Georgia Institute of Technology

What you'll study

This MSc combines core manufacturing science with electives and research or project work. Core topics typically include advanced manufacturing processes, production systems engineering, manufacturing systems design, and materials processing. Students also study precision engineering, automation and robotics, additive manufacturing, process modelling and simulation, and quality and reliability engineering.

Programme formats commonly offer both thesis and non-thesis (coursework/project) options. A typical pathway includes taught coursework in the first part of the programme, followed by either a research thesis under a faculty supervisor or a substantial applied capstone project in partnership with industry. Coursework emphasises analytical tools such as statistical process control, design of experiments, finite element analysis for manufacturing, and digital manufacturing technologies (e.g. CAD/CAM, PLM, industrial IoT).

Sample modules and subject areas you can expect to encounter:

• Advanced Manufacturing Processes and Technologies
• Manufacturing Systems Engineering and Project Planning
• Computer-Aided Design and Manufacturing (CAD/CAM)
• Robotics, Automation and Intelligent Control for Production
• Additive Manufacturing and Rapid Prototyping
• Materials Selection, Processing and Characterisation for Manufacturing
• Process Modelling, Simulation and Optimisation
• Quality, Reliability and Lean Manufacturing Principles
• Manufacturing Data Analytics, Industrial IoT and Cyber-Physical Systems

Entry requirements

Applicants are normally expected to hold a recognised bachelor’s degree in engineering, manufacturing technology, industrial engineering, mechanical engineering, materials science or a closely related discipline. Strong applicants will demonstrate coursework or practical experience in engineering fundamentals such as mechanics, materials, statistics and manufacturing processes.

Typical application components include official academic transcripts, a statement of purpose outlining research or career goals, letters of recommendation (usually two or three), and a CV detailing relevant industry or research experience. International applicants whose prior education was not in English will normally be required to provide proof of English language proficiency.

For applicants seeking research supervision, identifying potential faculty advisors aligned with your interests and referencing relevant laboratories or research groups in your statement of purpose improves competitiveness. Professional experience in manufacturing or related internships can also strengthen an application, particularly for the non-thesis project route.

Career prospects

Graduates move into roles that design, optimise and manage manufacturing operations, or into research and development positions that push manufacturing technology forward. Common job titles include manufacturing engineer, process development engineer, production systems engineer, automation and robotics engineer, quality and reliability engineer, and manufacturing data analyst.

Alumni work in sectors such as aerospace, automotive, electronics, medical devices, defence, industrial equipment and contract manufacturing. Many graduates pursue roles in factories and production facilities, R&D laboratories, consulting firms, supply-chain technology providers and software vendors focused on manufacturing systems. Those interested in research can continue to PhD study or take on advanced R&D posts in industry or national labs.

Why study at Georgia Institute of Technology

Georgia Tech is a leading technical university with a strong emphasis on engineering practice and industry collaboration. The Institute hosts specialised research centres and laboratories that focus on advanced manufacturing, robotics, nanomanufacturing and materials processing, offering students access to modern equipment and cross-disciplinary projects.

The programme benefits from close ties with regional and national manufacturing industries, providing opportunities for industrial projects, internships and collaborative research. Faculty in manufacturing engineering are actively engaged in applied research and technology transfer, allowing students to work on real-world problems and emerging technologies such as additive manufacturing, smart factory systems and digital manufacturing.

Studying at Georgia Tech also provides a diverse peer community, networking opportunities with industry partners and the chance to engage with entrepreneurial and innovation resources on campus, supporting students who want to move into leadership, start-ups or advanced technical careers in manufacturing.