Artificial intelligence is reshaping glass understanding and design
For centuries, the development of glass relied on costly, slow trial-and-error experiments guided by chemical intuition and accumulated industrial know-how. This paradigm is now changing because modern high-throughput computation
and machine learning (ML) algorithms can uncover hidden potential in a short amount of time.
A stimulus for this transition was Zanotto and Coutinho’s 2004 paper, “How many non-crystalline solids can be made from all the elements of the periodic table?”1 That work highlighted the astronomical number of possible glass compositions (more than 1052) compared to the infinitesimal fraction already synthesized and experimentally characterized (about 106). The implication was that conventional experimental approaches alone cannot efficiently explore the enormous “glass genome,” thus motivating the use of data-driven discovery strategies.