University of Arizona

What you'll study

This master’s programme combines coursework, technical workshops and a substantial research or design project to advance knowledge in building technology, performance and digital methods. Core areas include building physics and energy performance, environmental systems, daylighting and thermal comfort, materials and assemblies, and computational design workflows.

• Building performance and environmental systems: energy modelling, HVAC fundamentals, thermal mass, indoor environmental quality and climate-responsive design strategies.
• Computational design and simulation: parametric modelling, performance-driven design workflows, scripting for analysis, and integration of analysis tools with design software.
• Digital fabrication and construction technology: CNC milling, 3D printing, robotic fabrication, advanced detailing and prefabrication strategies for complex assemblies.
• BIM and information management: collaborative modelling practices, interoperability, model-based documentation and data management for design and construction.
• Materials and façade technology: experimental materials, assembly testing, façade engineering and envelope performance optimisation.
• Research methods and project: methods in technical research, building performance testing, and an independent thesis or capstone design/research project supervised by faculty.

The programme is delivered through lectures, laboratory work in fabrication and environmental simulation facilities, studio and seminar formats, and collaborative projects with allied disciplines such as civil and mechanical engineering. Students can usually choose elective modules to focus their study towards sustainability, computational design, façade engineering or construction innovation.

Entry requirements

Applicants are normally expected to hold a recognised bachelor’s degree in architecture, architectural technology, civil or mechanical engineering, environmental design, construction management or a closely related field. Relevant professional experience can strengthen an application where undergraduate background differs.

• Academic transcripts: evidence of prior degree and academic performance.
• Portfolio: a concise portfolio showing analytical work, technical drawings, design projects or research that demonstrate aptitude for technical and computational work.
• Personal statement: a statement of purpose outlining technical interests, proposed focus within the programme and career aims.
• References: two or three academic or professional references attesting to the applicant’s readiness for graduate study.
• English language proficiency: for applicants whose first language is not English, an approved English test score or equivalent evidence of proficiency is required.

Some applicants may be asked to submit a CV and to discuss prior experience in an interview. Specific prerequisites in maths, physics or software skills may be recommended for applicants without a technical background.

Career prospects

Graduates from this programme move into technical and leadership roles across architecture, engineering and construction sectors. The skill set focuses on combining design thinking with rigorous technical skills valued by employers involved in high-performance buildings and innovative construction.

• Building performance analyst or energy modeller
• Façade engineer or façade consultant
• Sustainability and environmental design consultant
• BIM manager or digital delivery specialist
• Computational designer or digital fabrication specialist in design firms or specialised consultancies
• Construction technology advisor or prefabrication/development roles within industry
• Entry into doctoral research or research roles in universities, laboratories and think-tanks focusing on building science and materials innovation

Why study at University of Arizona

The University of Arizona’s College of Architecture, Planning & Landscape Architecture offers an interdisciplinary environment where architectural technology is taught alongside allied engineering and environmental disciplines. Students benefit from access to advanced fabrication workshops, environmental simulation and testing facilities, and collaboration opportunities with faculty engaged in applied building science research.

Located within a region with a diverse climate context, the university supports hands-on experimentation with materials and performance-driven design strategies that respond to real-world environmental challenges. The departmental culture emphasises a balance of research rigour and professional applicability, preparing graduates to lead technical innovation in design and construction practice.