University of North Florida

What you'll study

The programme combines a broad foundation in mathematics, physics and engineering science with discipline-specific courses in mechanical systems. Early years emphasise calculus, differential equations, physics, chemistry and computer programming; later years focus on core mechanical engineering subjects and application through labs and projects.

• Core engineering topics: statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics, heat transfer, machine design and system dynamics and control.
• Computational and design skills: engineering analysis, numerical methods, finite element concepts, computer-aided design (CAD) and computer-aided engineering (CAE) tools.
• Manufacturing and materials: materials science, manufacturing processes, machining, composites and additive manufacturing fundamentals.
• Laboratory and hands-on components: thermodynamics and fluids labs, strength of materials lab, CAD/CAM and machine shop experience, and electronics/control labs where relevant.
• Capstone project: a senior design project run over one or two semesters where students work in teams to define, design, build and test a practical engineering solution, often with industry or faculty sponsorship.
• Electives and specialisation: technical electives allow focus in areas such as robotics and mechatronics, automotive engineering, renewable energy, aerospace, manufacturing systems or advanced materials.
• Professional development: courses and activities covering engineering ethics, communication skills, project management and preparation for engineering licensure pathways.

Entry requirements

Admission typically requires a high-school diploma or equivalent with strong performance in mathematics and sciences. Applicants are expected to have completed courses in algebra, geometry, trigonometry, pre-calculus or calculus, and physics; chemistry is also strongly recommended.

• Academic background: successful applicants usually present a strong record in mathematics (calculus preferred) and college-preparatory science courses.
• Standardised tests and scores: standardised test requirements follow university policy; check the university for current guidance on SAT/ACT submission.
• Transfer students: transfer applicants should have completed relevant college-level calculus and physics courses with satisfactory grades; evaluation of transfer credit is handled by the university.
• International students: must present equivalent secondary qualifications and demonstrate English language proficiency according to the university's requirements.
• Other considerations: strong applicants often demonstrate relevant extracurriculars such as robotics, engineering clubs, internships or related work experience; a portfolio or statement of purpose may strengthen an application.

Career prospects

Graduates with a mechanical engineering degree from UNF enter a wide range of sectors where mechanical systems are central. The programme provides technical knowledge and practical skills valued by employers in industry and research.

• Typical roles: mechanical design engineer, manufacturing engineer, systems engineer, HVAC engineer, test and validation engineer, quality engineer, field service engineer and controls engineer.
• Industry sectors: automotive and transportation, aerospace, energy and utilities, defence, biomedical devices, consumer products, maritime and manufacturing.
• Career progression: many graduates move into project leadership, engineering management, specialist technical roles or consultancy; others pursue graduate study (master’s or PhD) or professional registration as a licensed engineer.
• Work experience and employability: internships, co-op placements and industry-sponsored capstone projects are strongly encouraged and help graduates develop practical experience and local employer connections.

Why study at University of North Florida

The University of North Florida offers a mechanical engineering programme that blends theory with hands-on practice in modern labs and a machine shop, supported by faculty with teaching and research experience in applied engineering areas. The university’s regional industry links and emphasis on experiential learning help students secure internships and project partnerships.

• Applied learning environment: project-based coursework, laboratory work and a senior capstone ensure students graduate with practical engineering skills.
• Industry and community connections: proximity to regional engineering employers and opportunities for internships and collaborative projects support transition to the workforce.
• Support services: academic advising, career services and student engineering societies provide mentoring, professional development and networking opportunities.