Eastern Michigan University

What you'll study

This programme blends foundational theory with laboratory practice. Core topics typically include digital and analogue electronics, signal processing, telecommunications systems, wireless communications (including RF fundamentals), network fundamentals, fibre-optic technologies, and embedded systems used in communications devices. Students also learn supporting subjects such as programming for engineers, systems troubleshooting, instrumentation and measurement, and basic cybersecurity practices relevant to communications infrastructure.

Coursework is organised into progressive levels: introductory courses that build mathematics, physics and circuit-analysis skills; intermediate classes that focus on electronic devices, networks and communications protocols; and advanced modules in RF/wireless systems, network design, and integration of communications systems. Practical laboratory sessions, equipment maintenance, and calibrated measurement techniques are emphasised throughout.

Capstone experiences are an important feature: students complete a senior project or applied practicum that requires designing, building, testing and documenting a communications system or subnet. Many students also undertake internships or cooperative placements with local telecommunications, broadcast, manufacturing or IT service companies to gain workplace experience.

• Typical modules: Circuit Analysis, Digital Logic and Microcontrollers, Signals and Systems, RF Fundamentals, Wireless Communications, Network Technologies, Fibre-Optic Communications, Embedded Systems, Communications Protocols, Test & Measurement Lab, Senior Design Project.
• Practical labs: soldering and prototyping, spectrum and network analysis, antenna testing, fibre splicing and testing, router/switch configuration, and embedded device programming.
• Delivery: combination of lectures, hands-on labs, group design work and workplace placements.

Entry requirements

Applicants should hold a recognised secondary qualification with solid preparation in mathematics and sciences. Recommended preparation includes algebra, trigonometry, physics and a technology or computing course if available. Admissions typically consider a combination of academic record, relevant coursework and any practical experience such as technical certificates or hobby projects.

Specific requirements may vary by applicant type. Domestic applicants are expected to present a high-school diploma or equivalent with coursework in mathematics and physical science. Transfer students should provide college transcripts showing completed technical or STEM courses. International applicants normally need to demonstrate English language proficiency through an accepted test or prior instruction in English.

Because this is a technical degree, successful applicants tend to be those who can demonstrate problem‑solving ability, manual dexterity for lab work, an interest in electronics and networks, and readiness for applied mathematics.

Career prospects

Graduates are prepared for a range of technical and technician roles across telecommunications, broadcast, network services, and industrial communications. Typical entry-level jobs include communications technician, network technician, RF technician, field service engineer, broadcast systems operator, and fibre-optic technician.

With experience or further study, career progression may lead to network engineering, systems integration, technical sales engineering, project coordination, or supervisory roles in operations and maintenance. Graduates also move into specialised areas such as wireless systems engineering, IoT device development, cybersecurity for communications infrastructure, and graduate programmes in engineering technology or communications engineering.

Why study at Eastern Michigan University

Eastern Michigan University provides a hands-on approach suited to applied communications technologies, with emphasis on laboratory practice, industry-standard equipment and project-based learning. The university’s location close to the Detroit metropolitan area offers convenient access to regional employers in telecoms, manufacturing and media for internships and industry projects.

Students benefit from small-class instruction in technical courses, opportunities for cooperative education or internships, and faculty who combine academic credentials with industry experience. Facilities for the programme typically include electronics and networking laboratories, RF and antenna test ranges, and workshops for hands-on prototyping and system integration.

Overall, the programme is aimed at students who want practical preparation for immediate employment in communications-related technical roles or a solid platform for advanced study in related engineering or technology fields.