Seattle University

What you'll study

The programme emphasises both hardware and software aspects of modern computing systems, blending theoretical foundations with hands-on laboratory work. Typical core topics include advanced computer architecture, embedded systems design, digital system design and FPGA development, real-time and operating systems, and hardware–software co-design. Electives allow specialisation in areas such as VLSI and circuit design, wireless and networked systems, Internet of Things (IoT) applications, machine learning for edge devices, and cybersecurity for embedded platforms.

Instructional formats commonly include lectures, laboratory sessions, small-group design projects and a culminating capstone project or thesis. Students work with development boards, instrumentation and industry-standard toolchains to prototype systems and validate performance. Interdisciplinary collaboration with electrical engineering and computer science faculty supports projects that span sensors, communication, and software stacks.

Entry requirements

Applicants normally hold a bachelor’s degree in computer engineering, electrical engineering, computer science or a closely related discipline. Successful applicants demonstrate competence in programming, discrete mathematics, calculus and basic digital systems or circuits. Where gaps exist, conditional admission with prerequisite coursework may be required.

The admissions process reviews academic transcripts, a personal statement outlining objectives and relevant experience, and letters of recommendation. International applicants must provide evidence of English language proficiency. Some applicants with substantial professional experience in relevant technical roles may be considered even if their undergraduate major is outside the strict engineering disciplines.

Career prospects

Graduates enter technical roles that require the integration of hardware and software. Common job titles include embedded systems engineer, FPGA/logic design engineer, hardware systems engineer, firmware developer, IoT systems architect, and systems integration engineer. Alumni also move into related areas such as robotics, automotive electronics, telecommunications and device security. The programme also prepares students who wish to pursue doctoral study or research and development careers.

Seattle's technology ecosystem provides opportunities for internships and collaborations with local employers across software, hardware and device manufacturing sectors, supporting transitions into industry roles or entrepreneurship.

Why study at Seattle University

Seattle University combines a student-centred, Jesuit educational tradition with strong ties to the Pacific Northwest technology community. The programme’s smaller class sizes enable close mentorship from faculty who balance academic research with practical, industry-relevant experience. Hands-on laboratories and project courses are designed to mirror real-world engineering challenges.

Being located in Seattle gives students convenient access to a dense cluster of technology companies and startups for networking, internships and collaborative projects. The university’s career services and engineering alumni network support job placement and professional development, while interdisciplinary opportunities allow students to work across computer science, electrical engineering and applied research groups.