Georgia Southern University

What you'll study

The Mechanical Engineering degree combines foundational science and mathematics with specialised engineering topics and practical laboratory work. Early years concentrate on calculus, linear algebra, physics and chemistry together with introductory engineering courses. In later years the programme moves into core mechanical engineering subjects and design work.

• Core engineering modules — statics and dynamics, mechanics of materials, engineering materials, thermodynamics, fluid mechanics, and heat transfer.
• Design and systems — computer-aided design (CAD), machine design, mechanical systems design, control systems and mechatronics, and a year-long senior capstone design sequence focused on team-based, problem-driven projects.
• Laboratory and practical work — hands-on labs in materials testing, fluids and thermodynamics, manufacturing processes, and instrumentation; use of industry-standard software and fabrication workshops.
• Computing and analysis — numerical methods, engineering data analysis, finite element basics and simulation tools commonly used in industry.
• Technical electives and specialisation — options to take electives in areas such as robotics, energy systems, biomechanics, advanced manufacturing, or automotive/aerospace topics to tailor the degree to career interests.
• General education and professional skills — communication, ethics, project management and teamwork courses integrated across the curriculum to prepare students for professional practice.

Entry requirements

Admission typically requires a high school diploma or equivalent with a strong record in mathematics and physical sciences. Applicants are expected to have completed pre-calculus or calculus and high school physics; chemistry is also recommended.

• Academic preparation — strong grades in mathematics (calculus if available), physics and related STEM subjects from secondary school.
• Standardised tests — the university may consider standardised test scores where submitted; requirements vary by applicant type and campus policies.
• Transfer applicants — applicants with college coursework should provide official transcripts; transfer credit for calculus, physics and engineering courses may be awarded following departmental review.
• International students — must demonstrate English language proficiency through tests such as TOEFL or IELTS unless otherwise exempt; academic credentials evaluated against U.S. secondary education standards.
• Other considerations — strong applicants often show evidence of mathematics and science preparation, problem-solving experience, and an interest in hands-on engineering; some applicants bolster their application with relevant extracurricular activities, internships or coursework.

Career prospects

Graduates with a Mechanical Engineering degree move into a wide range of technical and managerial roles across many sectors. The curriculum emphasises practical skills and design experience valued by employers.

• Typical entry-level roles — mechanical design engineer, manufacturing engineer, test engineer, thermal/fluids engineer, process engineer, quality engineer, or field service engineer.
• Industries — automotive and transportation, aerospace and defence, energy and utilities, HVAC and building systems, medical devices and biomechanics, robotics and automation, and general manufacturing.
• Career progression — engineers often advance to project leadership, systems engineering, product development, operations management or technical consulting; many pursue professional licensure (PE) or postgraduate degrees (MS, MBA, or PhD) to specialise or move into research and leadership roles.
• Experiential pathways — internships, cooperative education, undergraduate research and the senior capstone project provide direct links to employers and can lead to job offers or further study.

Why study at Georgia Southern University

Georgia Southern offers a hands-on Mechanical Engineering education with access to modern laboratories, fabrication and prototyping facilities, and a curriculum built around design and applied problem solving. The College of Engineering and Computing emphasises small-class interaction with faculty mentors and opportunities for undergraduate research and collaborative projects.

• Practical, project-based learning — a sustained design sequence and lab-heavy courses give students real-world engineering experience before graduation.
• Industry connections — regional industry partnerships, internship pipelines and career services help students gain workplace experience and transition to employment.
• Multiple campuses and resources — students can take advantage of campus facilities, student engineering societies, and outreach projects that build teamwork and leadership skills.
• Pathways to licensure and graduate study — the programme prepares graduates for professional practice and further academic study, with advising available for students pursuing PE licensure or postgraduate degrees.