. E. Boser 20

Advanced Analog Integrated Circuits

Part IBernhard E. Boser

University of California, [email protected]

Copyright © 2016 by Bernhard Boser

EE240B – Part I

B. E. Boser 21

Hierarchical Design

• Electronic Noise

• Device Modeling for Design– Design metrics: 𝑔" 𝐼$⁄ , 𝑓(

• Basic Transistor Amplifiers– Bandwidth, Dynamic range, Power dissipation

• Switched-Capacitor Gain Stage

• Single-stage Operational Transconductance Amplifiers– Settling time and accuracy

• Multistage Operational Transconductance Amplifiers– Frequency compensation

EE240B – Part I