Pharmaceutical process and product development present significant challenges in terms of cost, efficiency, and sustainability. Harnessing the power of data-driven machine learning (ML) to predict behavioral trends, variable effects, and optimal conditions offers a promising solution to fast-track innovation. However, conventional ML algorithms often require extensive datasets, posing a resource-intensive challenge in experimental data collection.
To address this bottleneck, we introduce an enhanced Bayesian optimization (BO) approach, enabling a reaction-agnostic pathway for designing and implementing intelligent experimental campaigns. SuntheticsML is an accessible online ML platform tailored for researchers without coding or ML expertise. The pivotal in-lab validation of this approach demonstrates compelling returns on material and experimental efficiency, as well as performance gains against a competitive baseline.
SuntheticsML is a versatile technology that allows numeric, discrete, and mixed-integer optimization problems with up to 20 input parameters. This BO-powered approach allows flexible execution in serial or parallel experimentation. Furthermore, it facilitates bounded-target, multi-objective, and constrained-input optimizations, enabling simultaneous enhancements in cost and material efficiency. The versatility of SuntheticsML is exemplified through case studies covering chemocatalytic reactions, biocatalytic cascades, and in-vitro mRNA transcription processes, among others.
The in-lab validation of SuntheticsML convincingly demonstrates impressive returns on material efficiency, with up to a 75% reduction in the use of expensive or complex reagents. Experimental efficiency sees notable gains, with a 2-6X reduction in optimization experiments. Moreover, the platform enables a 9-12% increase in previously-optimized yields.