Introduction to Electrical Engineering II
Honor Code and Exam Policy
All students are expected to abide by the George Mason University Honor Code. Sharing of ideas and comparison of answers on homework is acceptable and encouraged, but copied work will not be accepted. All tests and the final exam will be closed book and closed notes unless specifically stated otherwise by the Instructor. All work must be your own. Any reasonable suspicion of an honor violation will be reported.
Students must arrive in class within 15 minutes of the scheduled starting time for all tests and exams. Students arriving later than 15 minutes after the scheduled starting time will not be allowed to take the test/exam and will receive a grade of 0 for the test/exam.
|Homework Assignments||ECE 220/320 Examples||ECE 201 Examples||Labs|
|Objectives||Grading||Important Dates||Course Outline|
Introduce the students to some of the major concepts in electrical engineering, such as frequency response and sampling.
Introduce the students to methods of engineering problem solving through the use of powerful software tools.
Introduce the students to some important mathematical tools that will be used in many of their subsequent courses in electrical engineering.
Late homework will not be accepted. The two lowest homework grades will be dropped when determining a student's homework grade. The higher test grade will count 60% of the test average, and the lower test grade will count 40% of the test average.
Test 1 -- Tuesday, February 22 - Chapter 1 and MATLAB
Test 2 -- Thursday, April 6 - Chapters 2 and 3
Final Exam -- Tuesday, May 16, 4:30 p.m. - 7:15 p.m., Comprehensive, Chapters 4 and 5 emphasized.
Last day to drop classes without Dean's permission -- Friday, February 25.
No Class March 13 - 19 due to Spring Break!!
Chapter 1 -- Introduction, overview and outline of the course, signals and systems -- their definitions and mathematical representations - 1 class period.
MATLAB overview -- The syntax of commands in MATLAB, common MATLAB commands, writing functions and scripts - 7 class periods.
Chapter 2 -- Complex numbers and complex arithmetic, sinusoidal signals, relationships between the time and frequency domains, graphical representations of signals - 5 class periods.
Chapter 3 -- Frequency spectrum of a signal, graphical methods for representing the spectrum, combinations of sinusoids, creating non-sinusoidal signals from sinusoids, the Fourier series - 4 class periods.
Chapter 4 -- Converting continuous-time signals to discrete-time, the sampling process, the effect of sampling too slowly, fundamental limitations on sampling, the frequency spectrum of a sampled signal, converting discrete-time signals back to continuous-time, ideal interpolation - 4 class periods.
Chapter 5 -- Systems that operate in discrete time, the Finite Impulse Response (FIR) filter, an example of FIR filtering, building blocks for implementing FIR filters, linear time-invariant (LTI) systems - 5 class periods.
Labs -- All Lab sections will meet in Sci & Tech II, Room 133. The Lab experiments are designed and intended to complement the material presented in class in order to strengthen the students' understanding of the material. Students are expected to be well prepared when they come to the Lab in order to make the most efficient use of their time.
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Lastest revision on
Thursday, June 8, 2006 6:53 PM