University of Cincinnati

What you'll study

The programme combines core engineering fundamentals with specialised topics in modern manufacturing. Students typically take modules in advanced manufacturing processes, computer-aided design and manufacturing (CAD/CAM), robotics and automation, additive manufacturing, materials processing and selection, metrology and quality control, and manufacturing systems engineering. Coursework emphasises hands-on laboratory work and projects in areas such as precision machining, laser and additive processes, process modelling and simulation, and control of automated systems.

Students can usually choose between a thesis (research) route, a project route, or a coursework-only route. Typical curricular components include:

• Advanced Manufacturing Processes and Materials
• Automation, Robotics and Control Systems
• Computer-Aided Design/Manufacturing and Digital Manufacturing
• Quality, Reliability and Metrology
• Lean Manufacturing and Production Systems
• Manufacturing Systems Design, Simulation and Optimization
• Elective options in areas such as additive manufacturing, composites, finite element analysis and industrial data analytics

Projects and laboratory work take place in dedicated facilities equipped for prototyping, CNC and precision machining, additive manufacturing, robotics and controls, and metrology. The curriculum is designed to build both theoretical knowledge and applied skills in design for manufacturability, process improvement and automation integration.

Entry requirements

Applicants are expected to hold a bachelor’s degree in manufacturing engineering, mechanical engineering, industrial engineering, materials science or a closely related technical discipline. Admissions typically consider academic transcripts, a statement of purpose outlining professional and research goals, and references from academic or professional referees.

Relevant industry experience or engineering co‑op placements strengthen an application. Some special admission pathways may be available for candidates from allied backgrounds who complete preparatory undergraduate coursework. International applicants must demonstrate English language proficiency through an accepted test or approved alternative. The programme may request a CV and, for research-track applicants, a brief description of proposed research interests.

Career prospects

Graduates move into technical and leadership roles across manufacturing sectors including automotive, aerospace, medical devices, consumer goods and industrial equipment. Common job titles include manufacturing engineer, process engineer, automation/controls engineer, robotics engineer, quality and reliability engineer, production manager and manufacturing systems analyst. Graduates also work in research and development, product validation and process optimisation, and in consultancy and supply chain roles focused on manufacturing strategy.

With experience, alumni progress into senior engineering management, plant management and technical director roles. The degree also prepares students for doctoral study and careers in academic or industrial research focused on advanced manufacturing technologies.

Why study at University of Cincinnati

University of Cincinnati is well known for its strong emphasis on experiential learning and industry engagement. The College of Engineering offers direct links to regional and national manufacturing employers and an established cooperative education tradition that helps students gain practical experience and industry contacts.

Students benefit from applied research centres and modern lab facilities dedicated to robotics, advanced machining, additive manufacturing and metrology, enabling project work with real-world industry problems. The local manufacturing ecosystem and university partnerships provide opportunities for internships, capstone projects and collaborative research with manufacturers and technology suppliers.

Faculty in the manufacturing engineering programme conduct applied research across areas such as automation, materials processing and quality engineering, giving students access to current industry-relevant methods and technologies. The programme’s balance of hands-on training, project work and technical coursework is designed to prepare graduates to solve complex manufacturing problems and lead technology-driven improvements in production environments.