Navigating an undergraduate engineering program requires precision, and the ASU EE Major Map serves as the definitive semester-by-semester blueprint for students pursuing a Bachelor of Science in Electrical Engineering at Arizona State University. Choosing the right courses in the correct sequence prevents graduation delays and ensures you meet rigorous Accreditation Board for Engineering and Technology (ABET) standards. Whether you're an incoming first-year student or transferring from a community college, understanding this curriculum structure is essential for academic success.
The major map outlines critical milestones, recommended course loads, and tracking courses that dictate your progress through the Ira A. Fulton Schools of Engineering. By breaking down critical tracking requirements, semester milestones, and common pitfalls, you can take control of your academic timeline and graduate on schedule.
Understanding the ASU Electrical Engineering Major Map Structure
The major map operates as an official eight-semester tracking guide. Each semester lists specific credit requirements, general studies designations, and core engineering courses.
To remain in good standing within the Fulton Schools of Engineering, students must maintain specific GPA thresholds and pass designated critical tracking courses with a grade of "C" or higher. Missing a milestone in your first three semesters can trigger a major mapping review, requiring a meeting with an academic advisor to adjust your schedule.
Critical Tracking Courses and GPA Requirements
Certain classes carry more weight than others in your degree progression. These are known as critical tracking courses, and they evaluate your readiness for advanced engineering concepts.
- Calculus for Engineers I and II (MAT 265 / MAT 266): Establishes the mathematical foundation required for circuit analysis and electromagnetic fields.
- General Chemistry for Engineers (CHM 114 or CHM 116): Provides the chemical principles necessary for materials science and semiconductor physics.
- Physics for Engineers I and II (PHY 121 / PHY 122): Covers mechanics, electricity, and magnetism.
- Introduction to Engineering (FSE 100): Introduces hands-on design, teamwork, and professional ethics.
You must earn a cumulative GPA of 2.50 or higher across all critical tracking courses during your first year. Failing to meet this threshold requires prompt intervention through tutoring or academic support services.
Semester-by-Semester Curriculum Breakdown
A standard eight-semester plan balances foundational mathematics, core electrical engineering theory, and specialized technical electives.
First Year: Building the Foundation
Your first year focuses on mathematics, basic sciences, and introductory engineering design. You won't dive straight into complex microprocessors immediately; instead, you'll build the tools necessary to understand them.
- Semester 1: Calculus for Engineers I (MAT 265), General Chemistry (CHM 114), First-Year Composition (ENG 101), Introduction to Engineering (FSE 100), and a General Studies humanities course.
- Semester 2: Calculus for Engineers II (MAT 266), Physics for Engineers I (PHY 121), First-Year Composition (ENG 102), Object-Oriented Programming and Data Structures (CSE 240 or similar computing requirement), and a social-behavioral sciences course.
Second Year: Core Circuit Analysis
The second year introduces core electrical concepts, shifting your focus toward how electricity, signals, and systems operate.
- Semester 3: Calculus for Engineers III (MAT 267), Physics for Engineers II (PHY 122), Circuits I (EEE 202), and Signals and Systems I (EEE 203).
- Semester 4: Differential Equations (MAT 275), Circuits II (EEE 202 continuation or advanced networks), Semiconductor Device Theory (EEE 235), and discrete mathematics or logic design (EEE 120).
Third Year: Specialization and Advanced Theory
By your junior year, coursework narrows into specialized branches of electrical engineering, including electromagnetics, analog electronics, and digital design.
- Semester 5: Electromagnetic Theory (EEE 341), Signals and Systems II (EEE 304), Electromechanical Energy Conversion (EEE 360), and Microprocessor-Based Systems Design (CSE 120 or EEE 316).
- Semester 6: Digital Design with Verilog or VHDL, Communication Systems, Control Systems, and technical electives tailored to your career goals.
Fourth Year: Capstone Design and Graduation
Your final year culminates in a hands-on capstone design project where you work in teams to solve real-world engineering problems, often sponsored by industry partners.
- Semester 7: Capstone Design Project I (EEE 488), technical electives, and upper-division general studies.
- Semester 8: Capstone Design Project II (EEE 489), remaining technical electives, and professional ethics coursework.
Selecting Technical Electives and Concentrations
Electrical engineering is a vast field spanning power systems, microelectronics, signal processing, and robotics. The major map allows you to tailor your upper-division electives to match specific career paths.
If you're interested in clean energy and power grids, focus on power systems analysis and renewable energy integration. If semiconductor manufacturing is your goal—especially given Arizona's growing role in American chip fabrication—prioritize courses in device physics, integrated circuit design, and nanotechnology. You can review official degree requirements and course descriptions through the ASU Academic Catalog.
Common Mistakes to Avoid on Your Degree Path
Engineering students often encounter avoidable roadblocks that extend their time in school or harm their GPA. Being aware of these pitfalls helps you stay on track.
- Ignoring prerequisite chains: Trying to take a class without passing its prerequisite creates scheduling chaos. For example, failing MAT 265 delays MAT 266, which pushes back your physics and circuit courses.
- Overloading difficult semesters: Pairing Electromagnetic Theory with Advanced Differential Equations and a heavy lab load in the same semester can overwhelm your schedule. Balance heavy technical courses with lighter general studies requirements.
- Delaying academic advising: If you're struggling in a critical tracking course, don't wait until finals week to speak with an advisor. Early intervention through ASU Engineering Tutoring can save your grade.
- Neglecting hands-on experience: Relying solely on classroom theory isn't enough. Seek out internships, undergraduate research, or student clubs like IEEE student branches to build practical skills.
Frequently Asked Questions
Can I change my major map catalog year?
Your catalog year is typically determined by the academic year you enrolled at ASU. This year dictates your exact graduation requirements. Advisors can sometimes update your catalog year if curriculum changes benefit your progress, but you must consult with them first.
What happens if I fail a critical tracking course?
Failing a critical tracking course or earning below a C grade means you must retake it immediately. Because engineering prerequisites are strict, failing a core class usually delays your graduation timeline by at least one semester.
How do transfer credits fit into the ASU EE major map?
If you transferred credits from a community college or another university, your advisor will map them to equivalent ASU courses. Pay close attention to major-specific math and physics prerequisites, as transfer credit evaluations can sometimes require validation.
Are summer courses recommended for engineering students?
Taking general studies or math courses during the summer session can lighten your fall and spring semester loads, making it easier to manage intensive engineering classes. However, taking rigorous core engineering courses over compressed summer terms requires careful consideration.
