Marymount University

What you'll study

The programme combines theoretical foundations with practical laboratory work and a substantial design or research project. Core topics typically include advanced circuit analysis and design, digital signal processing, wireless and optical communications, RF and microwave engineering, embedded systems and microcontroller applications, and control systems. You will study modulation and coding techniques, antenna theory and propagation, network architectures (including cellular and IP-based systems), and hardware description languages for digital system design.

Teaching methods mix lectures, problem classes, laboratory sessions and a capstone project or thesis. Coursework emphasises the use of industry-standard tools and languages such as MATLAB/Simulink, communications simulation packages, PCB prototyping and lab instrumentation. Elective options often allow specialisation in areas such as wireless networks and 5G/6G technologies, Internet of Things (IoT) devices, FPGA/VLSI design, or signal processing for communications and sensing.

Entry requirements

Applicants should normally hold a bachelor’s degree in electrical engineering, electronic engineering, communications engineering or a closely related physical science or engineering discipline. Typical requirements include a satisfactory undergraduate academic record and evidence of competence in mathematics, basic circuits and signals, and programming or modelling.

Applications usually require a personal statement outlining academic and professional objectives, an up-to-date CV, and academic transcripts. Referees’ letters are commonly requested. Where appropriate, applicants may be asked to provide evidence of English language proficiency. Part-time and flexible study routes are often available to applicants with relevant professional experience.

Career prospects

Graduates are prepared for roles in telecommunications companies, wireless and RF design firms, embedded systems development, semiconductor and electronics manufacturers, network operators, and defence and aerospace contractors. Typical job titles include communications engineer, RF/antenna engineer, systems engineer, network design engineer, embedded systems engineer, and signal processing engineer.

Beyond industry roles, the degree supports careers in technical consultancy, product development, operations engineering, and research and development. The analytical and practical skills developed also provide a strong foundation for further study at doctoral level or for professional certification and technical leadership roles.

Why study at Marymount University

Marymount University offers a learner-centred environment with small class sizes that support close interaction with faculty and personalised guidance on projects and research. Its location near Washington, D.C. provides convenient access to a dense technology and government ecosystem, which can assist students seeking internships and industry collaborations in telecommunications, defence and public-sector communications programmes.

The university emphasises applied learning and professional preparedness through laboratory work, project-based modules and connections with local employers. Students benefit from cross-disciplinary opportunities within campus programmes, career services that support placement and professional development, and flexible study options to balance work and study commitments.