EE 2212 Electronics I (4 Credits)

Spring Semester 2017 Syllabus

Last Update:  10 January 2017

Stanley G. Burns

MWAH 153

726-7506

sburns@d.umn.edu

Time/Location:     10:00-10:50  pm Monday, Wednesday, and Friday CHEM 155 

                Lab Section 2 9:00-11:50 Thursday MWAH 391

        Lab Section 3  1:00-3:50 pm Thursday MWAH 391

Labs start the week of 16 January (Thursday-19 January)

Office Hours: I encourage you to stop by my office in MWAH 153  if you have any questions or need additional guidance on the homework or other topics.  I will post my office hours on the WEB using Google Calendar, and on my door.  I also provide important schedule information updates via the Class E-Mail alias.  Please call (x7506) or e-mail if you want to set up an appointment.

WEB Page And E-Mail:

http://www.d.umn.edu/~sburns/  (For Me and Follow the Links to EE2212)

http://www.d.umn.edu/ee/ (For the EE Department)

sburns@d.umn.edu

Textbook:

Ø Richard C. Jaeger and Travis N. Blalock, “Microelectronic Circuit Design”,  Fifth Edition. Copyright 2016, ISBN 978-0-07-352960-8.   I supplement heavily when it comes to current technology issues and updates.

Ø A numbered page quad-ruled laboratory notebook.  I’ll bring some examples to class

Ø Flash drive for data collection and saving text and graphical files.

Ø PSPICE-Also resident on the computers in MWAH 102 if you don’t have a copy on your windows-based computer from EE 2006.

Ø I will also distribute supplementary information throughout the semester and/or course material will be on the EE 2212 Class Web page.   I send frequent e-mails when material has been posted to the class WEB page.

References:

I will distribute articles from a variety of sources during the semester to illustrate current technology and design approaches.   I will also post WEB links on the class WEB page.

Richard C. Jaeger, Introduction to Microelectronic Fabrication, Addison-Wesley Publishing Company Modular Series on Solid State Devices, Volume V.

S. Sedra and K. C. Smith, Microelectronic Circuits, most recent edition, Saunders College Publishing. With SPICE supplements.

I also have quite a number of  other electronic circuits and microelectronic device and processing texts, as well as SPICE documentation I will provide on short-term loan from my office.

Periodically, I will also post sample quizzes and other materials (EE 2212 WEB Page) from my teaching prior teaching of EE 2212 on my WEB page.

COURSE GRADING (Subject to Adjustment)

Weekly Quizzes 40%

Homework and SPICE Problems 15%

Laboratory 25%

Final Examination 20%

TOTAL 100%

Ø I strongly encourage working together in study groups as you do the problems and work in the laboratory. Indeed, I will be assigning group effort homework as part of implementing Cooperative Learning and Active Learning paradigms. More on this as we proceed through the semester.

Ø You may work in the laboratory at times other than your scheduled lab time.  Arrange for access on your key card with the EE Office staff, MWAH 271.  Note that you must not work alone after hours  and follow all laboratory rules for your safety and security of the equipment.

Ø There will be series of 20 minute quizzes almost every Wednesday starting on Wednesday, 25 January.

Ø Quiz coverage will include material supporting the problem set, as well as material covered in class through the previous class period. Any additions or deletions from quiz topical coverage will be announced in class, via e-mail, and/or on the EE 2212 WEB page. Most of the quizzes will be collaborative two-person team efforts.  I intend to drop one or two of the lowest quiz scores depending upon how many quizzes we have during the semester. ALL QUIZZES ARE OPEN BOOK, LAPTOP  (WEB OK but watch your time management), AND NOTES. Be sure and bring your completed problem set to class.

Ø Since I have taught  EE 2212 in the past, I will also post old quizzes or portions of old quizzes on the class WEB page that have been used in previous semesters as an additional study materials resource.  Please recognize that technology associated with this class changes rapidly and older quizzes obviously can not reflect current technology and “hot topics”.

Ø Unless otherwise announced, I will collect the problem set along with the quiz. It is also important to note that I often use homework problems and topics as part of the weekly quizzes. I will grade some or all of the problems on each problem set. I encourage you to ask questions about the homework problems during class and in office visits.  I can try and respond to e-mail inquires but it is sometimes difficult to discuss problem approaches and solutions using e-mail.  I also encourage you to ask for assistance on any underlying and supporting topics from other courses. You may work together, and I encourage you to do so, but remember you, and you alone, are responsible for your work and you must turn in homework individually unless otherwise noted.

Ø Karin Larson, UGTA will be assisting in grading  homework and laboratory reports.

Ø As a matter of professionalism and courteousness to your colleagues; use  of cellular telephones,  PDAs of any type, “Smart Phones”, other wireless tools, IR links, iPods, iPhones, and pagers in class is prohibited.  Please turn off the “ringers/ring tones” before you come to class.

Ø You are encouraged to use your technology to follow along in class as appropriate, however, as a matter of professionalism and courteousness to your colleagues;  use of laptops, PDAs, etc during  class for non-class use such as e-mail, texting,  tweeting, IM, Facebook, and “surfing the WEB” is prohibited.

Ø You are welcome to photograph material in the blackboard

Ø I generally use Internet Explorer (IE) for the class WEB Browser.  It is possible that some graphics and the symbol font may not display  correctly if you use Firefox or other open-access WEB browsers.  Some versions of iOS and mobile Apps also have some symbol conversion issues.  I have also observed that some versions of “OPEN OFFICE” do not display some graphics and the symbol font correctly.

Ø Laboratory instructions are linked to the class WEB page.

Students with Disabilities:
It is the policy and practice of the University of Minnesota Duluth to create inclusive learning environments for all students, including students with disabilities. If there are aspects of this course that result in barriers to your inclusion or your ability to meet course requirements such as time limited exams, inaccessible web content, or the use of non-captioned videos, please notify the instructor as soon as possible. You are also encouraged to contact the Office of Disability Resources to discuss and arrange reasonable accommodations. Call 218-726-6130 or visit the Disability Resources web site at https://umd-general.umn.edu/disability-resources for more information.

                        TENTATIVE SYLLABUS

Week

Text Material

Laboratory

Learning Objectives

11-13 January

Sections 1.1 through 1.6

No Laboratory on  12 January

Course Introduction.

Review of EE 2006 Topics, Quiz Zero which is a Learning Objectives Survey

Review of electronic signals and definitions.  Review of Thévenin and Norton sources.

16-20 January

Sections 1.7, and Chapter 10 with a focus on Sections 10.1, 10.2, 10.5, 10.7, 10.8, and 10.9

Classes only on Wednesday and Friday, Monday is a University Holiday, Martin Luther King Day

Experiment 1                     19 January Laboratory Orientation

RC Circuits-Frequency and Time Domain Response Measurements

Amplification and the Decibel and review of the Phasor.

Operational amplifier:

Ø  Definitions

Ø  Models

Ø  Selected basic applications

SPICE models for sources and operational amplifiers.

23-27 January

Continue with Chapter 10, Sections 10.8 and 10.9 including  SPICE AC (Frequency Domain) and Transient Analysis

 

Experiment 2

Basic Operational Amplifier Circuits.  Somewhat of a review from EE 2006.

Operational amplifier circuits and continue with additional applications.

 

Quiz 1 on Wednesday, 25 January

.

30 January-3 February

Selected sections of Chapter 2 with a focus on Sections 2.1, 2.2, 2.3, 2.4, 2.5, 2.6, 2.7, 2.10, 2.11 and considerable supplementary material on integrated circuit fabrication

Experiment 3

Advanced Operational Amplifier Circuits

Semiconductor Overview:

Ø  Definitions

Ø  Physics overview

Ø  Doping

Ø  Resistivity in doped silicon

6-10 February

Selected sections of Chapter 3 with a focus on Sections 3.1, 3.2, 3.3, 3.4 and supplementary material on diode specifications

Experiment 4

Diode I-V Measurements

Junction Diode Characteristics and Applications

Ø  Diode equation

Ø  Specifications and data sheets

Ø  Static load-line analysis and dc circuit design

Ø  Piecewise linear diode models

13-17 February

Continue with Chapter 3 topics.  Selected sections of 3.6, 3.7, 3.9, 3.10, 3.11, 3.12, 3.13, 3.15, 3.18

Section 6.4 on Boolean functions

Supplementary materials on photonics

Experiment 5

 

Rectifier and other Diode Circuits

Ø  Diode SPICE models Rectifier circuits

Ø  Avalanche diode voltage regulator

Ø  Wave shaping circuits

Ø  Logic circuits and other applications

Ø  Thermal model

20-24 February

Continue with Chapter 3 topics-Diodes and Photonics

Experiment 6

 

Additional Rectifier and other Diode Circuits

Photonic definitions and application overview

27 February-     3 March

Selected sections of Chapter 4 with a focus on 4.1, 4.2, 4.3, 4.4, 4.6

Experiment 7

 

MOSFET I-V Characteristics

 

MOSFET Circuits

Metal-Oxide-Semiconductor Field-Effect Transistor (MOSFET)

Ø  Notation and symbols

Ø  Physical structure

Ø  Physics of operation

Ø  I-V characteristics

Ø  SPICE modeling

6-10 March

SPRING RECESS and not a moment too soon

ColdDay.jpg

13-17 March

Sections 4.9 and 4.10 and Sections 6.5, 6.6, 6.7 . 

 

No class on Friday, 28 October. Fall break.

Experiment 8

MOSFET Circuits

MOSFET Models

Ø  h-parameter

Ø  Hybrid-π

Ø  SPICE

Ø  Manufacturer’s data

Ø  MOSFET  Biasing

20-24 March

Sections 7.1, 7.2, 7.3

Experiment 9

Additional MOSFET Circuits

Ø  MOSFET Circuits

Ø  CMOS Circuits

27-31 March

Selected sections of Chapter 5.1 through 5.11

Experiment 10

BJT Characteristics and BJT-Based Amplifier

Bipolar Junction Transistor (BJT)

Ø  Notation and symbols

Ø  Physical structure

Ø  Physics of operation

Ø  I-V characteristics

3-7 April

Continue with selected sections of Chapter 5 and selected sections of Chapter 13 related to small-signal operation

Experiment 11

BJT Characteristics and BJT Self-Biased Amplifier

Models

Ø  h-parameter

Ø  Hybrid-π

Ø  SPICE

Ø  Manufacturer’s data

10-14 April

Continue with selected sections in Chapter 13 and selected sections in Chapter 16 dealing with current sources and biasing of BJT and MOS circuits

 

Experiment 12

Current Sources and Mirrors

Use of Models To Design

Ø  CE Amplifiers

Ø  CB Amplifiers

Ø  CC Amplifiers

Ø  Current Sources and Mirrors

17-21 April

Selected sections in Chapter 15 dealing with the emitter-coupled pair and the differential amplifier

Experiment 13

Emitter-Coupled Differential Pair

Emitter-Coupled Pair

Ø  DC characteristics

Ø  Biasing

Ø  Small-signal operation

24-28 April

Section 15.3 Power Output Stages and Configurations

 

Notebook Review

Power Amplifiers

Ø  Class A

Ø  Class B

Ø  Class AB

Ø  Class D

 

1- 5 May

FINAL EXAM                        

 

Coverage and format to be announced