Seattle University

What you'll study

The Computer Engineering curriculum blends core engineering science with computing and design practice. Early years focus on mathematics, physics, and introductory engineering subjects such as circuit analysis and programming. As you progress you will study digital systems, microprocessors and embedded systems, signals and systems, electronics, and computer architecture alongside software-oriented courses in data structures, operating systems and software engineering.

Typical modules and activities include:

• Calculus and linear algebra for engineering applications
• Introductory and advanced programming (C/C++ and higher-level languages)
• Circuit theory, analogue and digital electronics
• Digital logic design and FPGA/prototyping
• Microprocessors, embedded systems and real‑time programming
• Signals, systems and control fundamentals
• Operating systems, computer architecture and networking basics
• Software engineering, algorithms and data structures
• Capstone senior design project with team-based hardware/software development
• Laboratory work, maker-space projects and hands-on prototyping

The programme emphasises applied learning through laboratory courses, project-based classes and a year-long capstone where students design and implement a functioning system. Electives allow specialisation areas such as robotics, cybersecurity, communications or VLSI/FPGA development. Faculty-supervised research and independent study options are available for students interested in deeper technical inquiry.

Entry requirements

Applicants should have a strong foundation in mathematics and the physical sciences. Typical academic preparation includes high-school calculus and physics; prior experience with programming is helpful but not always required. Seattle University evaluates applications holistically, considering academic transcripts, letters of recommendation, a personal statement, and any relevant project or work experience.

For international applicants, proof of English language proficiency is required if previous education was not in English. Transfer students should submit college transcripts and will have transfer credit evaluated against the programme curriculum. Prospective students are encouraged to contact the admissions office to discuss specific qualifications and course placement, including prerequisites for core engineering courses.

Career prospects

Graduates of the Computer Engineering programme are prepared for roles that require integrated hardware and software skills. Common career paths include embedded systems engineer, firmware developer, hardware design engineer, systems engineer, IoT engineer, robotics engineer and network/hardware integration roles. Many alumni also move into software engineering roles, product development, technical consulting or continue to graduate study in electrical/computer engineering, computer science or related fields.

Seattle University's location in a major technology hub offers opportunities for internships, co‑op placements and industry collaboration with technology companies, startups, and research labs. The programme’s practical focus and capstone experience help graduates demonstrate project experience and technical competence to employers.

Why study at Seattle University

Seattle University offers a small‑class, student-centred engineering education grounded in Jesuit values that emphasise ethics and social responsibility. The Computer Engineering programme provides hands-on laboratories, maker spaces and close faculty mentoring, enabling students to work on real projects and research. Proximity to a large technology sector and a wide network of industry partners supports internship and employment opportunities while career services and alumni connections assist with professional development.

The department emphasises experiential learning, interdisciplinary collaboration and preparing graduates who can address technical challenges responsibly. Students benefit from project-based coursework, faculty research opportunities and community engagement initiatives that connect classroom learning to real-world engineering problems.