Materials are no longer simply substances we select from a catalog. Advances in materials science, biology, computation, artificial intelligence, and manufacturing are transforming what matter can do, and accelerating how quickly new possibilities can be discovered.
Material Futures explores these emerging capabilities and asks what they mean for architecture.
Why Material Futures?
Every period of architectural transformation has also been a period of material transformation. New ways of working with stone enabled structures of previously unimaginable height. Iron and steel altered the limits of building spans. Reinforced concrete changed the relationship between structure and form. Float glass transformed the building envelope. Polymers introduced entirely new combinations of lightness, flexibility, transparency, and manufacturability.
But something different is happening now. For much of architectural history, materials could be understood as relatively stable categories. Designers learned their properties and selected among them: wood behaved like wood, steel like steel, glass like glass.
Increasingly, however, materials are becoming designed rather than simply selected. Scientists can manipulate composition and microstructure to alter material behavior. Metamaterials derive unusual capabilities from geometry as much as chemistry. Biological processes can grow, assemble, repair, or transform matter. Advanced manufacturing allows materials to be placed precisely according to local performance requirements. Computational modeling can explore combinations beyond unaided human intuition. Artificial intelligence is accelerating the search still further, helping researchers predict promising candidates and navigate immense spaces of possible materials.
These developments challenge one of architecture's most basic assumptions: that materials arrive before design begins. Increasingly, the material itself is becoming part of the design problem.