Rational design of balanced dual-targeting antibiotics with limited resistance

Antibiotics that inhibit multiple bacterial targets offer a promising therapeutic strategy against resistance evolution, but developing such antibiotics is challenging. Here we demonstrate that a rational design of balanced multitargeting antibiotics is feasible by using a medicinal chemistry workfl...

Teljes leírás

Elmentve itt :
Bibliográfiai részletek
Szerzők: Nyerges Ákos
Tomasic Tihomir
Durcik Martina
Révész Tamás
Szili Petra
Draskovits Gábor
Bogár Ferenc
Skok Ziga
Zidar Nace
Daruka Lejla
Kintses Bálint
Vásárhelyi Bálint Márk
Földesi Imre
Kata Diána
Pál Csaba
Dokumentumtípus: Cikk
Megjelent: 2020
Sorozat:PLOS BIOLOGY 18 No. 10
doi:10.1371/journal.pbio.3000819

mtmt:31642956
Online Access:http://publicatio.bibl.u-szeged.hu/21017
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520 3 |a Antibiotics that inhibit multiple bacterial targets offer a promising therapeutic strategy against resistance evolution, but developing such antibiotics is challenging. Here we demonstrate that a rational design of balanced multitargeting antibiotics is feasible by using a medicinal chemistry workflow. The resultant lead compounds, ULD1 and ULD2, belonging to a novel chemical class, almost equipotently inhibit bacterial DNA gyrase and topoisomerase IV complexes and interact with multiple evolutionary conserved amino acids in the ATP-binding pockets of their target proteins. ULD1 and ULD2 are excellently potent against a broad range of gram-positive bacteria. Notably, the efficacy of these compounds was tested against a broad panel of multidrug-resistantStaphylococcus aureusclinical strains. Antibiotics with clinical relevance against staphylococcal infections fail to inhibit a significant fraction of these isolates, whereas both ULD1 and ULD2 inhibit all of them (minimum inhibitory concentration [MIC] <= 1 mu g/mL). Resistance mutations against these compounds are rare, have limited impact on compound susceptibility, and substantially reduce bacterial growth. Based on their efficacy and lack of toxicity demonstrated in murine infection models, these compounds could translate into new therapies against multidrug-resistant bacterial infections. 
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700 0 1 |a Durcik Martina  |e aut 
700 0 1 |a Révész Tamás  |e aut 
700 0 1 |a Szili Petra  |e aut 
700 0 1 |a Draskovits Gábor  |e aut 
700 0 1 |a Bogár Ferenc  |e aut 
700 0 1 |a Skok Ziga  |e aut 
700 0 1 |a Zidar Nace  |e aut 
700 0 1 |a Daruka Lejla  |e aut 
700 0 1 |a Kintses Bálint  |e aut 
700 0 1 |a Vásárhelyi Bálint Márk  |e aut 
700 0 1 |a Földesi Imre  |e aut 
700 0 1 |a Kata Diána  |e aut 
700 0 1 |a Pál Csaba  |e aut 
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