Brandi Ransom, Benjamin Wunsch, et al.
ACS Fall 2024
Reaching optimal reaction conditions is crucial to achieve high yields, minimal by-products, and environmentally sustainable chemical reactions. With the recent rise of artificial intelligence, there has been a shift from traditional Edisonian trial-and-error optimization to data-driven and automated approaches, which offer significant advantages. Here, we showcase the capabilities of an integrated platform; we conducted simultaneous optimizations of four different terminal alkynes and two reaction routes using an automation platform combined with a Bayesian optimization platform. Remarkably, we achieved a conversion rate of over 80% for all four substrates in 23 experiments, covering ca. 0.2% of the combinatorial space. Further analysis allowed us to identify the influence of different reaction parameters on the reaction outcomes, demonstrating the potential for expedited reaction condition optimization and the prospect of more efficient chemical processes in the future.
Brandi Ransom, Benjamin Wunsch, et al.
ACS Fall 2024
Thanh Lam Hoang, Marco Luca Sbodio, et al.
AAAI 2024
Eduardo Almeida Soares, Flaviu Cipcigan, et al.
ACS Spring 2024
Guojing Cong, Talia Ben Naim, et al.
ICDM 2022