Georgia Institute of Technology

What you'll study

The programme emphasises the science and technology of buildings rather than traditional architectural design alone. Core study areas include building materials and assemblies, structural principles for low-rise buildings, construction systems, and environmental control systems (HVAC, daylighting and thermal performance). Students learn digital design and production tools such as BIM (building information modelling), CAD, parametric modelling, and digital fabrication techniques used for prototyping and detailing.

Coursework typically combines studios, lectures and laboratory classes. Typical modules and subject areas include:

• Building Technology and Materials – properties and performance of common construction materials, detailing and assembly behaviour.
• Structures for Building – fundamentals of load paths, basic structural systems and their integration with architecture.
• Construction Methods and Management – sequencing, site operations, cost estimating and construction delivery processes.
• Environmental and Building Systems – thermal comfort, energy efficiency, HVAC principles, daylighting and passive design strategies.
• Digital Design and Fabrication – CAD, BIM workflows, parametric design, CNC machining, laser cutting and 3D printing for building components.
• Building Performance Analysis – energy modelling, thermal simulation, lifecycle considerations and sustainability assessment.
• Professional Practice and Codes – building codes, standards, permitting, and ethical/professional responsibilities.

Students are encouraged to take elective courses across engineering, computing and design to deepen skills in areas such as structural analysis, computational design, robotics in construction, or sustainable systems. Projects often feature industry-sponsored briefs and site-based case studies, with opportunities to work in fabrication labs and on interdisciplinary teams.

Entry requirements

Applicants should present a strong secondary-school academic record with emphasis on mathematics and sciences; knowledge of design, drawing or digital modelling is advantageous. Typical requirements include a completed high school diploma or equivalent and demonstrated readiness for a rigorous STEM-based curriculum.

Specific admissions factors commonly considered are:

• Transcripts showing strong performance in maths (algebra, geometry, calculus where available) and physical sciences.
• Standardised test scores if submitted; many applicants also apply under test-optional admissions policies where available.
• A personal statement describing interest in building technology, design and construction.
• Relevant portfolio or work samples may be recommended (especially if applicants have prior design or fabrication experience), though requirements vary by programme and applicants should check the official admissions guidance.
• Competitive applicants often demonstrate extracurricular engagement such as construction projects, CAD/BIM experience, robotics, or internships with design and construction firms.

International applicants must meet English language proficiency requirements and provide equivalent academic documentation. For precise, up-to-date admissions criteria and documentation lists, consult the institutional admissions office.

Career prospects

Graduates enter diverse roles across the architecture, construction and building-performance sectors. Common career paths include:

• Architectural technologist or architectural technologist assistant, focusing on detailing, specification and technical documentation.
• BIM coordinator or BIM manager, implementing digital workflows and managing model-based information across project teams.
• Construction project engineer or construction manager, working on site-based coordination and delivery.
• Building performance analyst or energy modeller, specialising in simulation, retrofit analysis and sustainability strategies.
• Facade or envelope engineer, detailing high-performance building skins and assemblies.
• Digital fabrication specialist or shop manager in offsite manufacture, prefabrication and component production.
• Roles in facilities management, building commissioning and quality assurance, or further study toward professional registration, engineering or architectural master’s programmes.

Internships, co‑op placements and collaboration with industry partners are common routes from study into employment; cross-disciplinary skills in computing and engineering can broaden opportunities in technology-driven construction sectors.

Why study at Georgia Institute of Technology

Georgia Tech is known for its technology- and research-focused approach to the built environment, with strong links between design, engineering and construction disciplines. Students benefit from access to interdisciplinary faculty expertise, dedicated fabrication and materials laboratories, and research centres that focus on building performance, resilient design and construction innovation.

The institute’s location in Atlanta provides proximity to a thriving construction and design industry, enabling internships, industry partnerships and real-world project collaborations. The curriculum emphasises applied learning, computational methods and industry-standard tools, preparing graduates to contribute to contemporary challenges in sustainability, digital delivery and construction productivity.

Students who value a technology-forward, practice-oriented education in architecture and construction will find the programme’s combination of technical depth, hands-on fabrication experience and cross-college collaboration well suited to careers in modern building practice.