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Certain aspects of uncoupling due to mitochondrial uncoupling proteins in vitro and in vivo
Dlasková A, Spacek T, Skobisová E, Santorová J, Jezek P.
Language English Country Netherlands
Document type Review
- MeSH
- Cell Respiration MeSH
- Financing, Organized MeSH
- Guanosine Triphosphate metabolism MeSH
- Adipose Tissue, Brown metabolism MeSH
- Ion Channels MeSH
- Carnitine metabolism MeSH
- Plant Roots metabolism MeSH
- Zea mays metabolism MeSH
- Lauric Acids pharmacology metabolism MeSH
- Fatty Acids metabolism MeSH
- Membrane Proteins physiology MeSH
- Mitochondrial Proteins MeSH
- Mitochondria metabolism MeSH
- Oxidative Stress MeSH
- Hydrogen Peroxide metabolism MeSH
- Reactive Oxygen Species metabolism MeSH
- Plant Proteins physiology MeSH
- Uncoupling Agents pharmacology metabolism MeSH
- Mammals MeSH
- In Vitro Techniques MeSH
- Carrier Proteins physiology MeSH
- Binding Sites MeSH
- Plant Shoots metabolism MeSH
- Animals MeSH
- Check Tag
- Animals MeSH
- Publication type
- Review MeSH
Thermogenic uncoupling has been proven only for UCP1 in brown adipose tissue. All other isoforms of UCPs are potentially acting in suppression of mitochondrial reactive oxygen species (ROS) production. In this contribution we show that BAT mitochondria can be uncoupled by lauric acid in the range of approximately 100 nM when endogenous fatty acids are combusted by carnitine cycle and beta-oxidation is properly separated from the uncoupling effect. Respiration increased up to 3 times when related to the lowest fatty acid content (BSA present plus carnitine cycle). We also illustrated that any effect leading to more coupled states leads to enhanced H2O2 generation and any effect resulting in uncoupling gives reduced H2O2 generation in BAT mitochondria. Finally, we report doubling of plant UCP transcript in cells as well as amount of protein detected by 3H-GTP-binding sites in mitochondria of shoots and roots of maize seedlings subjected to the salt stress.
References provided by Crossref.org
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- $a Thermogenic uncoupling has been proven only for UCP1 in brown adipose tissue. All other isoforms of UCPs are potentially acting in suppression of mitochondrial reactive oxygen species (ROS) production. In this contribution we show that BAT mitochondria can be uncoupled by lauric acid in the range of approximately 100 nM when endogenous fatty acids are combusted by carnitine cycle and beta-oxidation is properly separated from the uncoupling effect. Respiration increased up to 3 times when related to the lowest fatty acid content (BSA present plus carnitine cycle). We also illustrated that any effect leading to more coupled states leads to enhanced H2O2 generation and any effect resulting in uncoupling gives reduced H2O2 generation in BAT mitochondria. Finally, we report doubling of plant UCP transcript in cells as well as amount of protein detected by 3H-GTP-binding sites in mitochondria of shoots and roots of maize seedlings subjected to the salt stress.
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