Linked from

The 33 pages that link to Citric acid cycle, each with the reason it gives.

• Citric acidRelated: Citric acid is a central intermediate in this metabolic pathway, though it is not its only role.

• Nicotinamide adenine dinucleotideRelated: Several cycle reactions reduce NAD⁺ to NADH as carbon is oxidized.

• Acetyl-CoARelated: It accepts acetyl-CoA to begin oxidation of the acetyl group.

• GluconeogenesisRelated: Its intermediates can supply carbon for gluconeogenesis, though the cycle itself oxidizes fuel.

• Aerobic respirationRelated: It generates most of the NADH and FADH₂ that feed the respiratory chain.

• Coenzyme ARelated: Acetyl-CoA supplies the acetyl group that enters the cycle.

• Adenosine diphosphateRelated: Its substrate-level phosphorylation can convert ADP to ATP in some tissues.

• NADHRelated: Several of its reactions produce NADH for mitochondrial respiration.

• Albert Szent-GyörgyiRelated: His work on fumaric acid anticipated later understanding of cyclic pathways in cellular oxidation.

• Malic acidRelated: Malate is oxidized to oxaloacetate in the cycle's final reaction.

• Acetic acid fermentationRelated: It can support further oxidation of acetate after ethanol-derived acetic acid accumulates.

• CoenzymeRelated: NAD⁺, FAD, and coenzyme A participate in its linked reactions.

• Methylmalonic acidRelated: The pathway connects methylmalonic acid metabolism to cellular energy production through succinyl-CoA.

• Pantothenic acidRelated: Pantothenic acid enters the cycle in acetyl-CoA, a key carbon input.

• Pyruvic acidRelated: Pyruvate supplies acetyl-CoA to the cycle after oxidative decarboxylation.

• MitochondriaRelated: It supplies NADH and FADH₂ to the mitochondrial electron transport chain.