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CoE's undergraduate programs build a foundation in engineering principles. Nearly a dozen degrees are offered across the College's eight schools, and students are encouraged to collaborate across disciplines and apply their skills to real-world problems. Whether they want to find jobs or get advanced degrees, graduates leave CoE with both the knowledge and practical experience they need.
For information on FASET 2017, please see the FASET PDF document.
The Guggenheim School of Aerospace Engineering boasts one of the oldest and largest aerospace programs in the country. Whether you want to build and fly all types of aircraft or dream of going into space, the School's focus on problem-solving can propel you into a rewarding career with many top aerospace firms and government-research labs.
This interdisciplinary field integrates engineering and life sciences to support the prevention, diagnosis, and treatment of disease. Biomedical engineers often serve as integrators in multidisciplinary teams of engineers, scientists, and healthcare professionals in the medical device and biotechnology industries, as well as at government regulatory agencies. Georgia Tech and Emory's program challenges students with practical, hands-on problem-solving and design experiences throughout the curriculum.
Chemists discover and create new compounds, but it’s chemical engineers who turn them into products that people need and use. Chemical and biomolecular engineers are developing frontier technologies in drug design and delivery, biotechnology, nanotechnology, alternate energy resources, and environmentally neutral manufacturing. In these fields and many others, chemical engineers provide the intellectual capital that powers today’s global enterprises.
The School of Civil and Environmental Engineering prepares people who will invent the technologies of the future and create solutions to challenges we haven’t even imagined yet. Established in 1898, the School is now among the largest civil and environmental engineering programs in the country. Students on the civil track train to tackle projects like roads and bridges, sure, but they also work on technologies for green buildings, strategies that help us recover from disasters, and projects to alleviate poverty.
Electrical and computer engineering play central roles in the development of new products and technologies. Electrical engineering is at the core of just about every technology, which is why electrical engineers’ agile solutions to real-world problems and flexible skill sets are always in high demand. Our students advance the modern world by harnessing the power of electricity to build devices and systems, from nanoscale computer chips to multinational communications systems. Computer engineering spans across the disciplines of electrical engineering and computer science and involves designing, programming, and evaluating computer systems to continually improve performance and speed. Computers play an essential role in everyday life, from the computer system that controls a car’s digital displays to the tablet that we use to download our music, books, and games.
Industrial engineers design and improve systems that use people, machines, information, materials, and energy to make and deliver products or provide services. They improve system performance by solving problems whose outcomes are influenced by complicated and uncertain interactions. If you are thinking about a career as an industrial engineer, the Stewart School of Industrial & Systems Engineering (ISyE) is a natural place to begin your career path.
Materials science and engineering (MSE) focuses on the design, selection, and development of materials. It is a field that deals with “stuff” -- the metals, ceramics, polymers, and composites that surround us. It looks beyond the question of what materials these things are currently made from and imagines what they should be made from.
Mechanical engineering (ME) is the broadest of the engineering disciplines, combining principles from mechanical systems, thermal systems, manufacturing, and design. Thanks to their creativity and multidisciplinary skill set, mechanical engineers work in virtually every industry. They are critical to the transportation industry, working on everything from the development of hybrid and electric cars to autonomous cars and underwater vehicles.
Nuclear & Radiological Engineering at Georgia Tech falls under the George W. Woodruff School of Mechanical Engineering. NRE majors design nuclear plants; manage the disposal of nuclear waste; use radiation to diagnose and treat diseases such as cancer.
BS: Nuclear and Radiological Engineering
MS: Medical Physics
MS: Nuclear Engineering
PhD: with a Major in Nuclear and Radiological Engineering