Beyond Matter: How Far Can Material Intelligence Go?

Project by Sabin Design Lab Cornell University and the DEfECT Lab at Arizona State University. Image © John Munson and Jason Koski

For decades, technological evolution was driven by the exponential growth in computer processing power—a trend famously predicted by Moore’s Law. From rudimentary mechanical devices to highly sophisticated microprocessors, this trajectory fueled the miniaturization and popularization of personal computers, laptops, and smartphones. Now, with the advent of quantum computing, a new leap is on the horizon. Unlike classical bits, which represent only one value at a time—either 0 or 1—qubits can simultaneously represent a combination of both states. This means that while a traditional computer tests one possibility at a time, a quantum computer can explore many at once, dramatically accelerating the resolution of complex problems. Molecular simulations, logistical optimizations, and advances in cryptography are just a few of the areas transformed by this new frontier.

In the construction industry—a sector historically resistant to abrupt changes—the evolution of materials also has its breakthrough moments. From carved stone to reinforced concrete, from raw timber to high-performance composites, each new material has expanded the structural, aesthetic, and functional boundaries of architecture. In recent years, however, researchers have been testing a new generation of materials that transcend the traditional idea of passivity. These are intelligent materials, capable of sensing, reacting to, and even interacting with their environment and users, challenging the very concept of inert matter.

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