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ECE 474: Principles of Electronic Devices Prof. Virginia Ayres Electrical & Computer Engineering Michigan State University [email protected]

ECE 474: Principles of Electronic Devices

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Page 1: ECE 474: Principles of Electronic Devices

ECE 474:Principles of Electronic Devices

Prof. Virginia AyresElectrical & Computer EngineeringMichigan State [email protected]

Page 2: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Lecture 01:

Intro to Course

Start:Physical structures of crystal systems that are important for devices

Page 3: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Lecture 01:

Intro to Course

Start:Physical structures of crystal systems that are important for devices

Page 4: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Course Introduction:Lecture Time: Monday, Wednesday, Friday, 1:50-2:40 p.m.

Place: Room 2250 Engineering Building

Instructor: Virginia Ayres, Associate Professor

Website: http://www.egr.msu.edu/classes/ece474/ayresv

Telephone: 517-355-5236

email: [email protected], [email protected]

Office: C-104, Engineering Research ComplexOffice Hours: 6:00-9:00 p.m. evening before homework is due in the

Engineering Library

Prerequisites: ECE 183 & 303 & 305

Text: Principles of Electronic Devices, 6th Edition, B. Streetman and S. Bannerjee

Page 5: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Course Introduction: Grading

Exam 01 100 pts.Exam 02 100 pts.Final 150 pts.

Homework 50 pts. (discussion next page)

Total 400 pts

Page 6: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Course Introduction: Homework Grades

Homework 50 pts. = 12.5% of 400

5 pr/wk x 10 pts/pr x 16 weeks = 800 ptsIf you earn 672/800 42/50 = good score!

A string of 0’s for missed assignments:300/800 18.75/50 = grade lowering score

Page 7: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Course Introduction: Content v. Exams

Exam 01

Chapter 8Optoelectronics = semiconductor solar cells

Chapter 7Bipolar Junction Transistors

Chapter 6Field Effect TransistorsHigh electron mobility transistors

Chapter 5pn JunctionsSchottky barriers and Ohmic contacts

Chapter 4Charge carriers and diffusion in 3DLight generated carriers

Chapter 3 &Appendix IV

3D, 2D, 1D energy density of statesEnergy Bands (3D)

Chapter 2Quantum Mechanics: electrons as waves, (statistical) expectation values, quantum wells, quantum tunnelling

Chapter 1Notes on website

Physical structures: cubic semiconductors, metals, graphene and CNTsPlanes and directionsLattice matching

From:Topics:

Page 8: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Course Introduction: Content v. Exams

Exam 02

Chapter 8Optoelectronics = semiconductor solar cells

Chapter 7Bipolar Junction Transistors

Chapter 6Field Effect TransistorsHigh electron mobility transistors

Chapter 5pn JunctionsSchottky barriers and Ohmic contacts

Chapter 4Charge carriers and diffusion in 3DLight generated carriers

Chapter 3 &Appendix IV

3D, 2D, 1D energy density of statesEnergy Bands (3D)

Chapter 2Quantum Mechanics: electrons as waves, (statistical) expectation values, quantum wells, quantum tunnelling

Chapter 1Notes on website

Physical structures: cubic semiconductors, metals, graphene and CNTsPlanes and directionsLattice matching

From:Topics:

Page 9: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Course Introduction: Content v. Exams

FinalChapter 8Optoelectronics = semiconductor solar cells

Chapter 7Bipolar Junction Transistors

Chapter 6Field Effect TransistorsHigh electron mobility transistors

Chapter 5pn JunctionsSchottky barriers and Ohmic contacts

Chapter 4Charge carriers and diffusion in 3DLight generated carriers

Chapter 3 &Appendix IV

3D, 2D, 1D energy density of statesEnergy Bands (3D)

Chapter 2Quantum Mechanics: electrons as waves, (statistical) expectation values, quantum wells, quantum tunnelling

Chapter 1Notes on website

Physical structures: cubic semiconductors, metals, graphene and CNTsPlanes and directionsLattice matching

From:Topics:

Page 10: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Course Introduction: Content v. Exams

Exam 01

Exam 02

FinalChapter 8Optoelectronics = semiconductor solar cells

Chapter 7Bipolar Junction Transistors

Chapter 6Field Effect TransistorsHigh electron mobility transistors

Chapter 5pn JunctionsSchottky barriers and Ohmic contacts

Chapter 4Charge carriers and diffusion in 3DLight generated carriers

Chapter 3 &Appendix IV

3D, 2D, 1D energy density of statesEnergy Bands (3D)

Chapter 2Quantum Mechanics: electrons as waves, (statistical) expectation values, quantum wells, quantum tunnelling

Chapter 1Notes on website

Physical structures: cubic semiconductors, metals, graphene and CNTsPlanes and directionsLattice matching

From:Topics:

Page 11: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Lecture 01:

Intro to Course

Start:Physical structures of crystal systems that are important for devices

Page 12: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

High power n-channel field effect transistor

n n

Wilkipedia

Page 13: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

High power n-channel field effect transistor

n n

SiO2

Si

Vgate : + = ON- = OFF

n

n-type Si = extra electronsp-type Si = extra holes

Page 14: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

n n

SiO2 = insulatorSi = sc polySi = cheap schighly doped = fake metal

SiO2

Si

Doped polySi

Cu Cu

Page 15: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Effective repeat unit = “Unit Cell”

Page 16: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

non metalnot known / uncertain

unusual structure

fccface centredcubic (cubic close packed)

hcphexagonal close packed

bccbody centredcubic

non metalnot known / uncertain

unusual structure

fccface centredcubic (cubic close packed)

hcphexagonal close packed

bccbody centredcubic

LrNoMdFmEsCfBkCmhcp

Amhcp

PuNpUPaThfcc

Acfcc

Luhcp

Ybfcc

Tm hcpErhcp

Hohcp

Dyhcp

Tbhcp

Gdhcp

Eubcc

SmPmhcp

NdPrCefcc

La

UuoUusUuhUupUuqUutUubRgDsMtHsBhSgDbRfRabcc

Fr

RnAtPo544.7Bi

600.61Pbfcc

577Tl

hcp

234.32Hg

1337.33Aufcc

1768Ptfcc

2446Ir

fcc

3033Oshcp

3186Rehcp

3422W

bcc

3290Tabcc

2506Hf

hcp

1000Babcc

302Csbcc

XeITe904Sb

505Sn

430In

594Cd

1235Agfcc

1828Pdfcc

2237Rhfcc

2607Ruhcp

2430Tchcp

2896Mobcc

2750Nbbcc

2128Zr

hcp

1799Y

hcp

1050Srfcc

312.46Rbbcc

KrBrSeAsGe301.91Ga

692.68Zn

1357.8Cufcc

1728Nifcc

1768Cohcp

1811Febcc

1519Mn

2180Crbcc

2183V

bcc

1941Ti

hcp

1814Schcp

1115Cafcc

336.53K

bcc

ArClSPSi933.47Alfcc

923Mghcp

370.87Nabcc

NeFONCB1560Behcp

453.69Li

bcc

HeH

LrNoMdFmEsCfBkCmhcp

Amhcp

PuNpUPaThfcc

Acfcc

Luhcp

Ybfcc

Tm hcpErhcp

Hohcp

Dyhcp

Tbhcp

Gdhcp

Eubcc

SmPmhcp

NdPrCefcc

La

UuoUusUuhUupUuqUutUubRgDsMtHsBhSgDbRfRabcc

Fr

RnAtPo544.7Bi

600.61Pbfcc

577Tl

hcp

234.32Hg

1337.33Aufcc

1768Ptfcc

2446Ir

fcc

3033Oshcp

3186Rehcp

3422W

bcc

3290Tabcc

2506Hf

hcp

1000Babcc

302Csbcc

XeITe904Sb

505Sn

430In

594Cd

1235Agfcc

1828Pdfcc

2237Rhfcc

2607Ruhcp

2430Tchcp

2896Mobcc

2750Nbbcc

2128Zr

hcp

1799Y

hcp

1050Srfcc

312.46Rbbcc

KrBrSeAsGe301.91Ga

692.68Zn

1357.8Cufcc

1728Nifcc

1768Cohcp

1811Febcc

1519Mn

2180Crbcc

2183V

bcc

1941Ti

hcp

1814Schcp

1115Cafcc

336.53K

bcc

ArClSPSi933.47Alfcc

923Mghcp

370.87Nabcc

NeFONCB1560Behcp

453.69Li

bcc

HeH

Wilkipedia

Page 17: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

non metalnot known / uncertain

unusual structure

fccface centredcubic (cubic close packed)

hcphexagonal close packed

bccbody centredcubic

non metalnot known / uncertain

unusual structure

fccface centredcubic (cubic close packed)

hcphexagonal close packed

bccbody centredcubic

LrNoMdFmEsCfBkCmhcp

Amhcp

PuNpUPaThfcc

Acfcc

Luhcp

Ybfcc

Tm hcpErhcp

Hohcp

Dyhcp

Tbhcp

Gdhcp

Eubcc

SmPmhcp

NdPrCefcc

La

UuoUusUuhUupUuqUutUubRgDsMtHsBhSgDbRfRabcc

Fr

RnAtPo544.7Bi

600.61Pbfcc

577Tl

hcp

234.32Hg

1337.33Aufcc

1768Ptfcc

2446Ir

fcc

3033Oshcp

3186Rehcp

3422W

bcc

3290Tabcc

2506Hf

hcp

1000Babcc

302Csbcc

XeITe904Sb

505Sn

430In

594Cd

1235Agfcc

1828Pdfcc

2237Rhfcc

2607Ruhcp

2430Tchcp

2896Mobcc

2750Nbbcc

2128Zr

hcp

1799Y

hcp

1050Srfcc

312.46Rbbcc

KrBrSeAsGe301.91Ga

692.68Zn

1357.8Cufcc

1728Nifcc

1768Cohcp

1811Febcc

1519Mn

2180Crbcc

2183V

bcc

1941Ti

hcp

1814Schcp

1115Cafcc

336.53K

bcc

ArClSPSi933.47Alfcc

923Mghcp

370.87Nabcc

NeFONCB1560Behcp

453.69Li

bcc

HeH

LrNoMdFmEsCfBkCmhcp

Amhcp

PuNpUPaThfcc

Acfcc

Luhcp

Ybfcc

Tm hcpErhcp

Hohcp

Dyhcp

Tbhcp

Gdhcp

Eubcc

SmPmhcp

NdPrCefcc

La

UuoUusUuhUupUuqUutUubRgDsMtHsBhSgDbRfRabcc

Fr

RnAtPo544.7Bi

600.61Pbfcc

577Tl

hcp

234.32Hg

1337.33Aufcc

1768Ptfcc

2446Ir

fcc

3033Oshcp

3186Rehcp

3422W

bcc

3290Tabcc

2506Hf

hcp

1000Babcc

302Csbcc

XeITe904Sb

505Sn

430In

594Cd

1235Agfcc

1828Pdfcc

2237Rhfcc

2607Ruhcp

2430Tchcp

2896Mobcc

2750Nbbcc

2128Zr

hcp

1799Y

hcp

1050Srfcc

312.46Rbbcc

KrBrSeAsGe301.91Ga

692.68Zn

1357.8Cufcc

1728Nifcc

1768Cohcp

1811Febcc

1519Mn

2180Crbcc

2183V

bcc

1941Ti

hcp

1814Schcp

1115Cafcc

336.53K

bcc

ArClSPSi933.47Alfcc

923Mghcp

370.87Nabcc

NeFONCB1560Behcp

453.69Li

bcc

HeH

Wilkipedia

Page 18: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Carbon crystal structures:

Eight allotropes of carbon:

a) Diamond,

b) Graphite,

c) Lonsdaleite,

d) C60 (Buckminsterfullereneor buckyball),

e) C540,

f) C70,

g) Amorphous carbon,

h) single-walled carbon nanotube or buckytube.

Wilkipedia

Page 19: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Carbon crystal structures:

Eight allotropes of carbon:

a) Diamond,

b) Graphite,

c) Lonsdaleite,

d) C60 (Buckminsterfullereneor buckyball),

e) C540,

f) C70,

g) Amorphous carbon,

h) single-walled carbon nanotube or buckytube.

Nine

The Nobel Prize in Physics 2010

Wilkipedia

Page 20: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

Carbon devices:

The Nobel Prize in Physics 2010

Tech News DailyWilkipedia

http://www.technewsdaily.com/for-wonder-material-graphene-nobel-prize-is-just-the-start-1388/

Page 21: ECE 474: Principles of Electronic Devices

V.M. Ayres, ECE474, Spring 2011

In ECE 474:

The Nobel Prize in Physics 2010

Graphene

Carbon nanotubes