Interim Chair: Dave Ellestad Major: Emphasis:
    Office: Ottensman 171
Phone: 608-342-1536
E-mail: ellestda@uwplatt.edu

  Professor:
  • David M. Drury
  • Mesut Muslu
  • Piyare L. Sharma
  • Richard D. Shultz
Associate Professors:
  • Yong Y. Li
Assistant Professors:
  • Nader Safari-Shad
  • Philip J. Sealy
Lecturer:
  • David E. Ellestad
  • John Goomey
Program Assistant:
  • Carol Ann Kruse

About The Department & Major

The Department of Electrical Engineering offers a bachelor of science degree in electrical engineering. The electrical engineering degree requirements include completion of at least one of the emphases: controls, computers, power and energy, or communications and electronics. The program has outstanding laboratory and computer facilities where all students gain hands-on practical experience. Students graduate with a broad background in electrical engineering and are ready to take their place in industry.

Electrical engineers design, plan, and supervise the construction and maintenance of electrical and electronic equipment, computers, or control systems. The variety of an electrical engineeršs work can range from the smallest integrated circuit to power systems that cover entire states. Virtually every device that is either "plugged in" or runs on batteries has had an electrical engineer involved in its design or construction somewhere in its development.


Educational Goals and Objectives:

The mission of the electrical engineering program is to provide a high quality education with extensive hands-on and laboratory experience that will enable our graduates to practice their profession with proficiency and integrity.

The goals of the electrical engineering program are to graduate engineers who:
  1. Have the laboratory skills and the ability to use modern analysis and design techniques and state-of-the-art equipment to solve practical engineering problems. The specific objectives of this goal are to graduate engineers who have:

    1. the ability to apply science, engineering science, and mathematics to solve engineering problems
    2. the ability to put their engineering and design skills into practice
    3. the ability to use modern laboratory equipment and engineering software for analysis, testing, design, and communication
    4. the ability to design systems, components, and processes that satisfy predetermined constraints
    5. the ability to recognize engineering problems, reduce them to solvable form, and develop and evaluate alternative solutions.

  2. Have the professional skills to function effectively in the work environment as well as in the community. The specific objectives of this goal are to graduate engineers who have:

    1. the ability to clearly communicate their ideas and designs orally, in written form, or graphically
    2. the ability to work as members of a team; and c) the opportunity to develop leadership skills

  3. Have a solid understanding of professional and ethical responsibility. The special objective of this goal is to graduate engineers who: understand ethical principles and their role in the engineering profession.

  4. Have a broad education in order to understand contemporary issues and the impacts of technology on society and the environment. The specific objectives of this goal are to graduate engineers who:

    1. have knowledge of contemporary issues
    2. have sufficient knowledge of the humanities and social sciences to understand the interaction between technology and society
    3. understand the effects that the products they develop will have on the environment.

  5. Have the ability to engage in life-long learning and recognize its importance. The specific objectives of this goal are to graduate engineers who:

    1. realize that the practice of electrical engineering is constantly evolving and that engineers must continuously acquire new knowledge and skills
    2. have the learning skills necessary to understand new developments in electrical engineering and to acquire new engineering knowledge and skills on their own
    3. have the ability to earn graduate degrees or pursue professional studies

General Requirements

Bachelor of Science Degree:
Total for Graduation 132 credits
Major Studies 101 credits

Grades of "C" or better are required in all electrical engineering courses counted toward degree requirements.


Electrical Engineering Major (101 credits)

  Professional Engineering: Required Courses (35 credits)
  • EE 1210 Circuit Modeling I 2 cr
  • EE 2210 Circuit Modeling II 4 cr
  • EE 2220 Signals and Systems 4 cr
  • EE 3020 Analog Electronics 4 cr
  • EE 3130 Solid State Electronics 3 cr
  • EE 3140 Electric and Magnetic Fields 3 cr
  • EE 3310 Automatic Controls 3 cr
  • EE 3410 Electric Power Engineering 3 cr
  • EE 3610 Communication Systems 3 cr
  • EE 3750 Microprocessor Logic Design and Assembler Programming 3 cr
  • EE 3760 Microprocessor Systems: Interface and Design 3 cr
Mathematics (15 credits)
  • MATH 2640 Calculus and Analytic Geometry I 4 cr
  • MATH 2740 Calculus and Analytic Geometry II 4 cr
  • MATH 2840 Calculus and Analytic Geometry III 4 cr
  • MATH 3630 Differential Equations I 3 cr
Basic Sciences (17 credits) Other Required Courses (9 credits)
  • GE 1020 Introduction to Engineering 2 cr
  • GE 1320 Engineering/Computer Graphics 2 cr
  • GE 2820 Engineering Economy 2 cr
  • COSC 1430 Programming in C++ 3 cr
Engineering Science Electives (6 credits)
  • GE 2130 Engineering Mechanics-Statics (required) 3 cr
  • GE 2220 Engineering Mechanics-Dynamics 2 cr
  • GE 2230 Engineering Mechanics-Dynamics 3 cr
  • GE 2340 Mechanics of Materials 4 cr
  • GE 2630 Basic Thermoscience for Engineers 3 cr
  • ME 2630 Thermodynamics 3 cr
  • CEE 3300 Fluid Mechanics 4 cr
Electrical Engineering Professional Emphasis Electives (19 credits)

 

Each student shall complete a total of 19 credits including 8 hours of design as follows: at least two courses from one professional emphasis and at least two of the following courses: EE 4050, 4350, 4450, and 4750.

Communications and Electronics
  • EE 4010 UHF Amplifier Design 1 cr
  • EE 4020 UHF Oscillator Design 1 cr
  • EE 4050 Advanced Analog Electronic Circuits 4 cr
  • EE 4430 Power Electronics and Electrical Machines 4 cr
  • EE 4620 Optical Systems 4 cr
  • EE 4630 Advanced Communication Systems 4 cr
  • EE 4980 Current Topics in Electrical Engineering 1-4 cr
  • EE 4990 Independent Study 1-3 cr
Computers
  • EE 4720 Microcomputer Architecture and Interfacing 4 cr
  • EE 4750 Advanced Digital Design 4 cr
  • EE 4980 Current Topics in Electrical Engineering 1-4 cr
  • COSC 2430 Object Oriented Programming and Data Structures 3 or
  • COSC 4030 Operating Systems 3 cr
  • EE 4990 Independent Study 1-3 cr
Controls
  • EE 4310 Modern Control Systems 4 cr
  • EE 4320 Digital Signal Processing 4 cr
  • EE 4350 Discrete Time Control Systems 4 cr
  • EE 4980 Current Topics in Electrical Engineering 1-4 cr
  • EE 4990 Independent Study 1-3 cr
Power and Energy
  • EE 4430 Electrical Machines and Power Electronics 4 cr
  • EE 4450 Power Systems Analysis 4 cr
  • EE 4980 Current Topics in Electrical Engineering 1-4 cr
  • EE 4990 Independent Study 1-3 cr
Advanced Math Electives (3 credits)