Utilization of diverse organophosphorus pollutants by marine bacteria

Anthropogenic organophosphorus compounds (AOPCs), such as phosphotriesters, are used extensively as plasticizers, flame retardants, nerve agents, and pesticides. To date, only a handful of soil bacteria bearing a phosphotriesterase (PTE), the key enzyme in the AOPC degradation pathway, have been ide...

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Veröffentlicht in:Proceedings of the National Academy of Sciences - PNAS 2022-08, Vol.119 (32), p.e2203604119
Hauptverfasser: Despotović, Dragana, Aharon, Einav, Trofimyuk, Olena, Dubovetskyi, Artem, Cherukuri, Kesava Phaneendra, Ashani, Yacov, Eliason, Or, Sperfeld, Martin, Leader, Haim, Castelli, Andrea, Fumagalli, Laura, Savidor, Alon, Levin, Yishai, Longo, Liam M, Segev, Einat, Tawfik, Dan S
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container_issue 32
container_start_page e2203604119
container_title Proceedings of the National Academy of Sciences - PNAS
container_volume 119
creator Despotović, Dragana
Aharon, Einav
Trofimyuk, Olena
Dubovetskyi, Artem
Cherukuri, Kesava Phaneendra
Ashani, Yacov
Eliason, Or
Sperfeld, Martin
Leader, Haim
Castelli, Andrea
Fumagalli, Laura
Savidor, Alon
Levin, Yishai
Longo, Liam M
Segev, Einat
Tawfik, Dan S
description Anthropogenic organophosphorus compounds (AOPCs), such as phosphotriesters, are used extensively as plasticizers, flame retardants, nerve agents, and pesticides. To date, only a handful of soil bacteria bearing a phosphotriesterase (PTE), the key enzyme in the AOPC degradation pathway, have been identified. Therefore, the extent to which bacteria are capable of utilizing AOPCs as a phosphorus source, and how widespread this adaptation may be, remains unclear. Marine environments with phosphorus limitation and increasing levels of pollution by AOPCs may drive the emergence of PTE activity. Here, we report the utilization of diverse AOPCs by four model marine bacteria and 17 bacterial isolates from the Mediterranean Sea and the Red Sea. To unravel the details of AOPC utilization, two PTEs from marine bacteria were isolated and characterized, with one of the enzymes belonging to a protein family that, to our knowledge, has never before been associated with PTE activity. When expressed in with a phosphodiesterase, a PTE isolated from a marine bacterium enabled growth on a pesticide analog as the sole phosphorus source. Utilization of AOPCs may provide bacteria a source of phosphorus in depleted environments and offers a prospect for the bioremediation of a pervasive class of anthropogenic pollutants.
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subjects Anthropogenic factors
Aquatic Organisms - enzymology
Bacteria
Bacteria - enzymology
Biodegradation, Environmental
Biological Sciences
Bioremediation
E coli
Environmental Pollutants - metabolism
Escherichia coli - genetics
Escherichia coli - metabolism
Flame retardants
Indian Ocean
Marine environment
Marine pollution
Mediterranean Sea
Nerve agents
Organophosphorus compounds
Organophosphorus Compounds - metabolism
Pesticides
Phosphodiesterase
Phosphoric Triester Hydrolases - genetics
Phosphoric Triester Hydrolases - metabolism
Phosphorus
Phosphorus - metabolism
Phosphotriesterase
Pollutants
Pollution levels
Seawater - microbiology
Soil bacteria
Soil microorganisms
Utilization
title Utilization of diverse organophosphorus pollutants by marine bacteria
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