University of Alabama

What you'll study

This programme builds a strong foundation in mathematics, physics and core electrical engineering principles before progressing to electronics and communications specialisms. Early coursework typically covers calculus, differential equations, physics for engineers, circuit analysis, digital logic and programming. In middle and later years you study analogue and digital electronics, signals and systems, electromagnetics, probability and random processes, communication systems, digital signal processing, control systems and microprocessors/embedded systems.

Practical laboratory work is integrated throughout the curriculum to develop hands-on skills in circuit design, PCB prototyping, FPGA and microcontroller implementation, RF measurement and communications testbeds. The programme usually culminates in a multi‑semester capstone design project where teams deliver an engineered device or system that addresses a real-world problem.

• Core modules: Circuit Theory, Electronic Devices, Digital Systems, Signals & Systems, Electromagnetics
• Communications-focused modules: Analog and Digital Communications, Wireless Communications, RF and Microwave Engineering, Digital Signal Processing
• Supporting modules: Control Systems, Embedded Systems, Probability & Statistics for Engineers, Engineering Ethics and Design

Structure

The degree follows a sequential structure: general engineering and mathematics in the first year, core electrical engineering subjects in years two and three, and specialist communications and project work in the final year. Students can usually choose elective modules or minor options to tailor their study toward areas such as wireless systems, photonics, power electronics or computer engineering. Industry placements and summer internships are strongly encouraged and supported by departmental career resources.

Entry requirements

Applicants are expected to have a strong background in mathematics and science. Typical entry includes completion of an accredited secondary school diploma with high achievement in mathematics (including calculus if available) and physics. International applicants should present equivalent qualifications; recognised standardised test scores (such as SAT/ACT) may be considered where applicable but many admissions pathways are flexible.

For transfer applicants, satisfactory performance in college-level calculus, physics and introductory engineering coursework is usually required. The programme is accredited by the relevant engineering accreditation body, so meeting preparatory maths and science prerequisites is important for progression and eventual professional recognition.

In addition to academic credentials, successful applicants often demonstrate problem‑solving ability, interest in electronics and communications through projects or extracurricular activities, and readiness for laboratory‑based learning. Applicants with questions about specific qualification equivalencies should consult the university admissions office or departmental advisers.

Career prospects

Graduates are prepared for technical roles across telecommunications, consumer electronics, aerospace, defence, automotive, utilities and technology sectors. Common career paths include communications engineer, RF/microwave engineer, embedded systems engineer, digital signal processing engineer, network and systems engineer, and hardware design engineer.

Many alumni work for telecommunications operators, equipment manufacturers, semiconductor companies, systems integrators and defence contractors, or join software and IoT firms where hardware–software integration is required. Others continue into graduate study or research in areas like wireless communications, signal processing and photonics. The programme’s emphasis on practical design and industry engagement also supports careers in project engineering and technical management.

Why study at University of Alabama

The Department of Electrical and Computer Engineering offers a combination of classroom teaching, hands-on laboratories and team design projects that mirror professional engineering practice. Students benefit from modern electronics and communications labs, undergraduate research opportunities, and a capstone design sequence that emphasises deliverable systems and industry-relevant requirements.

The university supports student professional development through industry partnerships, internship placement assistance and active student chapters of professional societies such as IEEE and the Society of Women Engineers. Advising and career services work with students to secure co‑ops and internships that provide industry experience prior to graduation. The programme’s accredited curriculum is designed to meet the knowledge and skill expectations of employers and postgraduate programmes in electrical and communications engineering.