A Click Chemistry Approach to Pleuromutilin Derivatives, Part 2: Conjugates with Acyclic Nucleosides and Their Ribosomal Binding and Antibacterial Activity

Pleuromutilin is an antibiotic that binds to bacterial ribosomes and thereby inhibit protein synthesis. A new series of semisynthetic pleuromutilin derivatives were synthesized by a click chemistry strategy. Pleuromutilin was conjugated by different linkers to a nucleobase, nucleoside, or phenyl gro...

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Veröffentlicht in:Journal of medicinal chemistry 2012-03, Vol.55 (5), p.2067-2077
Hauptverfasser: Dreier, Ida, Kumar, Surender, Søndergaard, Helle, Rasmussen, Maria Louise, Hansen, Lykke Haastrup, List, Nanna Holmgaard, Kongsted, Jacob, Vester, Birte, Nielsen, Poul
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container_end_page 2077
container_issue 5
container_start_page 2067
container_title Journal of medicinal chemistry
container_volume 55
creator Dreier, Ida
Kumar, Surender
Søndergaard, Helle
Rasmussen, Maria Louise
Hansen, Lykke Haastrup
List, Nanna Holmgaard
Kongsted, Jacob
Vester, Birte
Nielsen, Poul
description Pleuromutilin is an antibiotic that binds to bacterial ribosomes and thereby inhibit protein synthesis. A new series of semisynthetic pleuromutilin derivatives were synthesized by a click chemistry strategy. Pleuromutilin was conjugated by different linkers to a nucleobase, nucleoside, or phenyl group, as a side-chain extension at the C22 position of pleuromutilin. The linkers were designed on the basis of the best linker from our first series of pleuromutilin derivatives following either conformational restriction or an isosteric methylene to oxygen exchange. The binding of the new compounds to the Escherichia coli ribosome was investigated by molecular modeling and chemical footprinting of nucleotide U2506, and it was found that all the derivatives bind to the specific site and most of them better than pleuromutilin itself. The effect of the side-chain extension was also explored by chemical footprinting of nucleotide U2585, and the results showed that all the compounds interact with this position to varying degrees. Derivatives with a conformational restriction of the linker generally had a higher affinity than derivatives with an isosteric exchange of one of the carbons in the linker with a hydrophilic oxygen. A growth inhibition assay with three different bacterial strains showed significant activity of several of the new compounds.
doi_str_mv 10.1021/jm201266b
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A new series of semisynthetic pleuromutilin derivatives were synthesized by a click chemistry strategy. Pleuromutilin was conjugated by different linkers to a nucleobase, nucleoside, or phenyl group, as a side-chain extension at the C22 position of pleuromutilin. The linkers were designed on the basis of the best linker from our first series of pleuromutilin derivatives following either conformational restriction or an isosteric methylene to oxygen exchange. The binding of the new compounds to the Escherichia coli ribosome was investigated by molecular modeling and chemical footprinting of nucleotide U2506, and it was found that all the derivatives bind to the specific site and most of them better than pleuromutilin itself. The effect of the side-chain extension was also explored by chemical footprinting of nucleotide U2585, and the results showed that all the compounds interact with this position to varying degrees. Derivatives with a conformational restriction of the linker generally had a higher affinity than derivatives with an isosteric exchange of one of the carbons in the linker with a hydrophilic oxygen. 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The binding of the new compounds to the Escherichia coli ribosome was investigated by molecular modeling and chemical footprinting of nucleotide U2506, and it was found that all the derivatives bind to the specific site and most of them better than pleuromutilin itself. The effect of the side-chain extension was also explored by chemical footprinting of nucleotide U2585, and the results showed that all the compounds interact with this position to varying degrees. Derivatives with a conformational restriction of the linker generally had a higher affinity than derivatives with an isosteric exchange of one of the carbons in the linker with a hydrophilic oxygen. A growth inhibition assay with three different bacterial strains showed significant activity of several of the new compounds.</abstract><cop>United States</cop><pub>American Chemical Society</pub><pmid>22280300</pmid><doi>10.1021/jm201266b</doi><tpages>11</tpages></addata></record>
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subjects Anti-Bacterial Agents - chemical synthesis
Anti-Bacterial Agents - chemistry
Anti-Bacterial Agents - pharmacology
Bacillus subtilis - drug effects
Binding Sites
Click Chemistry
Diterpenes - chemical synthesis
Diterpenes - chemistry
Diterpenes - pharmacology
Escherichia coli - drug effects
Escherichia coli - metabolism
Escherichia coli - ultrastructure
Listeria - drug effects
Microbial Sensitivity Tests
Models, Molecular
Molecular Conformation
Nucleosides - chemical synthesis
Nucleosides - chemistry
Nucleosides - pharmacology
Peptidyl Transferases - metabolism
Pleuromutilins
Polycyclic Compounds
Ribosomes - drug effects
Ribosomes - metabolism
RNA, Bacterial - metabolism
RNA, Ribosomal, 23S - metabolism
Stereoisomerism
Structure-Activity Relationship
title A Click Chemistry Approach to Pleuromutilin Derivatives, Part 2: Conjugates with Acyclic Nucleosides and Their Ribosomal Binding and Antibacterial Activity
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