Michigan Technological University

What you'll study

The programme combines core theory, laboratory practice and project- or research-based work to prepare students for technical roles in communications engineering. Typical study areas include digital and analogue communication systems, wireless and cellular networks, digital signal processing, RF and microwave engineering, information theory, coding and modulation, antenna design, and embedded communications systems.

Students choose between a thesis option, a project option and a coursework-only route. Coursework commonly covers advanced modulation and coding, adaptive and statistical signal processing, software-defined radio and communication protocols. Laboratory and hands-on components use platforms such as software-defined radios, RF test equipment, network emulators and embedded development kits. Research-led seminars and electives allow deeper focus on specialties such as millimetre-wave communications, optical communications, Internet of Things (IoT) connectivity, and secure communications.

A typical programme plan balances required core courses with elective options and a culminating thesis, project or comprehensive examination. Students may also take cross-disciplinary electives from computer science, mechanical engineering, or applied mathematics to broaden systems-level skills.

Entry requirements

Applicants are expected to hold a recognised bachelor’s degree in electrical engineering, electronics, computer engineering, or a closely related discipline. A strong academic record in undergraduate electrical engineering fundamentals — including circuits, signals and systems, and basic communications or digital signal processing — is normally required.

Required application materials generally include official transcripts, a CV or résumé, a statement of purpose describing research and career objectives, and academic or professional references. Applicants whose first language is not English must demonstrate English proficiency through an approved test or an equivalent exemption. International applicants should also submit any materials requested by the graduate admissions office, and may be asked to supply additional documentation if their undergraduate preparation differs from U.S. norms.

Where an applicant’s background is incomplete, the department may admit the student conditional on completion of specified preparatory coursework. Prospective applicants with industry experience but non-traditional academic records are considered on a case-by-case basis.

Career prospects

Graduates enter a broad range of roles across telecommunications, consumer electronics, aerospace, defence, automotive, networking, and IoT industries. Typical job titles include communications engineer, RF/microwave engineer, wireless systems engineer, network engineer, signal processing engineer, embedded systems engineer and systems integration engineer.

Alumni work in positions focused on design, test and validation of transceivers and antennas, development of wireless protocols and network architecture, implementation of signal processing algorithms, and research and development of next-generation communication technologies such as 5G/6G, satellite communications, and vehicular communications. Graduates also continue to doctoral study if they pursue research careers in academia or national laboratories.

Why study at Michigan Technological University

Michigan Technological University has a long-standing emphasis on applied engineering and hands-on learning, with well-equipped RF, wireless and embedded systems laboratories that support both coursework and faculty-led research. The university’s engineering faculty include researchers active in communications, signal processing and related fields, offering opportunities to join funded projects and publish in peer-reviewed venues.

The department fosters close collaboration with industrial partners and government laboratories, which can facilitate internships, capstone projects and career connections. Michigan Tech’s smaller graduate cohorts and strong emphasis on mentorship provide individual access to faculty and lab resources. The campus environment, located in a region with active technology and research networks, supports an immersive experience in experimental and systems-level communications engineering.

Graduate assistantships and other funding opportunities are available for qualified students, helping to combine advanced training with practical experience in research or teaching roles.