Cytoprotective metal-organic frameworks for anaerobic bacteria

We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the d...

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Published in	Proceedings of the National Academy of Sciences - PNAS Vol. 115; no. 42; pp. 10582 - 10587
Main Authors	Ji, Zhe, Zhang, Hao, Liu, Hao, Yaghi, Omar M., Yang, Peidong
Format	Journal Article
Language	English
Published	United States National Academy of Sciences 16.10.2018 National Academy of Sciences, Washington, DC (United States)
Subjects	Acetic acid Anaerobic bacteria artificial photosynthesis Bacteria BASIC BIOLOGICAL SCIENCES Carbon dioxide Carbon dioxide fixation Carbon sequestration Catalysis Catalytic activity Cell surface Cell Survival cell wrapping Clusters Cytoprotection Decomposition Decomposition reactions Elongation High definition Metal-organic frameworks Metal-Organic Frameworks - chemistry Metals Monolayers Moorella - growth & development Nanoparticles Oxidative Stress Photosynthesis Physical Sciences Reactive oxygen species Surface Properties Thickness Zirconia Zirconium Zirconium - chemistry Zirconium dioxide artificial photosynthesis anaerobic bacteria cell wrapping reactive oxygen species metal-organic frameworks
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Abstract	We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O₂, and enables the cytoprotected bacteria to continuously produce acetate from CO₂ fixation under oxidative stress. The high definition of the MOF–bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles.
AbstractList	We report a strategy to uniformly wrap bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O , and enables the cytoprotected bacteria to continuously produce acetate from CO fixation under oxidative stress. The high definition of the MOF-bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles. We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O 2 , and enables the cytoprotected bacteria to continuously produce acetate from CO 2 fixation under oxidative stress. The high definition of the MOF–bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles. We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O₂, and enables the cytoprotected bacteria to continuously produce acetate from CO₂ fixation under oxidative stress. The high definition of the MOF–bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles. We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O2, and enables the cytoprotected bacteria to continuously produce acetate from CO2 fixation under oxidative stress. The high definition of the MOF–bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles. We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O2, and enables the cytoprotected bacteria to continuously produce acetate from CO2 fixation under oxidative stress. The high definition of the MOF-bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles.We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O2, and enables the cytoprotected bacteria to continuously produce acetate from CO2 fixation under oxidative stress. The high definition of the MOF-bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles. Culturing bacteria to produce desired chemicals has long been practiced in human history, and has recently being taken as a promising approach to sustainable energy when this process is driven by sunlight and fed by CO 2 as the only carbon source. Among these chemical-producing microbes are anaerobic bacteria, inherently susceptible to O 2 and reactive oxygen species that are inevitably generated on anodes. Here, we provide cytoprotection against such oxidative stress by wrapping bacteria with an artificial material, metal-organic frameworks (MOFs), which significantly enhances the lifetime of anaerobes in the presence of O 2 , and maintains the continuous production of acetic acid from CO 2. The ultrathin nature of the MOF layer allows for cell reproduction without loss of this cytoprotective material. We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O 2 , and enables the cytoprotected bacteria to continuously produce acetate from CO 2 fixation under oxidative stress. The high definition of the MOF–bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. The open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles. We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial photosynthesis. The catalytic activity of the MOF enclosure toward decomposition of reactive oxygen species (ROS) reduces the death of strictly anaerobic bacteria by fivefold in the presence of 21% O2, and enables the cytoprotected bacteria to continuously produce acetate from CO2 fixation under oxidative stress. The high definition of the MOF–bacteria interface involving direct bonding between phosphate units on the cell surface and zirconium clusters on MOF monolayer, provides for enhancement of life throughout reproduction. The dynamic nature of the MOF wrapping allows for cell elongation and separation, including spontaneous covering of the newly grown cell surface. Finally, the open-metal sites on the zirconium clusters lead to 600 times more efficient ROS decomposition compared with zirconia nanoparticles.
Author	Liu, Hao Ji, Zhe Yang, Peidong Zhang, Hao Yaghi, Omar M.
Author_xml	– sequence: 1 givenname: Zhe surname: Ji fullname: Ji, Zhe organization: Materials Sciences Division, Lawrence Berkeley National Laboratory, Berkeley, CA 94720 – sequence: 2 givenname: Hao surname: Zhang fullname: Zhang, Hao organization: Department of Chemistry, University of California, Berkeley, CA 94720 – sequence: 3 givenname: Hao surname: Liu fullname: Liu, Hao organization: Department of Chemistry, University of California, Berkeley, CA 94720 – sequence: 4 givenname: Omar M. surname: Yaghi fullname: Yaghi, Omar M. organization: Materials Sciences Division, Lawrence Berkeley National Laboratory, Berkeley, CA 94720 – sequence: 5 givenname: Peidong surname: Yang fullname: Yang, Peidong organization: Materials Sciences Division, Lawrence Berkeley National Laboratory, Berkeley, CA 94720
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ContentType	Journal Article
Copyright	Volumes 1–89 and 106–115, copyright as a collective work only; author(s) retains copyright to individual articles Copyright © 2018 the Author(s). Published by PNAS. Copyright National Academy of Sciences Oct 16, 2018 Copyright © 2018 the Author(s). Published by PNAS. 2018
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Keywords	artificial photosynthesis anaerobic bacteria cell wrapping reactive oxygen species metal-organic frameworks
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Notes	ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 14 content type line 23 National Aeronautics and Space Administration (NASA) AC02-05CH11231 USDOE Office of Science (SC) 1Z.J. and H.Z. contributed equally to this work. Reviewers: J.C., Yonsei University; and W.R.D., Northwestern University. Author contributions: Z.J., H.Z., O.M.Y., and P.Y. designed research; Z.J., H.Z., and H.L. performed research; Z.J., H.Z., and H.L. contributed new reagents/analytic tools; Z.J., H.Z., O.M.Y., and P.Y. analyzed data; and Z.J., H.Z., O.M.Y., and P.Y. wrote the paper. Contributed by Peidong Yang, August 24, 2018 (sent for review June 4, 2018; reviewed by Jinwoo Cheon and William R. Dichtel)
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Snippet	We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection... We report a strategy to uniformly wrap Morella thermoacetica bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection... We report a strategy to uniformly wrap bacteria with a metal-organic framework (MOF) monolayer of nanometer thickness for cytoprotection in artificial... Culturing bacteria to produce desired chemicals has long been practiced in human history, and has recently being taken as a promising approach to sustainable...
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SubjectTerms	Acetic acid Anaerobic bacteria artificial photosynthesis Bacteria BASIC BIOLOGICAL SCIENCES Carbon dioxide Carbon dioxide fixation Carbon sequestration Catalysis Catalytic activity Cell surface Cell Survival cell wrapping Clusters Cytoprotection Decomposition Decomposition reactions Elongation High definition Metal-organic frameworks Metal-Organic Frameworks - chemistry Metals Monolayers Moorella - growth & development Nanoparticles Oxidative Stress Photosynthesis Physical Sciences Reactive oxygen species Surface Properties Thickness Zirconia Zirconium Zirconium - chemistry Zirconium dioxide
Title	Cytoprotective metal-organic frameworks for anaerobic bacteria
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