Georgia Institute of Technology

What you'll study

The curriculum is built around a strong foundation in mathematics, physics and core engineering science, followed by progressive study in mechanical engineering principles and design. Early years emphasise calculus, differential equations, physics, chemistry and introductory engineering topics, progressing to specialised subjects and integrative projects in later years.

• Core subjects: statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics, heat transfer, and systems dynamics and control.
• Design and practice: computer-aided design (CAD), engineering design methodology, laboratory courses, prototyping and the senior design (capstone) project that requires team‑based, problem‑solving and product realisation.
• Manufacturing and materials: manufacturing processes, materials science, and reliability/quality engineering.
• Systems and tools: solid modelling, finite element analysis, computational methods, experimental methods and data analysis, and embedded systems/programming where relevant.
• Electives and specialisation tracks: students choose electives to pursue areas such as aerospace engineering, biomechanics and biomedical devices, robotics and controls, energy systems, automotive engineering, and advanced manufacturing.
• Hands‑on learning: extensive laboratory work, take‑home projects, maker spaces and opportunities to participate in student competitions, research projects and internships.

Entry requirements

Admission to Georgia Tech is competitive. Typical successful applicants present strong achievement in mathematics and the physical sciences at secondary level, along with a record of demanding coursework and extracurricular activities demonstrating interest in engineering.

• Academic preparation: advanced secondary courses in calculus and physics are expected; chemistry and computer science are recommended. Strong grades/GPA in STEM subjects are important.
• Standardised tests and credentials: applicants must meet the institution's undergraduate admission requirements and provide the appropriate national or international qualifications for entry; testing requirements and accepted credentials vary by country and over time.
• International students: secondary credentials equivalent to U.S. high school completion are required, and proof of English proficiency is typically necessary unless exempted by the university policy.
• Other factors: admissions consider letters of recommendation, personal essays, and evidence of hands‑on experience such as projects, robotics, internships or relevant employment. Participation in STEM competitions or research is advantageous.

Career prospects

Graduates with a BSc in Mechanical Engineering commonly enter roles in design, analysis, manufacturing, product development, and systems engineering across many sectors. The programme prepares students for both industry positions and further study.

• Design and development engineer roles in automotive, aerospace and consumer products firms.
• Energy and power systems engineering, including renewables and thermal systems.
• Robotics, automation and controls positions in industrial and research settings.
• Manufacturing engineering, process improvement and quality assurance.
• Biomedical device design and translational engineering in healthcare‑related companies or research labs.
• Consulting, technical sales, project management and entrepreneurial ventures; many graduates also progress to graduate study (MS/PhD) in specialised engineering fields.

Why study at Georgia Institute of Technology

Georgia Tech's mechanical engineering programme is delivered by the George W. Woodruff School of Mechanical Engineering, one of the largest and most research‑active engineering schools in the United States. The institute combines rigorous classroom teaching with substantial hands‑on opportunities, strong industry connections in the Atlanta region and globally, and access to modern laboratories and maker spaces that support prototyping and experimental work.

• Research and facilities: students can work alongside faculty on research projects in areas such as advanced manufacturing, robotics, thermal systems, and biomechanics, and make use of campus fabrication shops and testing labs.
• Industry engagement: proximity to a dense ecosystem of technology, manufacturing and aerospace firms offers plentiful internship and co‑op opportunities, industry‑sponsored projects and career networking.
• Entrepreneurship and student initiatives: structured support for innovation and start‑ups, plus student design teams and competitions that provide practical product development experience.
• Career support: an active career services ecosystem and employer recruiting presence help students transition into engineering roles or further study after graduation.