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KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

KALASALINGAM UNIVERSITY

(Kalasalingam Academy of Research and Education)

Krishnankoil

DEPARTMENT OF ELECTRONICS AND COMMUNICATION ENGINEERING

COURSE INFORMATION SHEET

ECE201 – ELECTRON DEVICES

DELETE ALL TEXT IN RED BEFORE PRINT;

DO NOT CUT, COPY PASTE; PLEASE TYPE

ALL so that times new roman font is everywhere

1.

COURSE DETAILS

REVISION DATE: REVISION: 2014-15 / Odd Semester

BRANCH/YEAR/

SEMESTER/SECTION(S) :

B.Tech. E.C.E./ II /III/ A

REQUIRED/ELECTIVE : Required

PRE-REQUISITE(S) :

PHY111, PHY112, EEE101, ECE205, ECE284

CO-REQUISITE(S) : ECE205

RELATED COMPUTER

TOOLS/ SOFTWARE : PSPICE, Circuit Maker, Model SIM,

PROFESSIONAL

COMPONENT:

Engineering Sciences :

Basic Sciences :

Mathematics :

Humanities :

50%;

30%;

20%

Not Required

EXPECTED LEVEL OF

PROFICIENCY FROM

STUDENTS :

Engineering Sciences : Medium (Basic Electronics and circuit analysis);

Mathematics : Strong;

Basic Sciences : Strong (Physics);

Humanities : Not Required

COURSE SCHEDULE :

Practical – nil

Lecture – 4 per week, 50 minutes each

Tutorial – Nil

© ECE Department, Kalasalingam University

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KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

COURSE DELIVERY

METHODOLOGY :

COURSE DESCRIPTION :

COURSE OBJECTIVES :

COURSE OUTCOMES :

Web facilitated

(Lectures, Discussions will be face-to-face; Assessments will be both traditional, online.)

This course analyses the characteristics of various semiconductor devices. Emphasis is placed on the fundamental physics behind operation of PN junction devices. The course covers analysis of a wide range of semiconductor devices including power transistors and Opto-electronic devices. The course is accompanied by a laboratory course to analyse and design circuits using the Semiconductor devices. The course forms the foundation for all the electronic circuits

To familiarise the students with

1.

Basic physics of semiconductor devices.

2.

The importance of electrons and holes in semiconductors, the charge density and distribution, the charge transport mechanisms.

3.

The physics of p-n junction

4.

The working of most semi-conductor devices and basic

Opto-electronic devices

At the end of the course, the students will be able to

1. Analyze the basic physics of carrier transport in bulk semiconductors and real device Structures.

2. Illustrate the fundamentals of operation of the main semiconductor electronic devices.

3. Solve electronic devices and systems using mathematical concepts.

4. Develop the capability to analyze and design simple circuits containing non-linear elements such as transistors using the concepts of load lines, operating points and

Incremental analysis.

5.

Demonstrate fundamental knowledge in the use of laser and photonic devices.

Programme

Outcomes

1 2 3 4 5 6 7 8 9 10 11 12

    

RELATIONSHIP TO

PROGRAMME

OUTCOMES :

2.

GRADING POLICY

(As per University Regulations)

Sessional Examination I

Sessional Examination II

Model Examination

18% (Units I, II)

18% (Units III, IV)

9% (Complete Syllabus)

© ECE Department, Kalasalingam University

Page 2 of 13

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

End Semester Examination 50% (Complete Syllabus)

Assignment, Quizzes, Tutorials and Others 5%

3.

ASSESSMENT SCHEME

COURSE OUTCOME

CO1: Analyze the basic physics of carrier transport in bulk semiconductors and real device structures

CO2: Illustrate the fundamentals of operation of the main semiconductor electronic devices.

ASSESSMENT TOOL

1.Surprise (Open Book Test)

2.Closed Book Test

3.Exams (SE-I, SE-II, MODEL, END

SEMESTER)

4.Entry Survey

5.Exity Survey

1. Assignment Problems from competitive exams.

2. Closed Book Test

3.Exams (SE-I, SE-II, MODEL, END

SEMESTER)

4.Entry Survey

5.Exity Survey

CO3: Solve electronic devices and systems using mathematical concepts.

CO4: Develop the capability to analyze and design simple circuits containing non-linear elements such as transistors using the concepts of load lines, operating points and incremental analysis

1. Assignment Problems from competitive exams.

2. Closed Book Test

3.Exams (SE-I, SE-II, MODEL, END

SEMESTER)

4.Entry Survey

5.Exity Survey

1. Assignment Problems from competitive exams.

2. Closed Book Test

3.Exams (SE-I, SE-II, MODEL, END

SEMESTER)

4.Entry Survey

5.Exity Survey

1. Assignment Problems from competitive exams.

2. Closed Book Test

3.Exams (SE-I, SE-II, MODEL, END

SEMESTER)

4.Entry Survey

5.Exity Survey

CO5: Demonstrate fundamental knowledge in the use of laser and photonic devices

4.

CONTENT DELIVERY

COURSE OUTCOME

CO1: Analyze the basic physics of carrier transport in bulk semiconductors and real device structures

DELIVERY METHODOLOGY

Class Room Lecture

Smart Class Room

© ECE Department, Kalasalingam University

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KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

CO2: Illustrate the fundamentals of operation of the main semiconductor electronic devices.

Class Room Lecture

Smart Class Room

Class Room Lecture

Smart Class Room

Student Seminar (SS)

CO3: Solve electronic devices and systems using mathematical concepts.

CO4: Develop the capability to analyze and design simple circuits containing non-linear elements such as transistors using the concepts of load lines, operating points and incremental analysis

CO5: Demonstrate fundamental knowledge in the use of laser and photonic devices

5.

KNOWLEDGE LEVEL

Class Room Lecture

Smart Class Room

Student Seminar (SS)

Class Room Lecture

Smart Class Room

Student Seminar (SS)

COURSE OUTCOME

KNOWLEDGE LEVEL

(BLOOM’S TAXONOMY)

CO1: Analyze the basic physics of carrier transport in bulk semiconductors and real device structures

CO2: Illustrate the fundamentals of operation of the main semiconductor electronic devices.

CO3: Solve electronic devices and systems using mathematical concepts.

CO4: Develop the capability to analyze and design simple circuits containing non-linear elements such as transistors using the concepts of load lines, operating points and incremental analysis

CO5: Demonstrate fundamental knowledge in the use of laser and photonic devices

Analyze

Application

Application

Synthesis

Comprehension

© ECE Department, Kalasalingam University

Page 4 of 13

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

6.

LEARNING RESOURCES

REQUIRED TEXT BOOK(S)

SL.

NO. BOOK TITLE AUTHOR(S)

EDITION/

YEAR PUBLISHERS

5 th

Edition,

2008 Oxford Press T1 Electronic Devices and Circuits A. Bell

T2

T3

Electronic Devices and Circuits

Electronic Devices and Circuits

Millman Jacob ,

Christos Halkias,

Satyabrata Jit

S Salivahanan, N.

Suresh Kumar

3 rd Edition,

2010

3 rd Edition,

2012

TMH

TMH

RECOMMENDED REFERENCE BOOKS

SL.

NO. BOOK TITLE AUTHOR(S) EDITION/YEAR PUBLISHERS

R1

Display Systems: Design and

Applications

Lindsay

MacDonald,

Anthony C. Lowe

(Editors), 1997

Wiley

International

TMH, 7 th

Edition R2 Electronic Principles Albert Malvino 2008

R3

Electronic Devices and

Circuit Theory

,

Robert L.

Boylestad, Louis

Nashelsky 10 th

Edition, 2012

Pearson

India

R4

Electronic Devices and

Circuits

N Deshpande 2007 TMH

Adel S. Sedra,

Kenneth C. Smith

R5

R6

Microelectronic Circuits

Physics of Semiconductor

Devices and Arun N.

Chandorkar

S. M. Sze, Kwok

K. Ng

6 th Edition, 2013

3 rd

Edition

Oxford India

Wiley India

WEBSITES, ONLINE MATERIALS, E-BOOKS (list only the materials which are allowed to distribute; do not violate copyright)

SL. NO. MATERIAL DETAILS

© ECE Department, Kalasalingam University

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KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

SL. NO.

M1 (COM

PULSOR

Y)

M2 (COM

PULSOR

Y)

M3 (COM

PULSOR

Y)

M4 (COM

PULSOR

Y)

M5 (COM

PULSOR

Y)

M6

M7

M8

M9

M10

M11

M12

M13

M14

M15

M16

MATERIAL DETAILS

[E-Guru – NPTEL ON Intranet] http://172.16.0.7/Electronics%20and%20Communication%20Engineering/Solid%20

State%20Devices/

File Server (User name:ECE201 Password:ECE201 )

[MIT OpenCourseWare] http://ocw.mit.edu/courses/electrical-engineering-andcomputer-science/6-002-circuits-and-electronics-spring-2007/

[COURSE ERA] https://class.coursera.org/mosfet-001/lecture https://www.edx.org/course/tsinghuax/tsinghuax-202203322x-principles-electric-

1319 http://books.google.co.in/books?id=rCxNKzuBIAwC&printsec=frontcover&dq=Introduction

+to+CMOS+ppt&hl=en&sa=X&ei=YFh8U53NHMyRuAS47oCAAQ&ved=0CDkQ6AEwAA#v=o nepage&q&f=false http://www.nxp.com/documents/application_note/APPCHP6.pdf

http://www.skyworksinc.com/downloads/press_room/published_articles/MPD_022009.p

df http://www.electronics-tutorials.ws/transistor/tran_1.html

http://www.eecs.berkeley.edu/~hu/Chenming-Hu_ch4.pdf

https://www.google.co.in/?gfe_rd=cr&ei=All8U-PzA-vV8geK6IHgDw#q=ujt+ppt http://www.sysf.physto.se/fte/lectures/pdf_files/FTE24.pdf

http://www.powershow.com/view/563d9-

ZTdiY/Introduction_to_Optoelectronic_Devices_powerpoint_ppt_presentation https://www.google.co.in/?gfe_rd=cr&ei=41x8U6zVHrV8gext4GQAg#q=BASIC+Piezoelectric+Crystals+PPT https://www.google.co.in/?gfe_rd=cr&ei=41x8U6zVHrV8gext4GQAg#q=tunnel+diodes+ppt https://www.google.co.in/?gfe_rd=cr&ei=41x8U6zVHrV8gext4GQAg#q=display+devices+ppt

© ECE Department, Kalasalingam University

Page 6 of 13

7.

CONCEPT MAP

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

© ECE Department, Kalasalingam University

Page 7 of 13

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

8.

COURSE PLAN

ABBREVIATION

L

MM

GL

CS

MPROJ

IV

EL

SS

SW

GD

T

PROJ

STC

P

TEACHING METHODOLOGY

TEACHING METHOD

Class Room Lecture

Smart Class Room

Guest Lecture

Case Studies

Mini project

Industrial Visit

Web-Facilitated course delivery

(E- Contents by you; not downloaded ones )

Self Study Topic

Seminars, Workshops ( By External Experts)

Group Discussions

Tutorials

Projects

Summer Term Courses

Laboratory sessions

SL.

NO.

1.

. Introduction

2.

TOPIC NAME

Assessments, Surveys (for all 5 units)

REFERENCE(S)

--

---

PAGE

NUMBER(S)

--

-----

I INTRINSIC SEMICONDUCTORS

12

NUMB

ER OF

HOURS

1

CUMULATIVE

HOURS

1

13

E-MATERIAL

--

---

TEACHING

METHOD

L

----

© ECE Department, Kalasalingam University

Page 8 of 13

SL.

NO.

7.

TOPIC NAME

Energy band structure of conductors,

3.

semiconductors and insulators

Density distribution of available

4.

energy states in semiconductors

Fermi-Dirac probability distribution

5.

function at different temperatures

6.

Thermal generation of carriers

Calculation of electron and hole densities in intrinsic semiconductors

8.

Intrinsic concentration – Mass Action

Law

9.

10.

Majority and Minority charge carriers

– Mobile charge carriers and immobile ions

Drift current in good conductors – PN junction – formation of depletion layer junction or barrier voltage – forward biased PN junction – reverse

11.

biased PN junction – reverse saturation current

12.

junction breakdown – junction capacitance

13.

equivalent circuit of a PN junction –

14.

Diode Current equation

Mechanism of avalanche and Zener

15.

breakdown

REFERENCE(S)

PAGE

NUMBER(S)

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

NUMB

ER OF

HOURS

CUMULATIVE

HOURS E-MATERIAL

TEACHING

METHOD

T3

T2

T2

T1

T3

T3

T3

T3

T3

11

67

68

12-14

T3 72-76

T2

T3

86

72-76

II PN JUNCTION

T3

67-69

T3

84-93

96-110

112

116

104

114

1

1

1

1

1

1

1

1

1

1

1

1

1

12

13

14

15

16

17

18

19

20

21

22

23

24

M1

M1

M1

M1

M1

M1, M4

M1

M1

M1

M1

M1

M1

L

L

L

L

L

L

L

L

L

L

L

MM

MM

© ECE Department, Kalasalingam University

Page 9 of 13

SL.

NO.

16.

TOPIC NAME

Hall Effect, Effect of Temperature on

Breakdown Mechanism

17.

BJT current components

Emitter to Collector and Base to

18.

Collector current gains

19.

CB, CE and characteristics

20.

CC characteristics-– Breakdown characteristics

21.

Ebers-Moll model – Transistor switching times

22.

23.

24.

25.

Construction and Characteristics of

JFET

Relation between Pinch off voltage and drain current

MOSFET – Enhancement and depletion Modes

Introduction to CMOS,

BiCMOS

Metal Semiconductor Contacts –

Energy band diagram of metal

26.

semiconductor junction

27.

Schottky diode

28.

metal oxide semiconductor contacts and ohmic contacts

29.

Power control devices

Characteristics and equivalent circuit of UJT

© ECE Department, Kalasalingam University

REFERENCE(S)

T2

T3

PAGE

NUMBER(S)

106

111

III TRANSISTORS

T3 148

T3

149-154

T3

155-158

T3

158-171

T3

T1

T3

171-172

322-324

197-200

T2

401-408

T3

206-210

T2

497-498

IV POWER TRANSISTORS

T3

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

NUMB

ER OF

HOURS

CUMULATIVE

HOURS E-MATERIAL

TEACHING

METHOD

1

1

1

1

1

1

1

1

1

1

25

26

27

28

29

30

31

32

33

34

M3

M9

M9

M9

M3, M4

M3

M3, M4

M4, M6

L

L

L

L

L

MM

MM

L

MM

L

SS

T3

T3

128-129

133

1

1

35

36

M10

M8 L

L

134 1 37 M10

T3 MM

584-588 1 38 M11

Page 10 of 13

1

SL.

NO. TOPIC NAME

30.

intrinsic standoff ratio – PNPN diode

31.

Two transistor model – SCR

32.

TRIAC, DIAC- Power devices

33.

operation and characteristics: Thyristor family

REFERENCE(S)

T3

T3

T3

T3

PAGE

NUMBER(S)

226

227

235-237

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

NUMB

ER OF

HOURS

1

1

1

243 1

34.

Power diodes, Power transistors,

Power MOSFET - GTOs and IGBTs

T3

T2

238

547-548 1

35.

Liquid Crystal Displays

Light Emitting Diode – Photo emissive

36.

devices

V OPTO-ELECTRONIC AND OTHER DEVICES

T3

T3

789

784-787

1

1

T3

37.

38.

Photovoltaic devices –

Photoconductive Cells – Photodiodes

PN junction Photodiode – PIN

Photodiode

T3

775-781,144

144

1

1

CUMULATIVE

HOURS

39

40

41

42

43

44

45

46

47

E-MATERIAL

M12

M7

M7

M7

M13

M13

M13

M13

TEACHING

METHOD

MM

MM

SS

L

L

L

L

L

L

39.

Avalanche Photodiode – Piezoelectric

Crystals

T3

1 48 M14

MM

40.

41.

CCD - Voltage Variable Capacitor

Diodes –Solar Cells

Tunnel Diodes – Tunnel Diode

Circuits

T3

T2

T1

T3

146,535

220,783

174-179

994-996

136

1

1

49

50

M13

M15

SS

L

42.

43.

Display devices : Operation of LCDs,

ACTFELs

Plasma and field emission displays –

Basics of Lasers

T3

T3

794

798,146

1

1

51

52

M16

M16

MM

MM

X= number of assessments + 2 for surveys

© ECE Department, Kalasalingam University

Page 11 of 13

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

9.

OTHER INFORMATION

CONTENT / AVAILABILITY

Course Information Sheet

TO

STUDENTS

WITH

DEPARTMENT

WITH

INSTRUCTOR

Lecture notes, assessments and solutions

 

Assessment samples and summary

(Include any other information IN ADDITION TO THE ABOVE WHICH IS COMPULSORY, relevant to the course in this section like

1.

Calculators needed for which units

2.

A4 – Which type of paper to be used for assessments

3.

The assignments have to be submitted within one week

4.

Details on Tutorials, Assignments within one week

5.

Journals, Magazines, Industries List

6.

Latest Research and Developments

10.

EXTRA HELP

Students should, and are encouraged to, seek extra help if they are experiencing difficulty with the course work. Extra Help is available after class hours or at other times as arranged with the instructor.

11.

ATTENDANCE POLICY, ACADEMIC OFFENCES

Minimum Attendance Requirement: 80% (As per University Regulations)

The work you hand in (assignments, tests, and exam) must not contain anyone else's work or ideas without proper attribution. In particular, the actual write-up of your exercises and assignments must be done in isolation from other students (for individual work) or groups (for group work) and without copying from notes or other sources. This ensures that your solution is truly your own, and that your grade reflects your own understanding of the course material. To be safe, do not let others look at your solutions, even in draft form and even after the due date. Academic misconduct (cheating, plagiarism, or any other form) is a very serious offence that will be dealt with rigorously in all cases. A single offence may lead to disciplinary probation or

“0” zero grade/marks

for all or concerned assessment. The

Department of Electronics and Communication Engineering follows a zero tolerance policy regarding dishonesty.

© ECE Department, Kalasalingam University

Page 12 of 13

KLU/ECE/2014-15/ODD/Teaching-Learning/FORM-2E(U.G.-T)

ECE201 – ELECTRON DEVICES

12.

COURSE INSTRUCTOR(S):

NAME

PERUMAL.B

Prepared By

Course Coordinator

Name:PERUMAL.B

323

INSTRUCTOR

E-MAIL

OFFICE

(@klu.ac.in or

E-LEARNING

ADDRESS

@eceklu.in only

no personal gmail

( NO GOOGLE DRIVE please) or yahoo mail id) perumal@klu.ac.in

www.perumal.in

Verified By

Module Coordinator

Name:JEYAPRAKASH.K

Signature with Date: Signature with Date:

1.

After getting sign in printout, scan and paste ONLY YOUR SIGNATURE here.

2.

Ensure signature date and first page date are same

1.

After getting sign, scan and paste

ONLY THE SIGNATURE.

FOR OFFICE USE ONLY

Comments (if any):

(Signature of Programme Coordinator with date)

After getting sign, scan and paste ONLY THE

SIGNATURE

(Signature of Head of the Department with date)

After getting sign, scan and paste ONLY THE

SIGNATURE

1.

AFTER PASTING ALL SIGNATURES, SUBMIT THAT SOFT COPY TO THE

DEPARTMENT OFFICE.

2.

DO NOT DELETE any section out of the 12 sections.

3.

PLEASE TAKE AT-MOST CARE IN FILLING THE COURSE SHEET. AVOID ANY

BLUNDERS IN THE SHEET.

© ECE Department, Kalasalingam University

Page 13 of 13

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