University of Missouri-Kansas City

What you'll study

The Master’s in Electrical and Computer Engineering offers a mix of core and elective courses, available in both thesis (research) and non-thesis (course/project) tracks. Core subject areas cover advanced digital design, microprocessors and embedded systems, signal processing, control systems, and semiconductor devices. Electives let you specialise in topics such as VLSI and FPGA design, computer architecture, wireless communications, power and energy systems, robotics and autonomous systems, and cybersecurity for embedded platforms.

• Typical module topics: advanced digital systems and HDL, embedded real-time systems, advanced signals and systems, control theory and applications, power electronics and renewable energy integration, RF and wireless communications, and VLSI/ASIC design.
• Laboratory and practical work: hands-on labs in FPGA/CPLD prototyping, embedded software development, power electronics lab work, and signal processing toolboxes. Students can work in research labs with faculty on projects that include hardware–software co-design, robotics and autonomous vehicles, smart grid technologies, and communication system prototyping.
• Project and thesis options: the non-thesis route typically requires an applied capstone or project; the thesis route involves original research supervised by faculty and is recommended for students aiming for doctoral study or R&D careers.
• Flexible delivery: courses are offered during daytime and some evenings to accommodate full-time working students; independent study and research credits are available for tailored learning paths.

Entry requirements

Applicants are normally expected to hold a bachelor’s degree in electrical engineering, computer engineering, or a closely related engineering/science discipline. Admission decisions consider undergraduate performance, strength of prior coursework in mathematics, circuits and programming, letters of recommendation, and a statement of objectives explaining research or career goals.

• Academic preparation: demonstrated competency in calculus, linear algebra, differential equations, circuit theory, and programming or digital logic is typically required; applicants lacking some preparation may be admitted conditionally with prerequisite coursework.
• Supporting documents: official transcripts, academic references, a personal statement, and a résumé or CV are normally required. GRE scores may be optional or considered at the department’s discretion—check the department guidance for current practice.
• International applicants: proof of English language proficiency (e.g. TOEFL or IELTS) is required where applicable, along with credential evaluation for international transcripts and any applicable visa documentation.

Career prospects

Graduates of the programme move into a wide range of technical and engineering roles across industry, government and academia. The degree supports both hardware-focused and software-focused career paths.

• Typical job titles: embedded systems engineer, firmware developer, FPGA/VLSI designer, systems engineer, controls engineer, power systems engineer, communications engineer, robotics engineer, and test and validation engineer.
• Industries: consumer electronics, telecommunications, automotive and autonomous systems, power and energy, aerospace and defence, medical devices, and industrial automation.
• Further study: many graduates continue to PhD programmes or engage in research and development roles in industry; others move into technical leadership, product engineering, or technology management positions.

Why study at University of Missouri-Kansas City

UMKC’s electrical and computer engineering programme is delivered within a research-active engineering school with emphasis on applied, project-based learning and strong ties to regional industry. The university’s location in the Kansas City metropolitan area provides access to a growing technology ecosystem, internship and co-op opportunities, and collaborations with local companies and research partners.

• Research and facilities: students can join faculty-led research projects and access laboratories for VLSI and prototyping, power and energy systems, robotics and controls, and communications and signal processing.
• Faculty expertise: the department includes faculty working on contemporary engineering problems spanning hardware–software co-design, renewable energy integration, embedded security, and autonomous systems.
• Support for professionals: the programme offers scheduling flexibility and professional development resources aimed at engineers who are working while studying, including applied capstones and industry-linked projects that enhance employability.