University of South Carolina

What you'll study

The mechanical engineering programme combines foundational mathematics and sciences with specialised engineering topics and practical laboratory experience. Early years focus on calculus, linear algebra, physics, chemistry and introductory engineering principles to build a solid analytical base. In later years you move into core mechanical engineering subjects and application areas.

• Core engineering fundamentals: statics and dynamics, mechanics of materials, engineering mathematics, thermodynamics, fluid mechanics, heat transfer.
• Design and analysis: machine elements and machine design, kinematics, finite element analysis, solid modelling and CAD, engineering mechanics.
• Systems and controls: systems dynamics, control systems, instrumentation and measurement, mechatronics.
• Manufacturing and materials: materials science, manufacturing processes, production engineering, additive manufacturing.
• Computing and simulation: numerical methods, programming for engineers, computational fluid dynamics (CFD) principles and simulation tools.
• Professional development and ethics: engineering economics, project management, engineering ethics and communication.
• Practical experience: extensive laboratory classes, team-based projects and a senior capstone design project that emphasises design, prototyping and testing; opportunities for internships, co‑op placements and undergraduate research with faculty.

Entry requirements

Admission is competitive and typically requires a strong secondary‑school record with a focus on mathematics and sciences. Applicants should have completed courses in algebra, geometry, trigonometry and calculus where available, and physics; chemistry is also recommended. Successful applicants usually present high grades in these subjects and demonstrated aptitude for problem solving and quantitative work.

For domestic applicants this generally means a strong high‑school GPA and recommended preparation in STEM subjects; standardised test requirements vary by admissions cycle. Transfer students from accredited community colleges or other universities are considered and normally need completed coursework in calculus and physics.

International applicants must hold an equivalent secondary qualification and demonstrate English language proficiency through recognised tests or approved alternatives. The department may expect evidence of readiness for calculus‑based study and may invite applicants to discuss preparation in mathematics and science.

Career prospects

Graduates with a BSc in Mechanical Engineering pursue a wide range of technical and managerial careers. Typical roles include mechanical design engineer, manufacturing or production engineer, systems engineer, HVAC engineer, aerospace or automotive engineer, robotics and automation engineer, and research engineer. Many graduates work in industries such as energy and utilities, transportation, defence, manufacturing, biotechnology and consulting.

The programme also prepares students for further study at master’s and doctoral level and supports those aiming for professional licensure; graduates commonly take the Fundamentals of Engineering (FE) exam as the first step toward becoming a licensed professional engineer (PE). Internship, co‑op and undergraduate research experiences available through the university help with job placement and career development.

Why study at University of South Carolina

The University of South Carolina’s College of Engineering and Computing offers mechanical engineering students access to experienced faculty, research laboratories and project‑based learning. The department emphasises hands‑on instruction through modern machine shops, testing facilities and computing resources, and students frequently engage in collaborative projects with industry partners and campus research centres.

Located in Columbia, the university provides good regional connections to manufacturing, energy and technology employers, offering opportunities for internships and co‑op placements. Student societies, such as the American Society of Mechanical Engineers (ASME) chapter and design teams, support professional development and networking. The programme’s combination of theoretical foundations, practical laboratories and a senior capstone ensures graduates are prepared for immediate employment or for advanced study.