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Funded Projects › H2020

SEAROX · Sulfur Enabled Annulations for Modular, Efficient and General Routes into Oxazoles

H2020Status: CLOSED7 August 20196 August 2021EU funding €212,934Call H2020-MSCA-IF-2018

SEAROX will bring together the complementary expertise of Dr Prakash Sekar (ER, expertise in cross-coupling and directing effects in metal catalysis) with Dr Paul Davies (Host, expertise in gold catalysis, sulfur-based reaction development and nucleophilic nitrenoids) to pioneer the use of sulfur-based directing groups to establish optimal gold-catalysed annulations. SEAROX will deliver an efficient, modular and readily diversifiable method to access important motifs with broad utility in academic and industrial R+D. By reducing the chemical and energy demand of complex molecule preparation, the European science base and economy benefits from enhanced sustainability. Nucleophilic nitrenoids have emerged as highly effective reactants for the preparation of the nitrogen-based heterocycles ubiquitous across biologically active species and vital to the pharmaceutical and agrochemical industries. The novel reactivity and high selectivity from such methods depend on using strongly donor-activated alkynes. However, as the donor group translates into the products it limits their application. SEAROX will access more general and practically accessible heterocycle preparations by addressing the problems of donor-substitution. This project will also influence the wider gold catalysis field by establishing how S-directing effects impart unprecedented regioselectivity in intermolecular reactions. New substitution patterns and functional group combinations are needed to better probe chemical space in early stage drug discovery and SEAROX will equip PS with the skills to integrate scaffold and library design aspects within the new methods to deliver focused libraries of structurally-diverse oxazoles for phenotypic screening.

Consortium · 1 organisation

coordinator

THE UNIVERSITY OF BIRMINGHAM

UK · €212,934

Research fields

View the official record on CORDIS →

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