View source for Buettner 2013 Cell Biochem Biophys

{{Publication
|title=Buettner GR, Wagner BA, Rodgers VG (2013) Quantitative redox biology: an approach to understand the role of reactive species in defining the cellular redox environment. Cell Biochem Biophys 67:477-83.
|info=[https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3661692/ Open access]
|authors=Buettner GR, Wagner BA, Rodgers VG
|year=2013
|journal=Cell Biochem Biophys
|abstract=Systems biology is now recognized as a needed approach to understand the dynamics of inter- and intra-cellular processes. Redox processes are at the foundation of nearly all aspects of biology. Free radicals, related oxidants, and antioxidants are central to the basic functioning of cells and tissues. They set the cellular redox environment and therefore are key to regulation of biochemical pathways and networks, thereby influencing organism health. To understand how short-lived, quasi-stable species, such as superoxide, hydrogen peroxide, and nitric oxide, connect to the metabolome, proteome, lipidome, and genome we need absolute quantitative information on all redox active compounds as well as thermodynamic and kinetic information on their reactions, i.e. knowledge of the complete redoxome. Central to the state of the redoxome are the interactive details of the superoxide/peroxide formation and removal systems. Quantitative information is essential to establish the dynamic mathematical models needed to reveal the temporal evolution of biochemical pathways and networks. This new field of Quantitative Redox Biology will allow researchers to identify new targets for intervention to advance our efforts to achieve optimal human health.
|keywords=Quantitative redox biology, free radicals, antioxidants, redoxome, Nernst equation
|editor=[[Sobotka O]]
}}
== Cited by ==
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{{Labeling
|area=Comparative MiP;environmental MiP
|additional=MitoFit 2021 AmR-O2
}}