Case Western Reserve University

What you'll study

The programme combines core topics in digital and analogue hardware with advanced study in embedded systems, computer architecture and systems-level software. Students choose between coursework, project, or thesis tracks to tailor the degree to professional practice or research preparation.

• Core areas: advanced digital design, microprocessor and system-on-chip (SoC) architecture, embedded systems, and real-time systems.
• Typical modules: VLSI system design, FPGA and reconfigurable computing, advanced microelectronics, hardware/software co-design, parallel and distributed computing, operating systems for embedded platforms, and hardware security.
• Electives and interdisciplinary options: machine learning for embedded devices, computer networks, sensor systems, robotics, and low-power system design. Students may also take related courses in electrical engineering, computer science or data analytics.
• Capstone options: industry-aligned project, laboratory-based thesis, or independent research under faculty supervision. Projects frequently involve hands-on work with development boards, FPGAs, CAD tools and prototype hardware.
• Research facilities and methods: coursework emphasises both theoretical foundations and practical laboratory experience, including hardware prototyping, simulation tools and verification methods.

Entry requirements

Applicants should hold a bachelor’s degree in computer engineering, electrical engineering, computer science or a closely related discipline, with solid preparation in mathematics, electronics and programming. Admissions typically consider the overall academic record, transcripts, statement of purpose, CV and letters of recommendation.

• Academic background: undergraduate coursework in circuits, digital logic, data structures and computer organisation is expected; bridge courses may be required for those with different preparation.
• Supporting materials: personal statement outlining objectives, resume/CV, and two or more academic or professional references.
• International applicants: evidence of English language proficiency is required if prior education was not in English (accepted tests and scores are listed on the university admissions pages).
• Professional experience: relevant industry experience or research can strengthen an application, particularly for project-focused tracks.

Career prospects

Graduates from the Master’s in Computer Engineering move into roles that bridge hardware and software development across multiple sectors. The programme prepares students for both industry and research pathways.

• Hardware design engineer, FPGA/PLD developer and SoC architect
• Embedded systems engineer, firmware developer and real-time systems specialist
• Systems engineer for robotics, autonomous systems and IoT devices
• Positions in semiconductor and electronics companies, telecommunications, aerospace, automotive and medical device firms
• Further study: many graduates continue to PhD programmes in computer engineering, electrical engineering or related fields

Why study at Case Western Reserve University

Case Western Reserve University offers the Master’s in Computer Engineering within a research-active engineering school that emphasises interdisciplinary collaboration and applied learning. Students benefit from small class sizes, access to laboratory facilities for hardware prototyping and verification, and faculty who combine academic research with industry experience.

• Industry links and location: the university’s connections with regional technology companies, hospitals and research organisations provide opportunities for internships, collaborative projects and industry-sponsored capstones.
• Research and facilities: access to modern fabrication and test equipment, FPGA and embedded-systems labs, and software toolchains used in professional development.
• Flexible degree pathways: options for thesis or project-based study let students focus on research preparation or direct professional application.
• Support for career development: on-campus career services, industry events and alumni networks help students transition into technical roles or doctoral study.