Crystallographic analysis of Staphylococcus aureus LcpA, the primary wall teichoic acid ligase
Franco K.K. Li, Federico I. Rosell, Robert T. Gale, Jean‐Pierre Simorre, Eric D. Brown, N.C.J. Strynadka
Abstract
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Franco K.K. Li, Federico I. Rosell, Robert T. Gale, Jean‐Pierre Simorre, Eric D. Brown, N.C.J. Strynadka
Abstract
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LCP enzymes, TagT, TagU, and TagV, in the apo form at 1.6-2.8 Å resolution. The structures of these WTA transferases provide new insight into the binding of lipid-linked WTA and enable assignment of the catalytic roles of conserved active-site residues. Furthermore, we identified potential subsites for binding the saccharide core of PG using computational docking experiments, and multiangle light-scattering experiments disclosed novel oligomeric states of the LCP enzymes. The crystal structures and modeled substrate-bound complexes of the LCP enzymes reported here provide insights into key features linked to substrate binding and catalysis and may aid the structure-guided design of specific LCP inhibitors.
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LCP enzymes, TagT, TagU, and TagV, in the apo form at 1.6-2.8 Å resolution. The structures of these WTA transferases provide new insight into the binding of lipid-linked WTA and enable assignment of the catalytic roles of conserved active-site residues. Furthermore, we identified potential subsites for binding the saccharide core of PG using computational docking experiments, and multiangle light-scattering experiments disclosed novel oligomeric states of the LCP enzymes. The crystal structures and modeled substrate-bound complexes of the LCP enzymes reported here provide insights into key features linked to substrate binding and catalysis and may aid the structure-guided design of specific LCP inhibitors.
Key concepts: Teichoic acid, Microbiology, Staphylococcus aureus, Bacteria, Chemistry, Staphylococcus, DNA ligase, Gram-positive bacteria