Virginia Commonwealth University

What you'll study

The undergraduate engineering curriculum builds core competence in mathematics, physics and engineering science in the first years, then progresses to discipline-specific coursework, laboratory practice and team-based design. Typical study areas include statics and dynamics, thermodynamics, materials science, circuits and electronics, programming for engineers, fluid mechanics, control systems and engineering mathematics.

Students complete laboratory modules and hands-on workshops that teach measurement, fabrication and testing techniques. A design sequence and capstone project are central to the programme: teams work on multi‑semester, real‑world problems to develop requirements, propose solutions, build prototypes and present results.

Students may choose from specialisation tracks or elective clusters to tailor the degree toward areas such as biomedical engineering, chemical/process engineering, electrical and computer engineering, mechanical engineering, or other applied engineering pathways available at the university. There are also options for undergraduate research with faculty, industry-sponsored projects, internships and cooperative education placements that integrate workplace experience with study.

Typical modules and subjects

• Calculus and linear algebra for engineers
• General physics with laboratory
• Introduction to engineering and design
• Statics and dynamics
• Thermodynamics and heat transfer
• Materials and manufacturing processes
• Circuits and electronics / digital systems
• Fluid mechanics and transport phenomena
• Computer programming and data analysis for engineers
• Engineering economics, ethics and project management
• Senior capstone design project

Entry requirements

Applicants should hold a recognised secondary school diploma with a strong record in mathematics and science. Typical preparation includes advanced courses in calculus, physics and chemistry. The programme looks for applicants with evidence of problem‑solving ability and practical skills obtained through coursework, extracurricular STEM activities, labs or technical projects.

Standard application components include academic transcripts and a personal statement outlining interest in engineering and any relevant experience. Some applicants may submit standardised test scores if available; the university’s admissions office provides current guidance on test policies. International applicants must meet English language proficiency requirements and provide equivalent academic documentation.

Admitted students begin with a structured first‑year curriculum designed to establish the fundamentals needed for more specialised study in later years. Transfer students are considered on the basis of prior college coursework in mathematics and science.

Career prospects

Graduates are prepared for entry‑level engineering roles in industry, healthcare, manufacturing, energy, electronics, software and consulting. Typical job titles include design engineer, test engineer, process engineer, quality engineer, systems engineer and field engineer. Graduates also move into roles in product development, technical sales, project management and operations.

The degree provides a pathway to professional licensure (starting with the Fundamentals of Engineering exam) and is a solid foundation for postgraduate study in specialised engineering fields, business (MBA), or professional programmes such as medicine when combined with appropriate coursework.

Students benefit from the university’s links with local employers, healthcare institutions and research centres, which support internships, co‑op placements and job recruitment.

Why study at Virginia Commonwealth University

Virginia Commonwealth University offers engineering students the advantages of an urban research university: access to active research programmes, close ties with a major medical centre, and a broad professional network in the Richmond region. The School of Engineering emphasises experiential learning through labs, makerspaces, design studios and industry projects.

Small cohort sizes in upper‑level courses, dedicated faculty mentorship and opportunities for undergraduate research help students develop both technical depth and practical skills. Career and internship support, plus partnerships with local companies and hospitals, make it easier for students to gain relevant workplace experience before graduation.

Overall, the programme combines foundational engineering instruction with hands‑on practice and flexible specialisation routes, suited to students who want a practical, career‑oriented engineering education with access to research and industry engagement.