Alvernia University

What you'll study

The Industrial Engineering curriculum combines core engineering fundamentals with applied coursework in systems optimisation, quality and process improvement, ergonomics, and data analytics. The programme typically includes a balance of mathematics, applied sciences and engineering design plus laboratory and project work that emphasises real‑world problem solving.

• Core engineering and mathematics: calculus, differential equations, statistics for engineers, physics for engineers.
• Industrial engineering foundations: engineering economics, operations research, systems modelling and simulation, production planning and control.
• Quality and process improvement: statistical process control, Six Sigma fundamentals, lean manufacturing and continuous improvement methodologies.
• Human factors and ergonomics: workplace design, safety engineering, human‑system interaction and usability.
• Data and technology: manufacturing information systems, data analytics for decision making, automation and introduction to programming for engineers.
• Design and capstone: multidisciplinary design projects, team‑based capstone that addresses an industry or community partner challenge, laboratory practicums and prototyping.
• Experiential learning: internships, cooperative education placements, and partnerships with regional employers to apply classroom learning to operational problems.

Entry requirements

Applicants should hold a high school diploma or equivalent with a strong record in mathematics and science. Typical prerequisites include algebra, geometry, precalculus or calculus and a college‑preparatory physics course. Admissions will consider academic transcripts, a personal statement demonstrating interest in engineering, and at least one academic reference.

• Academic background: successful completion of secondary mathematics (including algebra and precalculus or calculus) and physics or physical science.
• Academic performance: competitive high school GPA and a curriculum showing readiness for collegiate STEM study.
• Supporting materials: personal statement or essay, letters of recommendation, and any relevant extracurriculars such as robotics, manufacturing clubs or engineering projects.
• Placement and transfer: students with prior college coursework or transfer credits should provide official transcripts; placement testing may be required for mathematics courses.

Career prospects

Graduates with a Bachelor in Industrial Engineering are equipped to work across manufacturing, healthcare, logistics, retail and service industries where process efficiency, quality improvement and systems design are valued. Typical entry roles include industrial engineer, process engineer, quality engineer, operations analyst and production planner.

• Manufacturing and production: process optimisation, line balancing, capacity planning and automation integration.
• Quality and continuous improvement: quality systems, Six Sigma project work, compliance and performance measurement.
• Supply chain and logistics: inventory control, distribution network design and transportation optimisation.
• Healthcare and services: workflow design, patient flow optimisation and resource allocation.
• Further study and professional development: graduates often pursue professional engineering certification, specialised master’s degrees in engineering management, systems engineering, or business‑related fields such as an MBA.

Why study at Alvernia University

Alvernia offers a student‑centred learning environment with small class sizes, personalised faculty mentorship and an emphasis on applied, experiential education. The university’s focus on service, ethics and community engagement complements technical training and prepares graduates to address real organisational and societal challenges.

• Hands‑on learning: laboratory courses, capstone projects and partnerships with regional employers provide practical experience.
• Supportive faculty: access to faculty mentors who supervise research, internships and independent projects.
• Career development: career services, internship placement support and connections with industry in the region help students transition to the workplace.
• Interdisciplinary opportunities: collaboration with business, healthcare and technology programmes enables students to apply industrial engineering skills across sectors.