Offered at: San Luis Obispo Campus
The Electrical Engineering Department offers a Bachelor of Science degree and a Master of Science degree in Electrical Engineering. The undergraduate degree is accredited by the Engineering Accreditation Commission of ABET.
The mission of the Electrical Engineering Department is to educate students to achieve excellence in the discipline of electrical engineering and to teach them to apply their education to solve practical problems in a socially responsible way. Students are prepared for careers of service, leadership, and distinction in a wide range of engineering and other related fields using a participatory, learn-by-doing, and “hands-on” laboratory, project, and design centered approach. Students are encouraged to participate in lifelong learning as essential in the presence of the ever-increasing pace of technological change.
Diversity in the students, faculty and staff is embraced and enhances the quality and creativity of the campus experience and environment.
The primary educational objectives of the Electrical Engineering program (May 2023 revision) are to prepare graduates to:
1. Excel in the electrical engineering profession, demonstrating technical agility, personal integrity, a collaborative spirit, articulate communication skills, and a global perspective in the design and commercialization of new products and the solution of engineering problems
2. Achieve personal career satisfaction while making a positive contribution to their employer and to society.
3. Demonstrate understanding of the broad social, economic, and ethical implications of their work.
4. Embrace lifelong learning as necessary to remain current and to further develop in their profession; being prepared to pursue graduate degrees for enhanced skills and opportunities.
The Electrical Engineering degree programs prepare graduates for distinguished practice in professional engineering; equipping students for pursuing engineering solutions to urgent problems while being responsibly aware of all implications. To that end, the curriculum provides a sound theoretical background along with current, practical engineering knowledge. Cal Poly's "learn by doing" philosophy is emphasized by integrating design throughout the curriculum in numerous design-centered laboratories that provide students with hands-on experiences in design synthesis, analysis, characterization, and verification.
The student begins the major in the first quarter with an orientation class and laboratory; and generally has one or more major courses each quarter until graduation. The many laboratory courses provide practical experience and lead logically from demonstration of theory into design applications.
During their junior and senior years, students choose technical electives to gain additional expertise in one or more areas of specialization within electrical engineering. These courses deal with the development, design and application of circuits, electronic devices, computers, and systems for communication, controls, information processing and display, and system instrumentation. Senior courses in this area provide specialized preparation in a selected area such as active and passive network synthesis, advanced communications systems, software and hardware aspects of computer system design, microelectronic circuit engineering, microprocessor systems applications, rf and microwave engineering, photonics, biomedical engineering, integrated circuits, and solid-state devices.
Other courses deal with industrial process control systems, power electronics, and with generation, distribution, control, and utilization of electric power. Senior elective courses in this area provide specialized preparation in a selected area such as advanced control systems, energy conversion, power system analysis, protection and stability, and solid-state motor control.
Employers recognize that students who have completed such specialized technical courses are early contributors in the workforce. Students wishing to pursue graduate work may select appropriate senior courses in keeping with this goal.
In the required senior design project, students demonstrate their understanding of engineering knowledge and their ability to apply that knowledge creatively to solve practical problems.
Involvement in faculty research is possible for graduate students and outstanding undergraduate students. Research areas include computer-aided education, autonomous systems, signal and image processing, electric vehicles, computer architecture and software systems, photonics, polymer electronics, power systems, power electronics, radio frequency electronics, communication systems, biomedical electronics, renewable energy systems, and electric power microgrid systems.
Our Electrical Engineering curriculum prepares students to take the examinations required to become a licensed professional Engineers. The examinations include the Fundamentals of Engineering (F.E.) exam and the professional engineering exam (P.E.) administrated by the national council of Examiners for Engineering (NCEES).
Students are encouraged to participate in professional organizations and clubs such as: Institute of Electrical and Electronics Engineers (IEEE), IEEE Computer Society (IEEE-CS), IEEE Consumer Electronics Society (IEEE-CES), IEEE Power and Energy Society (IEEE-PES), Audio Engineering Society (AES), Cal Poly Robotics, Electric Vehicle Club, Renewable Energy Club, Society of Automotive Engineers (SAE) and the Formula Electric challenge, Society of Women Engineers (SWE), Women involved in Software & Hardware (WISH), Eta Kappa Nu (HKN), Society of Photo-Optical Instrumentation Engineers (SPIE), Student Electrical Engineering Council (SEEC), and the Amateur Radio Cub. The Electric Power Institute, sponsored by the university and underwritten by major utility companies and electrical equipment manufacturers, offers advanced seminars and lectures in the electrical power field and facilitates student and faculty interaction with industry.
Concentrations
General Curriculum in Electrical Engineering
Offered at: San Luis Obispo Campus
The coursework in the non-concentration option provides the broad Electrical Engineering background necessary to pass the Electrical Engineering Fundamentals of Engineering examination that is the first step towards Electrical Engineering Professional Engineering Licensure. Students can choose from the largest list of electives in the non-concentration option.
Electronics, Controls, and Communications
Offered at: San Luis Obispo Campus
The coursework in the Electronics, Controls and Communications Concentration provides the background necessary to pass the corresponding Electrical Engineering Professional Engineering License examination.
Power
Offered at: San Luis Obispo Campus
The coursework in the Power Concentration provides the background necessary to pass the corresponding Electrical Engineering Professional Engineering License examination.
Program Learning Objectives
- An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics.
 - An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors.
 - An ability to communicate effectively with a range of audiences.
 - An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts.
 - An ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives.
 - An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions.
 - An ability to acquire and apply new knowledge as needed, using appropriate learning strategies.
 
Degree Requirements and Curriculum
In addition to the program requirements listed on this page, students must also satisfy requirements outlined in more detail in the Minimum Requirements for Graduation section of this catalog, including:
- 40 units of upper-division courses
 - 2.0 GPA
 - Graduation Writing Requirement (GWR)
 - U.S. Cultural Pluralism (USCP)
 
Note: No Major or Support courses may be selected as credit/no credit. In addition, no more than 12 units of cooperative or internship courses can count towards your degree requirements.
| Code | Title | Units | 
|---|---|---|
| MAJOR COURSES | ||
| EE 1111 & 1111L  | Introduction to Electrical Engineering and Introduction to Electrical Engineering Laboratory  | 2 | 
| EE 2211 | Electric Circuit Analysis I | 3 | 
| EE 2241 | Electric Circuit Analysis Laboratory I | 1 | 
| EE 2212 | Electric Circuit Analysis II | 3 | 
| EE 2328 | Signals and Systems | 4 | 
| EE 3302 & 3302L  | Classical Control Systems and Classical Control Systems Laboratory  | 4 | 
| EE 3306 & 3306L  | Electronics I and Electronics Laboratory I  | 4 | 
| EE 3308 & 3308L  | Electronics II and Electronics Laboratory II  | 4 | 
| EE 3255 & 3255L  | Electric Machines and Power Systems and Electric Machines and Power Systems Laboratory  | 4 | 
| EE 3335 & 3335L  | Electromagnetic Fields and Transmission and Electromagnetic Fields and Transmission Laboratory  | 4 | 
| EE 3329 | Cyber-Physical Systems | 4 | 
| EE 4314 & 4314L  | Communication Systems and Communication Systems Laboratory  | 4 | 
| EE 4461 | Senior Project I | 1 | 
| EE 4462 | Senior Project II | 1 | 
| EE 4463 | Senior Project Design Laboratory I | 1 | 
| or EE 4465 | Senior Design: Individual Project I | |
| EE 4464 | Senior Project Design Laboratory II | 1 | 
| or EE 4466 | Senior Design: Individual Project II | |
| EE 4459 | Electrical Engineering Fundamentals of Engineering Exam | 1 | 
| Concentration or General Curriculum in Electrical Engineering | ||
| (See list of Concentrations and General Curriculum in Electrical Engineering) | 15 | |
| SUPPORT COURSES | ||
| BIO 2213 | Life Science for Engineers (5B) 1 | 3 | 
| CSC 1001 & 1001L  | Fundamentals of Computer Science and Fundamentals of Computer Science Laboratory  | 4 | 
| CPE 2300 | Introduction to Computer Systems | 3 | 
| CPE 2301 | Introduction to HDL and Digital Design Laboratory | 1 | 
| MATH 1261 | Calculus I (2) 1 | 4 | 
| MATH 1262 | Calculus II | 4 | 
| MATH 2263 | Calculus III | 3 | 
| MATH 2341 | Linear Analysis | 4 | 
| PHYS 1141 | General Physics I (5A & 5C) 1 | 4 | 
| PHYS 1143 | General Physics II | 4 | 
| STAT 3310 | Probability and Random Processes for Engineers (Upper-Division 2/5) 1 | 3 | 
| GENERAL EDUCATION (GE) | ||
| (See GE program requirements below) | 30 | |
| FREE ELECTIVES | ||
| Free Electives | 0 | |
| Total Units | 128 | |
- 1
 - Required in Major or Support; also satisfies General Education (GE) requirement.
 
Concentrations
General Curriculum in Electrical Engineering
| Code | Title | Units | 
|---|---|---|
| REQUIRED COURSES | ||
| Approved Electrical Engineering Electives | ||
| Select from the following: | 15 | |
| EE Technical Electives 1 | ||
| Power System Analysis I | ||
| Power System Analysis II | ||
| Fundamentals of Power Electronics | ||
| Advanced Analog and Mixed-Signal Electronics | ||
| Advanced Analog and Mixed-Signal Electronics Laboratory | ||
| Digital Communication Systems | ||
| Modern Communication Systems Laboratory | ||
| Electric Machines | ||
| Photonic Component and System Engineering and Photonic Engineering Laboratory  | ||
| Digital Signal Processing | ||
| Sustainable Energy Generation | ||
| Polymer Electronics Laboratory | ||
| Signal Integrity Electronics and Test Automation and Signal Integrity Electronics and Test Automation Laboratory  | ||
| Computer-Aided Design of VLSI Devices | ||
| Magnetic Apparatus Design | ||
| Transportation Electrification and Energy Storage Systems | ||
| Industrial Power Control and Automation | ||
| Wireless Communications and Wireless Communications Laboratory  | ||
| Solar Photovoltaic System Engineering I | ||
| Special Advanced Topics | ||
| Special Advanced Laboratory | ||
| Digital Image Processing | ||
| Phased Array Antennas | ||
| Principles of Remote Sensing and Radar | ||
| Computer Vision | ||
| Individual Study | ||
| Microwave and Millimeter Wave Device and System Electronics | ||
| Software Defined Radio | ||
| Computational Intelligence | ||
| Advanced Power Electronics | ||
| Advanced Electric Machines and Design | ||
| Advanced Control Techniques in Modern Power Systems | ||
| Modern Control Systems | ||
| Advanced Modern Control Systems | ||
| Advanced Digital Signal Processing | ||
| Data Analytics for Cyber-Physical Systems | ||
| Power System Protection | ||
| Electric Power Distribution and Microgrids | ||
| Advanced Solar-Photovoltaic Systems Design | ||
| Solid State Electronics | ||
| Stochastic Processes | ||
| Advanced Digital Communications | ||
| Advanced Photonic Systems | ||
| Advanced VLSI Design and Validation | ||
| VLSI Test Laboratory | ||
| Antennas | ||
| Utility Applications of Power Electronics and Power Quality | ||
| Advanced Microwave and Millimeter-Wave Laboratory | ||
| Solid-state Electronics Laboratory | ||
| Graduate Seminar | ||
| Special Advanced Topics | ||
| Special Advanced Laboratory | ||
| Professional Engineer Examination | ||
| Non-EE Electives 2 | ||
| Micro/Nano Fabrication | ||
| Micro/Nano Fabrication Laboratory | ||
| Computer Architecture | ||
| Advanced Microcontrollers and Embedded Applications | ||
| Advanced Computer Architecture | ||
| Introduction to Real-Time Operating Systems | ||
| High-Performance Embedded Systems | ||
| Design of Fault-Tolerant Systems | ||
| Digital Systems Design | ||
| Mechatronics II | ||
| Lower-Division Electives 2 | ||
| Fundamentals of Chemical Structure and Properties | ||
| Data Structures and Data Structures Laboratory  | ||
| Introduction to C Programming with a Hardware Emphasis | ||
| Object-Oriented Programming with a Hardware Emphasis | ||
| Technical Graphics Communication for Design and Manufacturing | ||
| Introduction to Design and Manufacturing | ||
| Engineering Statics | ||
| General Physics III: Modern Physics | ||
| Total Units | 15 | |
- 1
 A minimum of 8 units from the EE Technical Electives list is required.
- 2
 A maximum of 4 units may come from either the Non-EE Technical Electives or the Lower-Division Electives list, with a combined maximum of 7 units allowed across both lists.
Electronics, Controls, and Communications
| Code | Title | Units | 
|---|---|---|
| REQUIRED COURSES | ||
| Approved Electrical Engineering Electives | ||
| Select from the following: 1 | 15 | |
| EE Technical Electives 1 | ||
| Micro/Nano Fabrication | ||
| Micro/Nano Fabrication Laboratory | ||
| Fundamentals of Power Electronics | ||
| Advanced Analog and Mixed-Signal Electronics | ||
| Advanced Analog and Mixed-Signal Electronics Laboratory | ||
| Digital Communication Systems | ||
| Modern Communication Systems Laboratory | ||
| Photonic Component and System Engineering and Photonic Engineering Laboratory  | ||
| Digital Signal Processing | ||
| Signal Integrity Electronics and Test Automation and Signal Integrity Electronics and Test Automation Laboratory  | ||
| Computer-Aided Design of VLSI Devices | ||
| Wireless Communications and Wireless Communications Laboratory  | ||
| Special Advanced Topics | ||
| Special Advanced Laboratory | ||
| Phased Array Antennas | ||
| Principles of Remote Sensing and Radar | ||
| Microwave and Millimeter Wave Device and System Electronics | ||
| Software Defined Radio | ||
| Computational Intelligence | ||
| Modern Control Systems | ||
| Advanced Modern Control Systems | ||
| Advanced Digital Signal Processing | ||
| Solid State Electronics | ||
| Stochastic Processes | ||
| Advanced Digital Communications | ||
| Advanced Photonic Systems | ||
| Advanced VLSI Design and Validation | ||
| VLSI Test Laboratory | ||
| Antennas | ||
| Solid-state Electronics Laboratory | ||
| Lower-Division Electives 2 | ||
| Fundamentals of Chemical Structure and Properties | ||
| Data Structures and Data Structures Laboratory  | ||
| Introduction to C Programming with a Hardware Emphasis | ||
| Object-Oriented Programming with a Hardware Emphasis | ||
| Technical Graphics Communication for Design and Manufacturing | ||
| Introduction to Design and Manufacturing | ||
| Engineering Statics | ||
| General Physics III: Modern Physics | ||
| Total Units | 15 | |
- 1
 A minimum of 11 units from the EE Technical Electives list is required.
- 2
 A maximum of 4 units may come from the Lower-Division Electives list.
Power
| Code | Title | Units | 
|---|---|---|
| REQUIRED COURSES | ||
| EE 4406 | Power System Analysis I | 3 | 
| or EE 4410 | Fundamentals of Power Electronics | |
| Approved Electrical Engineering Electives | ||
| Select from the following: | 12 | |
| EE Technical Electives 1 | ||
| Power System Analysis I | ||
| Power System Analysis II | ||
| Fundamentals of Power Electronics | ||
| Electric Machines | ||
| Sustainable Energy Generation | ||
| Magnetic Apparatus Design | ||
| Transportation Electrification and Energy Storage Systems | ||
| Industrial Power Control and Automation | ||
| Solar Photovoltaic System Engineering I | ||
| Special Advanced Topics | ||
| Special Advanced Laboratory | ||
| Advanced Power Electronics | ||
| Advanced Electric Machines and Design | ||
| Advanced Control Techniques in Modern Power Systems | ||
| Data Analytics for Cyber-Physical Systems | ||
| Power System Protection | ||
| Electric Power Distribution and Microgrids | ||
| Advanced Solar-Photovoltaic Systems Design | ||
| Utility Applications of Power Electronics and Power Quality | ||
| Lower-Division Electives 2 | ||
| Fundamentals of Chemical Structure and Properties | ||
| Data Structures and Data Structures Laboratory  | ||
| Introduction to C Programming with a Hardware Emphasis | ||
| Object-Oriented Programming with a Hardware Emphasis | ||
| Technical Graphics Communication for Design and Manufacturing | ||
| Introduction to Design and Manufacturing | ||
| Engineering Statics | ||
| Total Units | 15 | |
- 1
 A minimum of 8 units from the EE Technical Electives list is required.
- 2
 A maximum of 4 units may come from the Lower-Division Electives list.
General Education (GE) Requirements
- 43 units required, 13 of which are specified in Major and/or Support.
 - If any of the remaining 30 Units is used to satisfy a Major or Support requirement, additional units of Free Electives may be needed to complete the total units required for the degree.
 - See the complete GE course listing.
 - A grade of C- or better is required in one course in each of the following GE Areas: 1A (English Composition), 1B (Critical Thinking), 1C (Oral Communication), and 2 (Mathematics and Quantitative Reasoning).
 
| Lower-Division General Education | ||
| Area 1 | English Communication and Critical Thinking | |
| 1A | Written Communication | 3 | 
| 1B | Critical Thinking | 3 | 
| 1C | Oral Communication | 3 | 
| Area 2 | Mathematics and Quantitative Reasoning | |
| 2 | Mathematics and Quantitative Reasoning (3 units in Support) 1 | 0 | 
| Area 3 | Arts and Humanities | |
| 3A | Arts | 3 | 
| 3B | Humanities: Literature, Philosophy, Languages other than English | 3 | 
| Area 4 | Social and Behavioral Sciences (Area 4 courses must come from at least two different course prefixes.) | |
| 4A | American Institutions (Title 5, Section 40404 Requirement) | 3 | 
| 4B | Social and Behavioral Sciences | 3 | 
| Area 5 | Physical and Life Sciences | |
| 5A | Physical Sciences (3 units in Support) 1 | 0 | 
| 5B | Life Sciences (3 units in Support) 1 | 0 | 
| 5C | Laboratory (may be embedded in a 5A or 5B course) (1 units in Support) 1 | 0 | 
| Area 6 | Ethnic Studies | |
| 6 | Ethnic Studies | 3 | 
| Upper-Division General Education | ||
| Upper-Division 2/5 | Mathematics and Quantitative Reasoning or Physical and Life Sciences (3 units in Support) 1 | 0 | 
| Upper-Division 3 | Arts and Humanities | 3 | 
| Upper-Division 4 | Social and Behavioral Sciences (Area 4 courses must come from at least two different course prefixes.) | 3 | 
| Total Units | 30 | |
- 1
 - Required in Major or Support; also satisfies General Education (GE) requirement.