Saginaw Valley State University

What you'll study

This programme combines foundational engineering science and mathematics with focused study in electronics and communications. Early years emphasise calculus, differential equations, physics and basic circuit theory. Core electrical engineering subjects typically include:

• Circuit analysis and electronics — DC/AC circuits, semiconductor devices, analog circuits and lab practicals.
• Digital systems and microcontrollers — logic design, programmable devices, embedded systems and firmware development.
• Signals and systems — continuous and discrete-time signal analysis, Fourier methods and filtering.
• Communications engineering — modulation/demodulation, wireless communications principles, information theory basics and network fundamentals.
• Electromagnetics and RF — electromagnetic fields, transmission lines and radio-frequency concepts relevant to antenna and wireless design.
• Control systems — feedback theory, stability, and control implementation for electrical systems.
• Laboratory and practical work — hands-on experiments in electronics, communications, signal processing and embedded systems, often using industry-standard tools and measurement equipment.
• Design and capstone project — team-based engineering design project that integrates technical, project management and communication skills, typically completed in the final year.

Students can expect a mix of lectures, problem-solving sessions and laboratory work. Elective options may allow deeper study in areas such as power electronics, wireless networks, digital signal processing, or optical communications. Opportunities for internships or cooperative education help bridge classroom learning with industry experience.

Entry requirements

Applicants should hold an appropriate secondary school diploma or equivalent. Typical academic preparation includes strong achievement in:

• Mathematics (algebra, geometry, trigonometry and calculus)
• Physics
• Preferably chemistry or additional laboratory science

Saginaw Valley State University considers the overall academic record; applicants are usually expected to present a competitive secondary school GPA. Transfer students will need official college transcripts and may receive credit for prior college-level mathematics, physics and engineering courses. International applicants must meet English language proficiency requirements. Applicants should check the university’s admissions pages for specific documentation and any additional prerequisites for the engineering programme.

Career prospects

Graduates are prepared for technical roles across multiple sectors. Common career paths include:

• Electronics design engineer — developing analog and digital electronic systems
• Communications engineer — working on wireless, optical or networked communications systems
• Embedded systems and firmware developer — programming microcontrollers and real-time systems
• Control and automation engineer — designing control algorithms for industrial and robotic systems
• Test and validation engineer — developing test procedures and ensuring product reliability
• Field service and systems integration roles in telecommunications, utilities, automotive and defence industries

Graduates may also pursue further study in specialised master’s degrees (e.g. telecommunications, signal processing, power systems) or professional certifications. The programme’s combination of theory and laboratory experience helps graduates transition into industry roles, research positions or engineering management with additional experience.

Why study at Saginaw Valley State University

Saginaw Valley State University offers a learning environment with relatively small class sizes and direct access to faculty, which supports close mentoring and hands-on instruction. The university emphasises applied learning through well-equipped engineering laboratories, design projects and opportunities for internships with regional industry partners. Students benefit from career services, industry connections in Michigan’s manufacturing and technology sectors, and access to co-curricular activities such as engineering clubs and student design competitions. The programme focuses on preparing graduates for practical engineering challenges while providing the academic foundation needed for career advancement or graduate study.