University of Tulsa

What you'll study

This programme combines core engineering theory with applied coursework and research in communications and electronics. Students typically follow either a thesis or non-thesis (coursework/project) route and complete a defined number of graduate credit hours. Core topics and typical modules include:

• Digital Communications: modulation and coding, channel models, information theory fundamentals.
• Signal Processing: digital signal processing, adaptive filtering, spectral analysis, and applications to communications.
• RF and Microwave Engineering: principles of RF circuits, microwave components, and measurement techniques.
• Wireless Systems and Networks: cellular and emerging wireless standards, network architecture, and protocol design.
• Antennas and Propagation: antenna design basics, propagation effects, and link budgeting for wireless links.
• Embedded Systems and Hardware Design: microcontrollers, FPGA-based implementations, and hardware/software co-design for communications applications.
• Electives and Special Topics: may include VLSI for communications, optical communications, machine learning for signal processing, and cybersecurity for embedded systems.

Research-active faculty supervise thesis projects in areas such as wireless communications, signal processing algorithms, RF system design and testing, and applied electromagnetics. Laboratory work and hands-on projects are integral, with access to communications testbeds, signal analysers, and design tools commonly used in industry.

Entry requirements

Applicants are expected to hold a bachelor’s degree in electrical engineering, electronics engineering, computer engineering, or a closely related scientific or engineering discipline. Typical requirements include:

• A completed undergraduate degree from an accredited institution with a competitive academic record.
• Transcripts showing relevant coursework in mathematics (calculus, linear algebra), circuits, signals and systems, and basic electronics.
• A statement of purpose outlining technical interests and goals, and a current résumé or CV.
• Letters of recommendation (commonly two or three) from academic or professional referees familiar with the applicant’s technical abilities.
• Proof of English language proficiency for international applicants (for example, recognised tests such as TOEFL or IELTS), where applicable.

Some applicants with non‑electrical engineering backgrounds may be admitted conditionally and asked to complete prerequisite undergraduate courses. GRE score requirements are determined by the department and may vary; prospective students should consult the department for current admissions policies and any funding opportunities such as graduate assistantships.

Career prospects

Graduates of this master’s programme are prepared for technical and engineering roles across communications and electronics industries. Common career paths include:

• RF engineer or RF systems designer working on cellular, satellite, or IoT systems.
• Communications systems engineer or network engineer in telecommunications and broadband companies.
• Signal processing engineer developing algorithms for audio, radar, medical imaging, or wireless applications.
• Embedded systems and hardware engineer designing FPGA or ASIC solutions for communications products.
• Systems engineer or technical lead in aerospace, defence, automotive connectivity, or semiconductor firms.
• Research and development roles in industry labs or continued academic study at the doctoral level.

Alumni typically find roles in large multinational firms, specialist engineering companies, start-ups, and government laboratories, where their combination of theoretical knowledge and laboratory experience is valued.

Why study at University of Tulsa

The University of Tulsa offers a master’s environment with small class sizes and close interaction with faculty, making it easier for students to pursue tailored research projects and receive mentorship. The department emphasises hands-on laboratory experience and applied research, and students gain experience with instrumentation and software tools used in industry.

Located in a city with technology, energy and aerospace employers, the programme provides opportunities for internships and collaboration with regional companies. Graduate students may also be eligible for research and teaching assistantships that provide practical experience and financial support. The programme is suitable for students seeking focused training in communications engineering within a research-active but personally supportive setting.