Surfactant Technology: With New Rules, Designing New Sequences Is Required!

计算机科学 肺表面活性物质 化学 组合化学 生化工程 纳米技术 工艺工程 化学工程 工程类 材料科学
作者
Daniel J. Lippincott,Evan B. Landstrom,Margery Cortes‐Clerget,Bruce H. Lipshutz,Klaus Buescher,Robert Schreiber,Corinne Durano,Michaël Parmentier,Ning Ye,Bin Wu,Min Shi,Hongwei Yang,Martin Andersson,Fabrice Gallou
出处
期刊:Organic Process Research & Development [American Chemical Society]
卷期号:24 (5): 841-849 被引量:69
标识
DOI:10.1021/acs.oprd.9b00454
摘要

With a growing toolbox of surfactant-mediated chemistry in water and an increased number of scaled-up transformations has come tremendous learning [for example, see: Lipshutz, B. H.; et al. The Hydrophobic Effect Applied to Organic Synthesis: Recent Synthetic Chemistry “in Water”. Chem.- Eur. J. 2018, 24 (26), 6672–6695]. These opportunities now reside within a few expert groups, and while all of the details are far from fully understood or still under development, substantial know-how has been gained in both reaction process and synthesis design. Herein we share some of the fundamental principles inherent to micellar catalysis and illustrate them on a particularly challenging case involving a Suzuki–Miyaura cross-coupling. The complete structures of the active pharmaceutical ingredient (API) and the intermediates are not fully disclosed for confidentiality reasons but can nevertheless serve as illustrative of the importance of factors that, unlike traditional chemistry in organic solvents, can be crucial to a successful outcome (e.g., lipophilicity). The API used as an example for this discussion bears significant commonality with a large number of other targets associated with the formation of a biphenyl array as well as the presence of an amide and products resulting from nucleophilic aromatic substitutions (SNAr). Hence, we look to utilize these prior learnings and can now rapidly apply them to the design of optimal conditions for several other important transformations.
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