Title : Rhodanine hydrolysis leads to potent thioenolate mediated metallo-β-lactamase inhibition.

Pub. Date : 2014 Dec

PMID : 25411887






6 Functional Relationships(s)
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1 Here, we describe crystallographic analyses of the mechanism of inhibition of the clinically relevant VIM-2 MBL by a rhodanine, which reveal that the rhodanine ring undergoes hydrolysis to give a thioenolate. Rhodanine mannose-binding lectin family member 3, pseudogene Homo sapiens
2 Here, we describe crystallographic analyses of the mechanism of inhibition of the clinically relevant VIM-2 MBL by a rhodanine, which reveal that the rhodanine ring undergoes hydrolysis to give a thioenolate. Rhodanine mannose-binding lectin family member 3, pseudogene Homo sapiens
3 Crystallization of VIM-2 in the presence of the intact rhodanine led to observation of a ternary complex of MBL, a thioenolate fragment and rhodanine. Rhodanine mannose-binding lectin family member 3, pseudogene Homo sapiens
4 Crystallization of VIM-2 in the presence of the intact rhodanine led to observation of a ternary complex of MBL, a thioenolate fragment and rhodanine. Rhodanine mannose-binding lectin family member 3, pseudogene Homo sapiens
5 The crystallographic observations are supported by kinetic and biophysical studies, including (19)F NMR analyses, which reveal the rhodanine-derived thioenolate to be a potent broad-spectrum MBL inhibitor and a lead structure for the development of new types of clinically useful MBL inhibitors. Rhodanine mannose-binding lectin family member 3, pseudogene Homo sapiens
6 The crystallographic observations are supported by kinetic and biophysical studies, including (19)F NMR analyses, which reveal the rhodanine-derived thioenolate to be a potent broad-spectrum MBL inhibitor and a lead structure for the development of new types of clinically useful MBL inhibitors. Rhodanine mannose-binding lectin family member 3, pseudogene Homo sapiens