Marymount University

What you'll study

The programme combines core engineering foundations with applied coursework and a substantial culminating experience. Typical modules cover advanced computer architecture, digital system design, embedded systems and real‑time computing, microprocessors and microcontrollers, hardware description languages and FPGA design, and interfaces and peripherals. Courses in operating systems, networking principles and cybersecurity for embedded devices are often included to situate hardware work within wider systems.

Students usually choose from elective options such as machine learning for edge devices, VLSI/ASIC design, wireless communications and Internet of Things (IoT) systems. The degree commonly requires a capstone project or thesis that involves designing, implementing and testing a hardware or hardware‑software system, giving practical experience with development boards, simulation tools and laboratory test equipment.

Entry requirements

• Academic background: A bachelor’s degree in computer engineering, electrical engineering, computer science or a closely related technical field. Applicants with substantial professional experience and relevant coursework may also be considered.
• Grades/standing: Evidence of satisfactory undergraduate performance. Specific GPA expectations are set by the university and assessed in context of the applicant’s institution and transcript.
• Supporting documents: A current CV or résumé, a personal statement outlining goals and relevant experience, and academic transcripts are normally required. Letters of recommendation are commonly requested for full admission consideration.
• Standardised tests and English language: Some applicants may be asked to submit GRE scores depending on prior preparation; international applicants must demonstrate English proficiency through recognised tests unless exempted by prior education in English.

Career prospects

Graduates move into roles that bridge hardware and software. Typical job titles include embedded systems engineer, firmware developer, hardware design engineer, systems architect, FPGA/logic designer, IoT engineer and test and validation engineer. The combination of hands‑on labs and project work also prepares graduates for technical positions in telecommunications, consumer electronics, automotive systems, defence and aerospace, and medical devices.

Some graduates pursue further research or doctoral study, while others leverage the degree to move into engineering management, product engineering or specialist consulting roles. Proximity to the Washington, D.C. metropolitan area can offer additional opportunities in government, defence contracting and federal research labs.

Why study at Marymount University

• Small classes and personalised instruction: Marymount emphasises small class sizes, allowing close mentorship from faculty with applied engineering and research experience.
• Hands‑on facilities: The programme integrates laboratory and project work using development boards, FPGA toolchains and prototyping equipment so students build practical skills employers seek.
• Industry and regional connections: Located in the Washington, D.C. area, Marymount has access to a broad technology ecosystem, offering internship and co‑op possibilities with local companies, defence contractors and research institutions.
• Flexible study options: The university typically offers a range of scheduling options to accommodate working professionals, including evening or hybrid course delivery where available.