Michigan State University

What you'll study

The programme combines a rigorous core of mathematics and natural sciences with discipline-specific engineering courses and team-based design work. Early years emphasise calculus, differential equations, linear algebra, general chemistry and calculus-based physics alongside introductory engineering courses such as statics, dynamics and programming. Core engineering courses cover material and manufacturing fundamentals, thermodynamics, fluid mechanics, circuits and signals, systems and controls, and engineering analysis methods.

• First years: calculus sequence, physics, chemistry, introductory computing, engineering problem solving and lab work.
• Mid programme: foundational engineering courses (statics/dynamics, mechanics of materials, circuits, thermodynamics) plus courses in mathematics and probability and statistics.
• Specialisation: students choose a major stream such as mechanical, electrical, civil, computer, chemical, biomedical, materials or industrial engineering and take advanced technical electives in that area.
• Capstone: a senior design project or practicum that emphasises real-world problem solving, teamwork, design documentation and professional communication.
• Practical experience: extensive laboratory components, maker spaces, project studios and opportunities for internships, co‑ops and undergraduate research with faculty and industry partners.

Typical modules

• Calculus I–III and Differential Equations
• Physics for Engineers I–II
• Engineering Programming and Data Structures
• Statics and Dynamics; Mechanics of Materials
• Circuits and Electronics
• Thermodynamics and Fluid Mechanics
• Materials Science and Manufacturing Processes
• Systems Engineering, Control Theory and Signals
• Engineering Design, Ethics and Professional Practice
• Senior Capstone Design Project

Entry requirements

Admission to the College of Engineering at Michigan State requires a strong secondary-school record with emphasis on mathematics and science. Typical preparation includes advanced courses in calculus, physics and chemistry. Applicants normally present a competitive academic profile on their high-school transcript and the Common Application or Coalition Application materials.

• Academic background: high-school diploma or equivalent with strong grades in algebra, precalculus/calculus, physics and chemistry.
• Standardised tests: requirement or consideration of SAT/ACT scores varies by admission policy; check the university's admissions pages for current practice.
• International applicants: proof of English proficiency (e.g. TOEFL, IELTS) may be required unless exempt; academic records should be comparable to U.S. preparation.
• Other materials: personal statement, recommendation letters and a résumé of extracurriculars, particularly any STEM-related projects or work experience, strengthen applications.
• Transfer applicants: transfer credit is assessed; strong performance in college-level calculus, physics and engineering coursework is important.

Career prospects

Graduates earn a technical foundation that opens pathways into design, development, analysis and management roles across many sectors. Common entry-level job titles include design engineer, systems engineer, test engineer, process engineer, controls engineer and software engineer, depending on specialisation.

• Industry sectors: automotive and mobility, aerospace, energy and utilities, manufacturing, biomedical and healthcare, construction and infrastructure, electronics and high‑tech.
• Professional development: many graduates pursue the Fundamentals of Engineering (FE) exam and later Professional Engineer (PE) licensure, or continue into master's and doctoral programmes.
• Alternatives: roles in technical consulting, product management, patent law (with further qualifications), and entrepreneurship, supported by MSU incubators and career services.

Why study at Michigan State University

Michigan State's College of Engineering offers a comprehensive undergraduate education with strong ties to regional and global industry. Students benefit from hands-on laboratory facilities, interdisciplinary research centres and project-focused courses that emphasise teamwork and real-world problem solving.

• Facilities and resources: on-campus fabrication labs, testing facilities, computing resources and maker spaces that support coursework and student projects.
• Industry connections: proximity to a large manufacturing and automotive sector provides internship and co‑op opportunities, as well as collaborative research with companies.
• Student support: academic advising, engineering student organisations, tutoring and career services dedicated to preparing students for internships and graduate opportunities.
• Research and entrepreneurship: opportunities to work with faculty on research projects across disciplines and to participate in innovation programmes and startup support.