Southern Methodist University

What you'll study

The programme combines foundations in mathematics and physics with core electrical engineering principles and a sustained focus on communications and signal processing. Early study emphasises calculus, linear algebra, differential equations and classical mechanics alongside introductory circuit analysis and digital logic.

• Core engineering fundamentals: circuit theory, electronics, digital systems, microprocessors and embedded systems.
• Communications and signals: signals and systems, analogue and digital communications, information theory, modulation techniques, coding, and wireless communications.
• Advanced topics: RF and microwave engineering, antennas, electromagnetic fields, radar and wireless networks.
• Supporting subjects: probability and random processes, control systems, digital signal processing, networking and computer engineering interfaces.
• Practical components: laboratory courses, software tools (e.g. MATLAB, circuit simulators), hardware prototyping and team-based senior design/capstone projects addressing real-world communications problems.
• Electives and specialisation: options to take electives in areas such as optical communications, machine learning for signal processing, VLSI/microelectronics, cybersecurity or systems engineering, allowing tailored technical depth.

Entry requirements

Applicants are typically expected to have completed secondary education with strong performance in mathematics (including calculus) and physics. Successful candidates demonstrate problem‑solving ability, preparation in STEM subjects and readiness for a rigorous technical curriculum.

• Academic preparation: high school diploma or equivalent with advanced mathematics; recommended courses include calculus, physics and chemistry where available.
• Standardised testing: the university’s current admissions policy on standardised tests (SAT/ACT) should be consulted; some applicants submit scores to strengthen their application.
• International applicants: proof of English language proficiency (for example TOEFL or IELTS) is normally required unless exempt under the university’s policy.
• Other materials: transcripts, personal statement, and letters of recommendation are typically part of the application; coursework or extracurricular experience in robotics, programming, electronics clubs or internships is advantageous.

Career prospects

Graduates are prepared for technical roles across telecommunications, wireless and network providers, semiconductor and hardware manufacturers, aerospace and defence, and technology consultancies. Common entry positions include telecommunications engineer, RF engineer, network/systems engineer, embedded systems engineer, signal processing engineer and test/validation engineer.

Many graduates also pursue postgraduate study (MSc, PhD) in communications, signal processing, microelectronics or related areas, or move into product development, technical project management and applied research. The programme’s practical labs and capstone design prepare students for employer internships and research assistant roles during study, which often lead to early-career positions in the Dallas metro area and beyond.

Why study at Southern Methodist University

Southern Methodist University’s engineering education emphasises small class sizes, close faculty mentoring and hands‑on laboratory experience. The School of Engineering maintains partnerships with regional industry and research labs, providing strong internship and employer engagement opportunities in a major technology and telecommunications hub.

• Applied learning: well-equipped electronics and communications labs, maker spaces and team design courses foster practical skills sought by employers.
• Research and industry links: access to faculty research in communications, signal processing and electromagnetics and connections to local companies support project collaborations and internship placements.
• Career support: dedicated career services, alumni networks and industry recruiting events at the university help students transition to roles in engineering and technology.