One-carbon metabolism
From Proteopedia
(Difference between revisions)
(New page: One-carbon metabolism refers to reactions that transfer a single carbon. Typically, these reactions are catalyzed by enzymes using vitamin-derived cofactors or prosthetic groups such a...) |
|||
Line 1: | Line 1: | ||
- | [[One-carbon metabolism]] refers to reactions that transfer a single carbon. Typically, these reactions are catalyzed by enzymes using vitamin-derived cofactors or prosthetic groups such as S-adenosyl methionine, tetrahydrofolate, cobalamin or biotin. The transfered carbon may have various oxidation states and end up as different functional groups such as methyl, methenyl, formyl, or carboxylate. One-carbon transfer reactions play a role in amino acid and nucleid acid biosynthesis, in epigenetics and cellular redox status. | + | [[One-carbon metabolism]] refers to reactions that transfer a single carbon. Typically, these reactions are catalyzed by enzymes using vitamin-derived cofactors or prosthetic groups such as S-adenosyl methionine, tetrahydrofolate, cobalamin or biotin. The transfered carbon may have various oxidation states and end up as different functional groups such as methyl, methenyl, formyl, or carboxylate. One-carbon transfer reactions play a role in amino acid and nucleid acid biosynthesis, in epigenetics and cellular redox status <ref>DOI:10.1016/j.cmet.2016.08.00</ref>. |
+ | This article is a work in process during the Spring 2022 semester. | ||
- | + | <references/> | |
- | + | ||
- | + |
Revision as of 21:45, 3 March 2022
One-carbon metabolism refers to reactions that transfer a single carbon. Typically, these reactions are catalyzed by enzymes using vitamin-derived cofactors or prosthetic groups such as S-adenosyl methionine, tetrahydrofolate, cobalamin or biotin. The transfered carbon may have various oxidation states and end up as different functional groups such as methyl, methenyl, formyl, or carboxylate. One-carbon transfer reactions play a role in amino acid and nucleid acid biosynthesis, in epigenetics and cellular redox status [1].
This article is a work in process during the Spring 2022 semester.