Indiana University Bloomington

What you'll study

This programme emphasises the scientific and technological aspects of architecture. Core taught topics typically include building physics and environmental systems, structural principles for buildings, materials behaviour and detailing, building information modelling (BIM), digital and computational design methods, and building performance simulation (energy, daylighting, thermal comfort and acoustics).

• Core technical modules: building physics, environmental systems, structural behaviour, and material science for construction.
• Computational and digital technologies: parametric design, scripting, digital fabrication, BIM workflows and data interoperability.
• Performance analysis: energy modelling, daylighting and thermal comfort simulation, whole-building performance assessment and façade performance testing.
• Research and methods: experimental methods, measurement and instrumentation, applied laboratory work, and advanced research methods leading to an independent thesis or capstone project.
• Electives and interdisciplinary options: sustainable design strategies, advanced façade engineering, construction management technologies, sensor networks for buildings, and urban-scale systems modelling.

Teaching combines seminars, studio-based projects, laboratory work, and a substantial independent research or design thesis. Students gain hands-on experience with industry-standard software (for BIM, simulation and computational design), access to digital fabrication workshops for prototyping, and opportunities to collaborate with other disciplines such as civil engineering, environmental science and computer science.

Entry requirements

Applicants are normally expected to hold a recognised bachelor’s degree in architecture, architectural engineering, civil engineering, building science, environmental design or a closely related discipline. Candidates with professional experience in construction technology, building systems, or computational design may also be considered.

• Academic background: undergraduate degree in a relevant field with evidence of strong academic performance.
• Portfolio: a portfolio demonstrating design and/or technical work is usually required; include examples of detailing, technical drawings, computational projects or built work where possible.
• Supporting documents: CV, statement of purpose outlining your interests and proposed study focus, and academic references.
• English language: international applicants must meet the university’s English language proficiency requirements through accepted tests or equivalent evidence.
• Additional considerations: some applicants may be invited to interview; relevant professional experience can strengthen an application even if your undergraduate degree is in a neighbouring field.

Career prospects

Graduates leave prepared for specialist technical and leadership roles that bridge design and engineering. Typical career paths include positions as building performance analyst, façade engineer, BIM manager or coordinator, computational designer, environmental/sustainability consultant, building systems integrator, and technical director within architectural practices. The programme also provides a solid foundation for doctoral research or roles in applied research labs and product development for building technology firms.

Alumni find employment in diverse environments: architecture and engineering consultancies, façade and façade testing companies, construction technology vendors, sustainability and energy consultancies, research institutes, and higher education. The combination of hands-on technical skills and analytical methods is particularly valued in projects demanding high-performance building solutions and integrated design workflows.

Why study at Indiana University Bloomington

Studying this master’s degree at Indiana University Bloomington provides access to a broad research university environment with opportunities for interdisciplinary collaboration across engineering, informatics and environmental sciences. Students benefit from campus facilities that support digital fabrication, laboratory testing and computational research, and from engagement with faculty whose expertise spans building science, computational design and construction technologies.

The programme also leverages the university’s regional and industry connections to support project-based learning, internships and applied research collaborations. For students seeking a balance of rigorous technical training and design-oriented problem solving, Indiana University Bloomington offers a setting where technical specialisation can be pursued alongside wider academic resources and professional networks.