M.E. in Computer Engineering

The University of Tulsa's Master of Engineering (M.E.) in Computer Engineering program offers an advanced, application-focused education designed to prepare students for leadership roles in the rapidly evolving technology sector. This program emphasizes both the theoretical foundations and practical applications of computer hardware and software systems. It is structured to provide students with the expertise needed to design, optimize, and innovate complex computing systems, often through a non-thesis track focused on rigorous coursework and practical project work, making it suitable for professionals seeking to enhance their technical capabilities or recent graduates aiming for direct industry roles.

STEM Designated: Yes, the M.E. in Computer Engineering program at the University of Tulsa is STEM-designated. This is a significant advantage for international students, as it typically allows for an extended Optional Practical Training (OPT) period in the United States, providing additional opportunities for post-graduation work experience.

Curriculum: The M.E. in Computer Engineering curriculum at the University of Tulsa is designed to provide a comprehensive understanding of both hardware and software aspects of computing. Coursework covers core areas such as digital systems, computer architecture, embedded systems, software engineering, and network security. Students gain a broad background in computer circuitry, parallel computing, software system design, information theory, and digital image processing. The program emphasizes problem-solving, analytical skills, and the ability to apply computer science theory and software development fundamentals to produce computing-based solutions. While a thesis option may be available, the M.E. typically focuses on advanced coursework and culminating project work, preparing graduates for immediate application in industry.

Research Focus: The Department of Electrical and Computer Engineering at the University of Tulsa is engaged in world-class teaching and interdisciplinary research. While the M.E. program is generally a non-thesis option, students still benefit from the department's strong research environment. Faculty research interests in computer engineering often include intelligent systems, renewable energy, robotics, embedded systems, VLSI design, power engineering, and optical sensors and processing. Students have access to state-of-the-art research facilities and opportunities to specialize in cutting-edge fields, contributing to the department's mission to drive innovation and lead collaborative, groundbreaking research.

Industry Engagement: The University of Tulsa's M.E. in Computer Engineering program is highly focused on preparing graduates for successful careers in industry. The department aims to produce engineers who are technically competent, creative, and capable of transforming complex concepts into innovative solutions for modern problems in areas like communications, robotics, and autonomous systems. Graduates have a strong track record of employment at prestigious companies and institutions, including major tech giants and government agencies. The university's location in Tulsa, a city with growing energy and cyber industries, provides advantageous opportunities for internships and employment after graduation, linking academic learning with real-world applications.

Global Perspective: The M.E. in Computer Engineering at the University of Tulsa inherently fosters a global perspective through the universal nature of computing and technology. Computer engineers contribute to global advancements in various fields, from communication networks to autonomous systems, which have worldwide implications. The curriculum's broad scope and the department's engagement with cutting-edge research ensure students are exposed to global technological challenges and solutions. While specific international study opportunities for the M.E. program may not be explicitly detailed, the presence of a diverse international student body at the University of Tulsa, representing about 9% of total enrollment, enriches the learning environment by exposing students to various cultural perspectives and fostering an understanding of the global impact of computer engineering.

Postgraduate Entry Requirements

Academic Qualifications: Applicants for postgraduate programs typically require a minimum academic achievement of 70% or above in their bachelor's degree.

English Language Proficiency:

• IELTS: Overall band score of  6.5 or 7.0 with a minimum of 6.0 in each component.
• TOEFL: Overall score of 80 or higher.
• PTE: Overall score of 56 or higher.
• DET (Duolingo English Test): Minimum score of 105.

The University of Tulsa (TU) in the United States offers a variety of scholarship opportunities to support international students in their academic journey. Attracting talented students from around the world, TU provides both merit-based and need-based scholarships to help reduce the financial burden of higher education.

Merit-Based Scholarships: International students admitted to TU are automatically considered for merit-based scholarships based on their academic achievements, standardized test scores, and overall application strength. These scholarships can significantly offset tuition costs, with awards ranging from partial tuition waivers to full scholarships. The university looks for outstanding academic records, leadership qualities, and extracurricular involvement when awarding these scholarships.

International Student Scholarships: TU offers specific scholarships aimed at international students, including renewable awards that encourage academic excellence throughout the duration of the degree program. Some scholarships are designated for particular fields of study or for students demonstrating strong community involvement.

Graduate Assistantships and Fellowships: Graduate international students may apply for assistantships and fellowships that provide tuition remission and stipends in exchange for teaching or research responsibilities. These positions not only offer financial support but also valuable professional experience within the university environment.

An M.E. in Computer Engineering from the University of Tulsa provides graduates with an advanced and practical skillset in both hardware and software systems, making them highly desirable in a wide array of technology-driven industries. This program, with its strong emphasis on problem-solving and real-world applications, positions graduates for leadership and innovation in a rapidly evolving field, with a promising job outlook. The U.S. Bureau of Labor Statistics projects a faster-than-average growth for computer hardware engineers, and even faster growth for related roles like software developers.

Computer Hardware Engineer: These professionals design, develop, and test computer hardware components, including circuit boards, processors, memory devices, and input/output devices. They ensure that hardware works seamlessly with software.

Embedded Systems Engineer: Specializing in the design and development of computer systems dedicated to specific functions within larger devices, such as those found in automobiles, medical equipment, industrial control systems, and consumer electronics.

Software Development Engineer: While computer engineering has a hardware focus, the strong software component of the M.E. program prepares graduates to design, develop, and maintain software applications, operating systems, and large-scale software systems across various platforms.

Network Engineer/Architect: These roles involve designing, implementing, and managing computer networks (local area networks, wide area networks, intranets, etc.) to ensure efficient and secure data communication within organizations.

Cybersecurity Engineer: With expertise in both hardware and software, graduates can design and implement secure systems, protecting computer networks, systems, and data from cyber threats, often involving aspects of hardware security and secure coding practices.

Robotics Engineer: Combining knowledge of hardware design, control systems, and software programming, these engineers develop and deploy robots for various applications in manufacturing, healthcare, exploration, and more.

VLSI (Very Large Scale Integration) Design Engineer: This specialized role focuses on the design and verification of integrated circuits (chips), a crucial component in nearly all modern electronic devices.

Digital Signal Processing (DSP) Engineer: These engineers work with the mathematical and computational manipulation of signals to analyze, interpret, or enhance data, common in fields like telecommunications, audio processing, and image processing.

Systems Engineer: This broad role involves overseeing the entire lifecycle of complex systems, from conceptualization and design to implementation and maintenance, integrating various hardware and software components to ensure they function as a cohesive whole.

Research and Development (R&D) Engineer: Graduates can contribute to cutting-edge research in areas like intelligent systems, renewable energy applications, advanced computing architectures, or new sensing technologies within corporate R&D departments or academic institutions.