Michigan State University

What you'll study

The programme builds a foundation in mathematics, physics and engineering science before moving into mechanical engineering specialisms. Early coursework typically covers calculus, differential equations, chemistry, introductory mechanics and computing for engineers. Core mechanical engineering subjects include statics and dynamics, materials and solid mechanics, fluid mechanics, thermodynamics and heat transfer, machine design, control systems and manufacturing processes.

Laboratory and hands-on components are integrated throughout the curriculum. Students work in applied labs for thermal-fluids, materials testing, dynamics and controls, and learn industry-standard tools for computer-aided design (CAD), finite element analysis (FEA) and computational fluid dynamics (CFD). The programme culminates in a team-based capstone design project where students define problems, perform analyses, prototype or test systems, and present solutions—often in partnership with industry sponsors.

Electives and technical tracks allow deeper study in areas such as robotics and mechatronics, automotive and mobility systems, energy and sustainability, aerospace, and advanced manufacturing. Research opportunities with faculty and participation in student organisations (for example ASME and SAE projects like Baja or Formula) are available for students who want to expand practical experience beyond coursework.

Entry requirements

Applicants should present a high school or secondary-school diploma with strong preparation in mathematics (including calculus) and physics. Competitive applicants typically demonstrate proficiency in algebra, geometry, trigonometry, introductory calculus and laboratory-based science. Schools may also consider the rigor of prior coursework, letters of recommendation, and personal statements that show problem-solving ability and interest in engineering.

Michigan State University evaluates both domestic and international applicants; international students will need to meet English language proficiency requirements through recognised tests or approved exemptions. Standardised test requirements (such as SAT or ACT) may be considered according to the university's current admissions policies—applicants should check MSU admissions for the latest guidance. Transfer students from community colleges are welcome and should provide collegiate engineering and mathematics transcripts; advising helps map prior credits to degree requirements.

Career prospects

Graduates with a BS in Mechanical Engineering enter a wide range of industries. Common career paths include roles in automotive and mobility companies, aerospace and defence firms, energy and power generation, manufacturing and industrial engineering, robotics and automation, product design and development, and consulting. Mechanical engineers also work in research and development, testing and quality assurance, systems engineering, and project management.

The degree provides a strong foundation for professional licensure (PE) after meeting experience requirements, and for advanced study in engineering, business or related disciplines. Many graduates take internships or co-op placements while studying to build industry experience and employer connections, and some transition directly into graduate programmes or corporate research roles.

Why study at Michigan State University

Michigan State offers a comprehensive engineering education within a large research university environment. The mechanical engineering programme is delivered by faculty active in applied and fundamental research, giving students access to modern laboratories and research projects in areas such as thermal-fluids, materials, manufacturing and robotics. Collaborative opportunities span campus units and external partners, including industry-sponsored capstone projects.

Students benefit from career services and strong employer engagement in the region and beyond, helping with internships and placement. Campus-based student engineering organisations, design teams and maker spaces provide practical learning outside the classroom. The curriculum emphasises teamwork, communication and professional skills alongside technical competence, preparing graduates for varied careers in industry, government and academia.