Georgia Institute of Technology

What you'll study

The Bachelor of Science in Civil Engineering provides a strong foundation in mathematics, physics and engineering science before progressing to core civil engineering topics and design. Early years emphasise calculus, differential equations, physics, chemistry and introductory computer programming used in engineering analysis. Core civil engineering courses cover statics and dynamics, mechanics of materials, fluid mechanics and hydraulics, soil mechanics and geotechnical engineering, structural analysis and design, transportation engineering, environmental engineering principles, construction engineering and project management.

Laboratory work and computing are integral; students gain experience with surveying, materials testing, laboratory hydraulics, CAD and civil engineering software tools (e.g. structural analysis and modelling tools, GIS and numerical computing environments). The curriculum culminates in a multi-disciplinary capstone design project that requires team-based problem solving, design documentation and professional communication.

Students can choose technical electives and minors to tailor their degree toward specific interests such as structural engineering, environmental systems, transportation systems, coastal engineering, sustainable infrastructure or construction management. Opportunities for undergraduate research, internships, industry-sponsored design challenges and cooperative-education experiences are embedded in the programme.

Entry requirements

Admission to Georgia Tech is competitive and seeks students with a strong secondary-school record in mathematics and sciences. Typical applicants present advanced coursework in calculus (or readiness for calculus), physics and often chemistry; coursework in computer science is advantageous. For domestic applicants, demonstrated achievement through high school grades and preparation in STEM subjects is essential. International applicants are expected to show equivalent secondary qualifications with strong performance in mathematics and physics.

Beyond academic preparation, successful applicants will often have extracurricular evidence of quantitative and leadership skills, such as engineering-related clubs, research projects, internships or community service. Transfer applicants should have completed college-level calculus and foundational engineering or science courses; specific transfer credit evaluations are conducted by the university.

Career prospects

Graduates of the civil engineering programme enter a broad range of sectors. Common career paths include structural engineering, transportation planning and design, geotechnical engineering, environmental and water resources engineering, construction management, and consulting. Graduates work for engineering consultancies, contractors, government agencies (transportation departments, municipal infrastructure), utilities, research organisations and non-governmental organisations focused on infrastructure and resilience.

Many graduates pursue professional licensure (such as the Fundamentals of Engineering and Professional Engineer exams) and advanced degrees (MS, PhD) for specialisation in research or academia. The programme’s emphasis on design, practical experience and industry connections supports job placement, entrepreneurship and roles in infrastructure policy and project delivery.

Why study at Georgia Institute of Technology

Georgia Tech’s School of Civil and Environmental Engineering is part of a top-tier engineering college with a long history of applied research and industry engagement. Students benefit from a technically rigorous curriculum, access to well-equipped laboratories and computing resources, and collaborations with faculty engaged in infrastructure, transportation, water resources and sustainability research.

Located in a major metropolitan area, Georgia Tech provides proximity to a wide range of employers and infrastructure projects, enhancing internship and co-op opportunities. The school emphasises experiential learning through capstone design projects, undergraduate research and partnerships with industry and government agencies. ABET accreditation ensures the programme meets professional engineering education standards.

Additional student support includes advising, career services focused on engineering employers, student chapters of professional societies and student-led design teams, all of which help prepare graduates for immediate entry into engineering practice or further study.