Georgia Southern University

What you'll study

The programme builds a foundation in mathematics, physics and core engineering science before progressing to manufacturing-specific topics. Early coursework typically covers calculus, linear algebra, statics and dynamics, materials science, thermodynamics and basic electrical circuits to provide the analytical tools engineers use in manufacturing contexts.

• Manufacturing processes: machining, forming, joining, casting and additive manufacturing methods and the selection of appropriate processes for different materials and product requirements.
• Computer-aided design and manufacturing: CAD/CAM modelling, computer numerical control (CNC) programming, and the use of simulation tools for process planning and virtual prototyping.
• Automation and robotics: industrial control systems, programmable logic controllers (PLCs), robot programming fundamentals and integration of automated cells and lines.
• Quality and production systems: statistical quality control, metrology, manufacturing planning and control, lean manufacturing, Six Sigma principles and continuous improvement methodologies.
• Materials and manufacturing engineering lab work: hands-on laboratory modules that introduce materials characterisation, nondestructive testing, tolerance and measurement, and process trials.
• Design for manufacturing and product development: concurrent engineering, manufacturability analysis, cost estimation and capstone design projects that require teams to take a product from concept through a manufacturable prototype.
• Electives and special topics: advanced topics such as industrial ecology and sustainability, advanced manufacturing technologies (e.g. composites, microfabrication), supply chain integration, and opportunities to pursue individual research or internships.

The curriculum emphasises laboratory work, project-based learning and industry-relevant software so graduates leave with both theoretical understanding and practical skills.

Entry requirements

Applicants are expected to hold a recognised secondary school qualification with strong preparation in mathematics and science. Typical preparation includes algebra, geometry, precalculus or calculus and physics. Georgia Southern reviews applications holistically; required application materials usually include official transcripts and any supporting documentation of standardised test scores where applicable.

Successful candidates normally demonstrate:

• a solid academic record in mathematics and science subjects;
• evidence of problem-solving and technical aptitude;
• for international students, proof of English language proficiency and academic credentials equivalent to U.S. secondary qualifications.

Transfer students may be admitted with appropriate college-level coursework in calculus and introductory engineering or physics; credit evaluation is performed on an individual basis. Prospective students should consult Georgia Southern admissions for any programme- or campus-specific requirements.

Career prospects

Graduates with a degree in Manufacturing Engineering have a wide range of career paths across industry, including roles in production, process improvement, automation and product development. Typical entry-level and mid-career roles include:

• Manufacturing/Process Engineer
• Quality Engineer or Quality Assurance Specialist
• Production Supervisor or Operations Engineer
• Automation and Controls Engineer
• Tooling and Fixture Designer
• Manufacturing Systems Analyst or Continuous Improvement Engineer
• Additive Manufacturing Specialist or Materials Engineer

Graduates often work in automotive, aerospace, defence, medical devices, electronics, consumer products and contract manufacturing. The programme also provides preparation for graduate study in engineering, manufacturing systems, industrial engineering or related technology management fields.

Why study at Georgia Southern University

Georgia Southern offers engineering education with an emphasis on applied learning and regional industry engagement. Students benefit from hands-on laboratories, project-based coursework and opportunities to complete internships with manufacturing firms in the region.

• Applied facilities: access to machine shops, materials and metrology labs, automation and robotics workcells, and CAD/CAM software used in industry.
• Industry connections: partnerships with regional manufacturers provide pathways to internships, co‑op experiences and project sponsorships that enhance employability.
• Capstone design experience: team-based senior projects replicate real-world manufacturing challenges and build collaboration, communication and project management skills.
• Supportive campus environment: advising, career services and student organisations focused on engineering and manufacturing help students build networks and professional skills.

Together these elements make Georgia Southern a practical choice for students seeking a career-oriented education in manufacturing engineering that balances technical theory with extensive hands-on experience.