University of Vermont

What you'll study

The Computer Engineering curriculum blends theory and hands‑on practice. Early years emphasise mathematics (calculus, linear algebra), physics and foundational computing, before progressing to core engineering subjects. Key topics and modules typically include:

• Digital Logic and Systems: Boolean algebra, combinational and sequential circuits, HDL basics.
• Computer Architecture: processor design, instruction sets, memory hierarchies and performance analysis.
• Embedded Systems and Microcontrollers: real‑time programming, interfacing, low‑level hardware/software integration.
• Electronics and Circuits: analog and digital circuit analysis, semiconductor device basics.
• Signals and Systems: continuous and discrete signals, Fourier methods and filtering fundamentals.
• Software and Algorithms: data structures, algorithms, operating systems and software engineering practices.
• Laboratory and Design Projects: hands‑on labs in digital design, microprocessor systems, and circuit prototyping.
• Senior Capstone/Design Project: team‑based project that integrates hardware and software design, often with industry or faculty sponsorship.

Students can usually tailor their programme with electives in areas such as robotics, machine learning, VLSI design, networking or cybersecurity, and are encouraged to undertake undergraduate research or internships.

Entry requirements

Applicants are expected to demonstrate strong preparation in mathematics and science. Typical successful candidates have high‑school coursework that includes calculus and physics, together with study in computer science or programming where available. For transfer applicants, completion of introductory calculus and physics courses plus some foundational programming is normally required. International applicants should present equivalent secondary qualifications and evidence of English proficiency if their first language is not English.

Admissions consider the overall academic record, coursework rigor, extracurricular activities (such as coding clubs, robotics teams, or engineering projects) and personal statements. Specific requirements and application procedures vary, so applicants should consult the university's admissions guidance for current details.

Career prospects

Graduates with a BS in Computer Engineering are prepared for roles that bridge hardware and software. Common career paths include:

• Embedded systems engineer and firmware developer
• Hardware design engineer and FPGA/VLSI engineer
• Systems engineer, computer architect or performance analyst
• Software engineer working on systems, drivers or real‑time applications
• Robotics engineer, IoT developer or controls engineer
• Roles in semiconductor, telecommunications, aerospace, automotive and medical device industries

Many graduates also pursue graduate study (MS or PhD) in electrical and computer engineering, computer science, or related fields. Internship experience, senior projects and undergraduate research significantly enhance employability and professional readiness.

Why study at University of Vermont

The University of Vermont offers a small‑to‑medium sized engineering environment with opportunities for close faculty mentorship and hands‑on learning. The programme emphasises laboratory work, team design projects and opportunities for undergraduate research within the College of Engineering and Mathematical Sciences. Students benefit from collaborative cross‑disciplinary connections with computer science and other STEM departments, access to modern prototyping facilities, and partnerships that support internships in the region.

UVM's location provides a balance of scenic campus life and access to growing tech and engineering industries in the Northeast, while career services and faculty advisers help students prepare for industry roles or further study. The curriculum is designed to meet professional expectations for engineering practice and to give graduates the practical skills needed to contribute from day one.