%0 Journal Article %1 CAMPBELL201897 %A Campbell, Kate %A Herrera-Dominguez, Lucia %A Correia-Melo, Clara %A Zelezniak, Aleksej %A Ralser, Markus %D 2018 %J Current Opinion in Systems Biology %K communities metabolic-networks metabolism metabolomics %P 97 - 108 %R https://doi.org/10.1016/j.coisb.2017.12.001 %T Biochemical principles enabling metabolic cooperativity and phenotypic heterogeneity at the single cell level %U http://www.sciencedirect.com/science/article/pii/S2452310017301828 %V 8 %X All biosynthetically active cells release metabolites, in part due to membrane leakage and cell lysis, but also in part due to overflow metabolism and ATP-dependent membrane export. At the same time, cells are adapted to sense and take up extracellular nutrients when available, to minimize the number of biochemical reactions that have to operate within a cell in parallel, and ultimately, to gain metabolic efficiency and biomass. Within colonies, biofilms or tissues, the co-occurrence of metabolite export and import enables the sharing of metabolites as well as metabolic specialization of single cells. In this review we discuss emerging biochemical concepts that give reasoning for why cells overproduce and release metabolites, and how these form the foundations for cooperative metabolite exchange activity between cells. We place particular emphasis on discussing the role of overflow metabolism in cells that exhibit either the Warburg or Crabtree effect. Furthermore, we discuss the profound physiological changes that cells undergo when their metabolism switches from metabolite synthesis to uptake, providing an explanation why metabolic specialization results in non-genotypic heterogeneity at the single cell level.

@article{CAMPBELL201897, abstract = {All biosynthetically active cells release metabolites, in part due to membrane leakage and cell lysis, but also in part due to overflow metabolism and ATP-dependent membrane export. At the same time, cells are adapted to sense and take up extracellular nutrients when available, to minimize the number of biochemical reactions that have to operate within a cell in parallel, and ultimately, to gain metabolic efficiency and biomass. Within colonies, biofilms or tissues, the co-occurrence of metabolite export and import enables the sharing of metabolites as well as metabolic specialization of single cells. In this review we discuss emerging biochemical concepts that give reasoning for why cells overproduce and release metabolites, and how these form the foundations for cooperative metabolite exchange activity between cells. We place particular emphasis on discussing the role of overflow metabolism in cells that exhibit either the Warburg or Crabtree effect. Furthermore, we discuss the profound physiological changes that cells undergo when their metabolism switches from metabolite synthesis to uptake, providing an explanation why metabolic specialization results in non-genotypic heterogeneity at the single cell level.}, added-at = {2019-04-28T17:45:55.000+0200}, author = {Campbell, Kate and Herrera-Dominguez, Lucia and Correia-Melo, Clara and Zelezniak, Aleksej and Ralser, Markus}, biburl = {https://www.bibsonomy.org/bibtex/2f3efeb9217ae87685df853e76616a46f/karthikraman}, description = {Biochemical principles enabling metabolic cooperativity and phenotypic heterogeneity at the single cell level - ScienceDirect}, doi = {https://doi.org/10.1016/j.coisb.2017.12.001}, interhash = {5e0ad48b8e8aa1e858337f886876feaa}, intrahash = {f3efeb9217ae87685df853e76616a46f}, issn = {2452-3100}, journal = {Current Opinion in Systems Biology}, keywords = {communities metabolic-networks metabolism metabolomics}, note = {• Regulatory and metabolic networks • Special Section: Single cell and noise}, pages = {97 - 108}, timestamp = {2019-04-28T17:45:55.000+0200}, title = {Biochemical principles enabling metabolic cooperativity and phenotypic heterogeneity at the single cell level}, url = {http://www.sciencedirect.com/science/article/pii/S2452310017301828}, volume = 8, year = 2018 }