University of Arizona

What you'll study

The Industrial Engineering degree combines mathematics, engineering science and systems thinking to prepare students for work in process improvement, operations, quality and systems design. The programme balances core engineering fundamentals with applied industrial engineering topics and hands‑on projects.

• Core engineering and maths: calculus, differential equations, probability and statistics, physics and materials fundamentals.
• Industrial engineering topics: engineering economy, operations research, optimisation methods, simulation modelling, production planning and control, facilities and layout planning.
• Quality and reliability: statistical quality control, reliability engineering, Six Sigma principles and design of experiments.
• Human factors and ergonomics: workplace design, human–system interaction and safety engineering.
• Manufacturing and systems: manufacturing processes, supply chain and logistics, lean manufacturing and process design.
• Computing and analytics: data analysis, programming for engineers, database concepts and the use of simulation and optimisation software.
• Design and capstone: team-based senior design or capstone projects that apply classroom learning to real industrial problems, often in partnership with external organisations.

Students also take communication and professional development courses, and have opportunities to pursue elective concentrations or minors such as systems engineering, manufacturing, data analytics or business.

Entry requirements

Applicants should hold a recognised secondary school qualification with strong preparation in mathematics (including calculus) and science. Successful candidates typically demonstrate competence in algebra, geometry, trigonometry, and physics. Admissions decisions consider academic record, coursework rigour and other supporting information.

• Domestic applicants: a high school diploma with competitive grades in maths and science; completion of advanced mathematics courses is strongly recommended.
• International applicants: an equivalent secondary qualification with evidence of strong performance in mathematics and related subjects; proof of English language proficiency is required if English is not the applicant's first language.
• Additional materials: a personal statement and transcripts are typically required; letters of recommendation may strengthen an application. Standardised tests may be optional or used at the applicant's discretion depending on current admissions policies.

Career prospects

Graduates with a BSc in Industrial Engineering are prepared for roles that improve system performance, reduce cost and increase quality across many sectors. Typical entry‑level and mid‑career roles include:

• Industrial / Process Engineer
• Quality Engineer or Reliability Engineer
• Operations Analyst or Operations Manager
• Supply Chain Planner or Logistics Engineer
• Manufacturing Engineer
• Systems Engineer or Human Factors Specialist
• Data Analyst, Business Analyst or Management Consultant

Graduates find employment in manufacturing, aerospace, semiconductor, healthcare, logistics, consulting and government agencies. The degree also provides a foundation for professional engineering licensure and for postgraduate study (master's or doctoral degrees) in industrial engineering, systems engineering, management science or related fields.

Why study at University of Arizona

The programme is delivered within the University of Arizona's engineering school, offering access to faculty active in applied research, industry partnerships and experiential learning. Students benefit from hands‑on laboratories, computing and simulation resources, and capstone projects that connect classroom learning with real industrial challenges.

• Strong emphasis on experiential learning, internships and co‑op opportunities with regional and national employers.
• Active student chapters and professional networks, including Institute of Industrial and Systems Engineers (IISE) activities, career fairs and mentoring from alumni.
• Opportunities to engage in interdisciplinary research and apply industrial engineering methods to domains such as healthcare systems, manufacturing innovation and supply chain resilience.

The programme is suitable for students who want a practical, systems‑oriented engineering education with clear pathways into industry or further study.