Apr 25, 2024
3:45pm - 4:00pm
Room 322, Level 3, Summit
Peter Beaucage1,Tyler Martin1,Duncan Sutherland1
National Institute of Standards and Technology1
Peter Beaucage1,Tyler Martin1,Duncan Sutherland1
National Institute of Standards and Technology1
Industrial liquid formulations from electronics to nanoparticle coatings to drug delivery vehicles are often<br/>strikingly complex, with large numbers of components (10-100), complex multistep processing,<br/>and a wide variety of design requirements for a functional, sustainable, regulatory compliant product. This complexity often<br/>precludes physics-informed mapping between component fractions, processing, structure,<br/>leaving most formulation design to empirical trial-and-error or design of experiments strategies.<br/>I will discuss recent efforts by the Autonomous Formulation Laboratory (AFL) team at NIST to<br/>use machine learning driven, highly automated characterization to rapidly and intelligently map<br/>formulation phase space using structural characterization tools such as small-angle x-ray and<br/>neutron scattering (SAXS/SANS) together with secondary measurements, e.g. optical imaging,<br/>UV-vis-NIR and capillary viscometry. Our initial studies have resulted in an order of magnitude<br/>reduction in the time needed to map a model phase diagram and rapid cross-learning between model petroleum-based and biobased formulations. Other systems of interest from our personal care, biopharmaceutical, and alternative energy industrial collaborators will also be highlighted, including recent results on multimodal cooperative active learning.