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EE
461 |
| Email: | mason@engr.uky.edu | Homepage: | http://www.engr.uky.edu/~mason | |
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Assistant
Professor |
Office: |
685
Anderson Hall 859-257-1775 859-257-3092 |
Mail to: |
453
Anderson Hall University of Kentucky Lexington, KY 40506-0046 |
Spring 2000
Course Notes:
Exams
Exam1 (in pdf format)
Exam2 (in pdf format)
Anouncements:
Exam 1 -- Thursday, February 24
Exam 2 -- Thursday, April 6
Final Exam, Wed. May 3, 1pm
Professor Mason's: HOME | RESEARCH | AMSaC LAB | EE COURSES
University of Kentucky
| UK College of Engineering | UK Electrical Engineering | UK EE Faculty
| Class Time: | Tuesday/Thursday | 8:00am - 9:15am |
|
Location: |
259 Anderson Hall | |
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Instructor: |
Prof. Andrew Mason | 685 Anderson Hall 257-1775 mason@engr.uky.edu |
|
Office Hours |
Tuesday Thursday Wednesday |
9:15am - 10:00am 9:15am - 10:00am 4:00pm – 5:30pm |
|
Teaching Assistant |
Aravind Murarishetty Wed. and Thurs.: |
12:00pm – 2:00pm 675 Anderson Hall |
Required Text:
Horenstein, Microelectronic Circuits and Devices,
2nd Ed., 1996, ISBN 0-13-701335-3, TK7874.H675
Supplementary Text:
Sedra and Smith, Microelectronic Circuits, 3rd
Ed., 1991, ISBN 0-03-51648-x, TK7867.S39 1991
Roberts, Sedra, Smith, Spice for Microelectronic Circuits, 3rd
Ed., 1992, ISBN 0-03-052617-5, TK7867.S39 1992
Copies of these books are on reserve in the Engineering Library (or should be
soon). Please take a look at them if you want more information or are having
trouble with a topic. One of these books covers SPICE, but I will hand out
additional material on SPICE in class.
Class Website:
Some material such as the class syllabus, homework
assignments, etc. will be available through the Web at www.engr.uky.edu/~ee461g/. Please
use this at your convenience and let me know if there is anything missing. The
most important feature of the website is that homework assignments and due dates
will be posted on the web and it is the student’s responsibility to check the
web for newly posted assignments.
Objective:
To provide students with the working knowledge required to
analyze and design basic transistor and diode circuits. Transistor circuits
include MOSFET (metal oxide semiconductor field effect transistor), BJT (bipolar
junction transistors), JFET (junction field effect transistors), and BiCMOS
(bipolar CMOS) technologies. Large Signal, Small Signal, and Frequency responses
are covered.
The following competencies should be imparted to the students:
SPICE:1. Draw the characteristic curves for the diode, BJT, JFET, and MOSFET, to identify regions of operation, and to draw the linear circuit approximations for each region.
2. Complete a load line analysis.
3. Draw the circuit schematic of common rectifier circuits and draw the diode currents for the circuit with a resistive load.
4. Draw the circuit schematic of the common transistor amplifier configurations.
5. Know advantages and disadvantages of common the transistor amplifier configurations.
6. Bias a BJT or MOSFET device to achieve a desired quiescent operating point.
7. Linearize non-linear (transistor) devices and make small signal models.
8. Design and analyze simple digital circuits using diodes, BJTs or MOSFETs.
9. Use commercial simulation tools (such as SPICE) to analyze circuits that include semiconductors.
Quizzes
Short quizzes covering material from the previous
week's class will be given randomly once a week. Quizzes will be at the
beginning of class and anyone arriving after the quiz begins will not be allowed
to take the quiz. As long as you come to class and are there on time, you should
do fine. Students should bring paper, pencil or pen, and a calculator to class
each day.
Homework
Homework will be given approximately once a week and
will be due on Thursday, one week after it is assigned. Homework assignments and
due dates will be posted on the class web page and it is the students
responsibility to check this site. Homework may be turned in after class or by
3pm in the instructor's office.
-LATE HOMEWORK will NOT be accepted. Students are encouraged to work together on
homework as long as each student tries to complete all of the problems on his
own. Everyone must turn in individual homework which will be graded more on
effort than on correct answers. Copying will not be tolerated.
Exams
There will be two mid-term exams and a final exam as
listed in the course outline. The final exam will be comprehensive but will
focus on material covered after the second exam. Any student with an 'A' average
before the final exam may optionally take a homework-like take-home final rather
than the normal final exam.
Final Grade
Grades will be based on quizzes, homework, two
mid-term exams, and a final exam according to the percentages below. Overall
grades will be scaled to a class average of 82% and assigned to the standard
scale (>90% = A, >80% = B, etc.).
| Quizzes Homework: Exam 1: Exam 2: Final Exam: |
10% 20% 20% 20% 30% |
Student Conduct:
Although you may work together on homework, copying is not
allowed. Cheating in any form on quizzes and exams will not be tolerated.
Students are on their honor not to cheat and to inform the instructor if they
witness any cheating, and students will be required to sign an honor pledge
agreeing to this. Classroom activities will be rather freeform -you may ask
questions or make comments at any time, but you should always conduct yourself
in a manner that will not disturb other people in the class.
Final Comment:
The primary goal of this class is for you to gain a basic
understanding of semiconductor devices and their use in circuits. I know this
material is not easy, so please come to me if you have any questions or are
having any trouble understanding the material. And don’t be afraid to ask
questions in class; chances are that, if you don’t understand something, then
other people don’t either, and I need you to tell me when it’s not making
sense.
Professor Mason's: HOME | RESEARCH | AMSaC LAB | EE COURSES
University of Kentucky
| UK College of Engineering | UK Electrical Engineering | UK EE Faculty
EE 461G: Introduction to Electronics
Spring 2000 Course Outline
|
Week |
Date |
Topic |
Reading |
Supplement Reading |
Homework Due |
|
1 |
Jan. 13 | Introduction, syllabus | Ch. 1 | S&S Ch. 1 | |
|
2 |
Jan. 18 | Linear Circuits Review | |||
| Jan. 20 | Operational Amplifier Review | Ch. 2 | S&S Ch. 2 |
HW1 |
|
|
3 |
Jan. 25 | Nonlinear Elements | Ch. 3 | ||
| Jan. 27 | Diodes and Rectifier Circuits | Ch. 4 | S&S Ch. 3 |
HW2 |
|
|
4 |
Feb. 1 | MOS Transistors | Ch. 5.1, 5.2 | S&S Ch. 5 | |
| Feb. 3 | Bipolar Transistors | Ch. 5.3, 5.4 | S&S Ch. 4 |
HW3 |
|
|
5 |
Feb. 8 | Semiconductor Physics | Appendix A, HO | ||
| Feb. 10 | Device Physics |
HW4 |
|||
|
6 |
Feb. 15 | SPICE for Semiconductor Devices | Appendix C, HO | Appendix C | |
| Feb. 17 | EXAM 1 | covers week 1-5 | |||
|
7 |
Feb. 22 | Fabrication Technology | Appendix B | Appendix A | |
| Feb. 24 | Other Semiconductor Devices | Ch. 5.5 - 5.7 |
HW5 |
||
|
8 |
Feb. 29 | Inverters | Ch. 6.1 | S&S Ch. 4, Ch. 5 | |
| Mar. 2 | Voltage-Follower | Ch. 6.2 | S&S Ch. 4, Ch. 5 |
HW6 |
|
|
9 |
Mar. 7 | Current-Follower, Digital Operation | Ch. 6.3, 6.4 | S&S Ch. 4, Ch. 5 | |
| Mar. 9 | Biasing and Large Signal Models | Ch. 7.1 - 7.3 | S&S Ch. 4, Ch. 5 |
HW7 |
|
|
10 |
Mar. 14 | SPRING BREAK | |||
| Mar. 16 | SPRING BREAK | ||||
|
11 |
Mar. 21 | Small Signals Models | Ch. 7.4 | S&S Ch. 4, Ch. 5 | |
| Mar. 23 | Two-Port Models | Ch. 7.5 |
HW8 |
||
|
12 |
Mar. 28 | Review (catch-up) | |||
| Mar. 30 | EXAM 2 | covers week 6-11 | |||
|
13 |
Apr. 4 | BJT Differential Amplifiers | Ch. 8.1 - 8.3 | S&S Ch. 6 | |
| Apr. 6 | MOS Differential Amplifiers | Ch. 8.4 - 8.5 |
HW9 |
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|
14 |
Apr. 11 | Frequency Response | Ch. 9.1, 9.2 | S&S Ch. 7 | |
| Apr. 13 | Frequency Response | Ch. 9.3 - 9.5 |
HW10 |
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|
15 |
Apr. 18 | Introduction to Feedback | Ch. 10.1 - 10.4 | S&S Ch. 8 | |
| Apr. 20 | Advanced Transistor Modeling | ||||
|
16 |
Apr. 25 | catch-up day | |||
| Apr. 27 | Review - Last Class | ||||
| May. 3 | Final Exam – Wed. 1:00pm | comprehensive exam |
Professor Mason's: HOME | RESEARCH | AMSaC LAB | EE COURSES
University of Kentucky
| UK College of Engineering | UK Electrical Engineering | UK EE Faculty