University of Iowa

What you'll study

The programme builds a strong foundation in mathematics, physics, and core electrical engineering before progressing to specialised topics in electronics and communications. Early years emphasise circuit analysis, differential equations, multivariable calculus, and introductory electronics, together with laboratory work to develop hands‑on skills.

• Core modules: Circuit Theory and Analysis, Digital Logic and Systems, Signals and Systems, Electromagnetics, Microelectronics, and Control Systems.
• Communications and signal processing: Analog and Digital Communications, Wireless Communications, Digital Signal Processing, Information Theory, and Networking Principles.
• Electronics and hardware: Analog/Digital Circuit Design, Semiconductor Devices, RF and Microwave Engineering, Embedded Systems, and FPGA/ASIC design basics.
• Practical experience: Laboratory courses paired with theory, computing and programming for engineers, embedded systems projects, and use of instrumentation for measurement and testing.
• Capstone and research: A senior design or capstone project that typically involves team-based system design, integration and testing; opportunities to join faculty-led research in communications, signal processing, photonics or power electronics.

Throughout the degree students develop teamwork, technical communication and project management skills. Elective choices allow deeper focus on wireless systems, networking, machine learning for signal processing, or hardware design.

Entry requirements

Applicants are normally expected to hold a recognised secondary school qualification with strong performance in mathematics and physics. Typical preparations include advanced courses in calculus, algebra, and physics. Practical experience such as electronics clubs, robotics, programming or relevant summer courses strengthens an application.

For domestic applicants the admissions process considers academic record, coursework rigor and any supporting materials such as personal statements or references. International applicants should present an equivalent secondary qualification and evidence of English language proficiency.

Successful applicants typically demonstrate:

• Solid achievement in mathematics and physics or their equivalents.
• Preparedness for a rigorous, calculus‑based engineering curriculum.
• Interest in engineering demonstrated through extra‑curricular activities, projects, internships or related coursework.

Career prospects

Graduates are prepared for a wide range of roles in telecommunications, electronics and systems engineering. Typical career paths include:

• Telecommunications engineer or network systems engineer working on mobile, optical or wired communications.
• RF and microwave engineer designing antennas, transceivers and wireless subsystems.
• Embedded systems, firmware or hardware engineer developing microcontroller, FPGA or ASIC‑based products.
• Signal processing engineer working in audio, image, radar or biomedical applications.
• Systems engineer, test and validation engineer, or technical roles in defense, aerospace, automotive and industrial automation.

Graduates also move into software roles, product engineering, technical sales and project management. The programme provides a foundation for further study at master’s or PhD level in communications, signal processing, photonics, or related areas.

Why study at University of Iowa

The University of Iowa’s College of Engineering offers a student‑centred environment with access to well‑equipped electronics and communications laboratories and opportunities to work alongside faculty on applied research. Undergraduate students benefit from small‑group instruction in key technical labs and an emphasis on experiential learning through design projects and internships.

Students can access career services and industry partnerships in the region and beyond to secure internships and co‑op placements. The interdisciplinary culture at the university encourages collaboration with computer science, physics and biomedical engineering, useful for students interested in communications applications across sectors.

Overall, the programme combines rigorous technical training, practical laboratory experience and project work to prepare graduates for careers in communications and electronics or for advanced study.