University of Massachusetts Amherst

What you'll study

The programme combines advanced coursework with laboratory and project work to cover the technologies and practices used in contemporary manufacturing. Typical topics include:

• Advanced manufacturing processes: machining, forming, joining, surface engineering and additive manufacturing (3D printing).
• Computer-aided design and manufacturing (CAD/CAM) and digital manufacturing workflows, including model-based definition and process planning.
• Automation, robotics and controls: robot programming, machine vision, sensors and real-time control for production systems.
• Materials for manufacturing: selection, processing and property control of metals, polymers and composites with an emphasis on manufacturability.
• Manufacturing systems and operations: production planning, scheduling, lean manufacturing, Six Sigma concepts and supply chain interactions.
• Metrology and quality engineering: measurement systems, statistical process control and quality assurance methodologies.
• Process modelling and simulation: finite element analysis for forming and machining, discrete-event simulation for production systems.
• Capstone, thesis or practicum: students typically complete a research thesis, an industry-linked project or a design practicum that applies theory to a practical manufacturing challenge.

The curriculum is delivered through lectures, hands-on laboratory work in well‑equipped facilities, and project-based learning. Students can select elective modules to emphasise areas such as automation, materials, or systems engineering depending on career goals.

Entry requirements

Applicants are normally expected to hold a recognised bachelor’s degree in engineering (for example mechanical, industrial, manufacturing or materials engineering) or a closely related technical discipline. Typical application materials include:

• Academic transcripts demonstrating strong performance in engineering and mathematics coursework.
• Statement of purpose outlining academic background, research or industry interests and career objectives.
• Letters of recommendation from academic or professional referees who can attest to the applicant’s potential for graduate study.
• Curriculum vitae (CV) or résumé showing relevant coursework, projects, internships or work experience.
• English language proficiency proof for international applicants (accepted tests and scores are determined by the university).

The programme may consider applicants with relevant industrial experience even if their undergraduate degree is in a related science or technology field. Some applicants choose a research-focused route and may be expected to demonstrate preparedness for independent study; others follow a coursework route geared to practising engineers.

Career prospects

Graduates are prepared for technical and leadership roles across manufacturing and related sectors. Common career paths include:

• Manufacturing engineer — developing and optimising production processes and equipment.
• Process engineer — improving yields, reducing cycle times and implementing process controls.
• Automation and robotics engineer — integrating robotics, vision and control systems into production lines.
• Quality and continuous improvement engineer — applying statistical methods and lean tools to improve product quality and operational efficiency.
• Production or plant manager — overseeing operations, workforce and supply chain on the factory floor.
• R&D engineer or technical specialist — developing new manufacturing technologies, materials or product architectures.
• Further study — many graduates continue to doctoral study in manufacturing, materials or mechanical engineering.

Graduates find employment across industries including automotive, aerospace, medical devices, electronics, consumer products and advanced manufacturing start-ups, as well as in consultancy and government research laboratories.

Why study at University of Massachusetts Amherst

University of Massachusetts Amherst offers a strong engineering environment with faculty research spanning manufacturing processes, automation, materials and systems engineering. Students benefit from access to modern fabrication and testing facilities, hands-on laboratory courses and opportunities to work on industry‑relevant projects.

The engineering school’s collaborative culture supports interdisciplinary work with materials science, electrical engineering and management disciplines, which is valuable for addressing complex manufacturing challenges. Proximity to a vibrant New England manufacturing and technology ecosystem also provides networking and internship opportunities with regional companies and research partners.

Overall, the programme combines rigorous technical training with applied experience to prepare graduates for immediate contribution in industry or for continued research at the doctoral level.