Advanced Computation for Environmental and Structural Design (ACESD) THEORY

ACESD Theory Faculties courtesy
This course explores the intersections of computational design, sustainability and artificial intelligence in architectural practice. It introduces students to the theoretical underpinnings of computational design and critically examines how AI-driven tools—from generative algorithms to data-driven optimization—are transforming the way architects conceptualize, design, and deliver projects. While sustainability is addressed as a recurring theme, the focus lies on understanding the broader social, cultural, and professional implications of AI in design.
Within the course students will engage with both foundational theory and emerging debates. Early sessions cover the history and principles of computational design, followed by an introduction to machine learning and AI applications in architecture. Midway, invited experts present on topics such as generative design, ethical considerations of automation, and the environmental impacts of data-intensive tools. Later sessions shift toward case studies, critical readings, and group discussions where students debate issues like authorship, bias in algorithms, and the shifting role of the architect in an AI-augmented profession.
The course emphasises active participation through debates, critiques, and discussions. Students are encouraged to question assumptions, challenge trends, and develop informed perspectives on how AI shapes architectural culture and labor. By the end, participants will not only gain an understanding of current computational and AI-driven approaches but also be able to articulate critical positions on their opportunities and risks, especially in relation to sustainability and the future of architectural practice.
Learning Objectives
During the course students will:
- Develop critical thinking on the adoption of AI in design practice
- Develop critical thinking on sustainable and environmental design in architecture
- Apply knowledge in innovative architectural and computational design approaches to address environmental challenges and AI workflows