University of Tulsa

What you'll study

This programme builds a foundation in mathematics, physics and core electrical engineering, then moves into electronics and communications specialisms. Typical course themes include analogue and digital circuit design, signals and systems, electromagnetic fields and waves, digital communications, wireless systems, microelectronics, control systems and embedded system design. Coursework balances theory with extensive laboratory work and software-based simulation.

• Introductory courses in calculus, linear algebra and differential equations to support engineering analysis
• Fundamental electrical engineering: circuit analysis, electronics, and power fundamentals
• Communications-focused courses: digital communications, modulation and coding, wireless communications, and signal processing
• Electromagnetics and antenna theory relevant to RF and microwave systems
• Microprocessors, embedded systems and real-time control for hands-on system development
• Design and instrumentation labs throughout the curriculum to develop practical skills in measurement, test and prototyping
• Senior capstone design project: team-based project that integrates hardware, software and communications concepts, often with industry or faculty research collaboration
• Technical electives and interdisciplinary options in areas such as optical communications, cybersecurity, computer networks or power electronics

Programme structure

The programme is typically completed over four years and combines general education requirements with a sequence of engineering core courses, major-specific classes and technical electives. Students are encouraged to pursue internships, co-op placements or undergraduate research, and many take elective subjects that prepare them for specialisation or graduate study.

Entry requirements

Applicants should hold a high school diploma or equivalent with strong preparation in mathematics (including calculus) and physics. Typical preparation includes advanced secondary coursework in mathematics and science; familiarity with algebra, trigonometry and basic physics is expected. The University of Tulsa considers the full academic record and supporting materials such as recommendations, personal statement and any relevant project or laboratory experience.

• Academic qualifications: secondary school completion with strong performance in mathematics and science subjects. International applicants should present equivalent qualifications.
• Standardised tests: the university reviews standard test scores where submitted; check the university’s admissions guidance for current policies.
• English language proficiency: non-native English speakers must demonstrate proficiency through recognised tests or approved alternatives unless exempt under the university’s policy.
• Transfer students: college coursework in calculus, physics and introductory engineering subjects can be evaluated for transfer credit; applicants should provide official transcripts and course descriptions.

Career prospects

Graduates are prepared for roles across telecommunications, electronics, defence, aerospace, semiconductor and embedded-systems industries. Job titles commonly held by alumni include communications engineer, RF/wireless engineer, systems engineer, network engineer, embedded systems designer, test and validation engineer, and applications engineer. The programme also provides a solid foundation for graduate study in electrical engineering, communications, signal processing or related fields.

Students often secure internships and entry-level positions with local and regional technology firms, national telecommunications companies and defence contractors, or continue into research laboratories and postgraduate programmes. Skills in circuit design, signal processing, programming for embedded systems, and hands-on laboratory experience are especially valued by employers.

Why study at University of Tulsa

The University of Tulsa offers a personalised educational environment with small class sizes and close interaction with faculty. Engineering students benefit from coordinated lab courses, opportunities for undergraduate research, and a capstone design experience that emphasises real-world problem solving. The university maintains relationships with regional industries that support internships and project collaboration, and the campus provides career services to help students transition into employment or graduate study.

The programme emphasises practical skills alongside theoretical understanding, preparing graduates to be adaptable engineers in evolving communications and electronics fields.