Advances in linking single cell bacterial stress response to population level survival Short title: Single cell and population level stress response
Stress response mechanisms can allow bacteria to survive a myriad of challenges including nutrient changes, antibiotic encounters, and antagonistic interactions with other microbes. Expression of these stress response pathways, in addition to other cell features such as growth rate and metabolic sta...
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Veröffentlicht in: | Current opinion in biotechnology 2023-01, Vol.79, p.102885-102885 |
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description | Stress response mechanisms can allow bacteria to survive a myriad of challenges including nutrient changes, antibiotic encounters, and antagonistic interactions with other microbes. Expression of these stress response pathways, in addition to other cell features such as growth rate and metabolic state, can be heterogeneous across cells and over time. Collectively, these single cell level phenotypes contribute to an overall population level response to stress. These include diversifying actions, which can be used to enable bet-hedging, and coordinated actions, such as biofilm production, horizontal gene transfer, and cross-feeding. Here, we highlight recent results and emerging technologies focused on both single cell and population level responses to stressors, and we draw connections about the combined impact of these effects on survival of bacterial communities. |
doi_str_mv | 10.1016/j.copbio.2022.102885 |
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title | Advances in linking single cell bacterial stress response to population level survival Short title: Single cell and population level stress response |
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