High-throughput (HT) techniques built upon laboratory automation technology and coupled to statistical experimental design and parallel experimentation have enabled the acceleration of chemical process development across multiple industries. HT technologies are often applied to interrogate wide, often multidimensional experimental spaces to inform the design and optimization of any number of unit operations that chemical engineers use in process development. In this review, we outline the evolution of HT technology and provide a comprehensive overview of how HT automation is used throughout different industries, with a particular focus on chemical and pharmaceutical process development. In addition, we highlight the common strategies of how HT automation is incorporated into routine development activities to maximize its impact in various academic and industrial settings.

In an effort to remove residual palladium from a drug candidate prepared by palladium-catalyzed indolization, many treatments were examined. The most effective treatment was to precipitate palladium from solution using 2,4,6-trimercapto-s-triazine (TMT), which reduced palladium levels from 600−650 ppm to 20−60 ppm in an isolated indole intermediate. Subsequent crystallizations routinely afforded active pharmaceutical ingredient with <1 ppm of palladium. TMT treatment should prove useful to reduce the concentration of residual palladium in other reactions.

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Many workflows in Pharmaceutical R&D involve the manipulation of defined amounts of powders. Automated powder dispensing platforms are currently available; however, these existing technologies do not meet the requirements for every high-throughput experimentation powder dispensing application. A Working Group (WG) composed of pharmaceutical researchers within the Enabling Technologies Consortium (ETC) evaluated automated platforms commercially available from three manufacturers using an objective, systematic testing protocol. This paper describes the selection of powders and testing conditions used in this evaluation, and it assesses the impact that the powders, testing conditions, equipment environment, and other factors had on the performance of the selected platforms.

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