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EGR 240 Introduction to Electrical and Computer Engineering

EGR 240 Introduction to Electrical and Computer Engineering. Prof. Richard E. Haskell 115 Dodge Hall Prof. Michael P. Polis 102J Science & Engineering Building. New Engineering Core. EGR 120 Engineering Graphics and CAD (1) EGR 141 Problem Solving in Engineering and Computer Science (4)

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EGR 240 Introduction to Electrical and Computer Engineering

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  1. EGR 240Introduction to Electrical and Computer Engineering Prof. Richard E. Haskell 115 Dodge Hall Prof. Michael P. Polis 102J Science & Engineering Building

  2. New Engineering Core EGR 120 Engineering Graphics and CAD (1) EGR 141 Problem Solving in Engineering and Computer Science (4) EGR 240 Introduction to Electrical and Computer Engineering (4) EGR 250 Introduction to Thermal Engineering (4) EGR 260 Introduction to Industrial and Systems Engineering (4) EGR 280 Design and Analysis of Electromechanical Systems (4)

  3. EGR 240 • Text: Essentials of Electrical and Computer Engineering by David V. Kerns, Jr. and J. David Irwin, Prentice Hall, 2004. • Prerequisites: • EGR 141 • MTH 154

  4. Course Contents • DC circuits • Op Amps • Basic logic gates • Boolean algebra and logic equations • Combinational logic • Sequential logic • AC Circuits • Magnetic circuits • DC motors

  5. Course ObjectivesBy the end of this course you should be able to: • State Ohm’s law and Kirchhoff’s laws and apply them to DC resistor circuits. • Write circuit equations using nodal and mesh analysis. • Find the equivalent circuit of a resistor network by using Thevenin’s theorem. • Analyze an ideal op-amp circuit. • Analyze basic electric circuits using PSpice and MATLAB.

  6. Course Objectives (cont.)By the end of this course you should be able to: • Convert a decimal number to binary and hexadecimal and vice versa. • Find the two’s complement of a binary number. • Identify basic gates (NOT, AND, OR, NAND, NOR, XOR, XNOR) and list the truth tables for each gate. • Design combinational logic circuits with up to four inputs using sum of products method. • Find the reduced form of any logic function with 3 or 4 inputs by using Karnaugh maps. • Use Verilog to design basic combinational and sequential circuits.

  7. Course Objectives (cont.)By the end of this course you should be able to: • Describe the behavior of capacitors and inductors in electric circuits. • Describe how sinusoidal functions can be analyzed using complex numbers and phasors. • Define impedance and admittance in AC circuits. • Describe the meaning of instantaneous power, average power, and effective or RMS power in electric circuits. • Describe the operation of a linear transformer. • Describe the operation of a basic DC motor. • Demonstrate an ability to work constructively in a team environment.

  8. Homework • Individual homework due on some Wednesdays • Class homework due on most lecture days • Late homework is NOT accepted

  9. Labs • Labs begin Tues, Jan. 10, 2006 • in Room 129, SEB • Groups of four (2 computers per group) • Lab assignments are on the website • Specific lab procedures will be given before each lab

  10. Exams • Exam 1: Friday, Feb. 3, 2006 • Exam 2: Monday, Mar. 20, 2006 • Final Exam: Monday, Apr. 24, 2006 • 12:00-2:00 p.m. • No makeup exams

  11. Grading • Homework 10% • Laboratory 20% • Exam 1 20% • Exam 2 20% • Final exam 30% • 100%

  12. Office HoursProf. Haskell • Mon., Wed., 3:00 – 4:00 p.m.; 115 DH • Phone: 248-370-2861 • email: haskell@oakland.edu • Web site: • www.cse.secs.oakland.edu/haskell • click on EGR 240 and click Winter 2006

  13. Office HoursProf. Polis • Mon., Wed., 9:15 – 10:15 a.m.; 102J SEB • Phone: 248-370-2743 • email: polis@oakland.edu

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