University of Michigan

What you'll study

The IOE curriculum combines foundation courses in mathematics, natural sciences and computing with specialised studies in systems analysis, optimisation and human factors. Early years emphasise calculus, linear algebra, physics, introductory programming and probability and statistics to build the quantitative toolkit required for engineering analysis.

• Core technical topics: deterministic and stochastic operations research, optimisation (linear and nonlinear), simulation, probability and statistical inference, quality and reliability engineering.
• Systems and application areas: manufacturing systems, supply chain and logistics, healthcare operations, service systems, systems engineering and human factors/ergonomics.
• Practical and design experience: laboratory courses, computing projects using languages and tools common in industry, and a capstone team design project that addresses a real client problem.
• Electives and specialisations: students may choose technical electives in data analytics, machine learning, operations management, production planning, financial engineering or user‑centred design to tailor the degree toward industry or research interests.
• Experiential learning: internships, co‑op experiences, interdisciplinary projects with the Ross School of Business or Tauber Institute, and involvement with research groups and centres provide applied learning and industry exposure.

Entry requirements

Admission to the College of Engineering is competitive and seeks students with a strong secondary‑school record, especially in mathematics and the sciences. Typical preparation includes advanced coursework in calculus, physics and chemistry; experience in programming or robotics is beneficial but not mandatory.

• Academic background: high school diploma with high grades in mathematics and sciences. Courses in calculus and physics are strongly recommended.
• Supporting materials: academic transcripts and a personal statement that demonstrate quantitative ability, problem‑solving experience and teamwork. Letters of recommendation highlighting academic potential and work ethic strengthen an application.
• Standardised tests: the university’s current policy on standardised testing may vary; applicants should check the Engineering admissions pages for guidance on SAT/ACT submission.
• Transfer students: transfer applicants should have completed college‑level calculus and science courses with strong grades and provide official college transcripts for evaluation.

Career prospects

Graduates in Industrial & Operations Engineering enter a wide range of sectors where optimisation of people, processes and technology is critical. IOE alumni are valued for their ability to apply quantitative methods to improve efficiency, reduce cost and enhance system performance.

• Typical roles: operations analyst, supply chain analyst/manager, process or manufacturing engineer, quality/reliability engineer, systems engineer, data analyst, management consultant.
• Industry sectors: manufacturing and automotive, logistics and distribution, healthcare systems, technology and software companies, consulting firms, energy and utilities, finance and telecommunications.
• Further study: many graduates pursue master’s degrees in industrial engineering, operations research, data science, systems engineering or MBAs to specialise or move into leadership roles.

Why study at University of Michigan

The University of Michigan offers IOE students access to a well‑established engineering programme with strong ties to industry, interdisciplinary collaboration and extensive experiential learning opportunities. Facilities include dedicated labs for manufacturing, human factors, simulation and data analytics.

• Interdisciplinary connections: opportunities to work with the Ross School of Business, the College of Literature, Science, and the Arts and research centres enable projects that combine technical and business perspectives.
• Industry engagement: partnerships, career fairs and a large alumni network provide internship and job pathways across diverse industries.
• Hands‑on learning: capstone projects, research assistantships and makerspaces support practical skill development and portfolio building.
• Support and resources: academic advising, career services and student organisations help students develop professional skills and connect with employers.