10 public questions tagged with this topic.
During alcoholic fermentation, pyruvate is converted into ethanol and carbon dioxide.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Fermentation - Alcoholic and Lactic Acid and Amphibolic Pathway
Pyruvate decarboxylase catalyzes the conversion of pyruvate into ethanol during alcoholic fermentation.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Fermentation - Alcoholic and Lactic Acid and Amphibolic Pathway
Under anaerobic conditions, pyruvate is converted into lactic acid in muscle cells through lactic acid fermentation.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Fermentation - Alcoholic and Lactic Acid and Amphibolic Pathway
NAD⁺ is required to accept electrons during the oxidative decarboxylation of pyruvate to Acetyl-CoA.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Electron Transport System and Oxidative Phosphorylation
Pyruvate dehydrogenase catalyzes the oxidative decarboxylation of pyruvate to form Acetyl-CoA.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Glycolysis - EMP Pathway and Link Reaction
Glycolysis produces pyruvic acid, which then enters either fermentation or aerobic respiration.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Glycolysis - EMP Pathway and Link Reaction
Pyruvate, produced in glycolysis, enters the mitochondria to undergo oxidation in the link reaction and the Krebs cycle.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Glycolysis - EMP Pathway and Link Reaction
The link reaction converts pyruvate to Acetyl-CoA by oxidative decarboxylation before entering the Krebs cycle.
Ref: NCERT Class 11 Biology Chapter 12: Respiration in Plants Glycolysis - EMP Pathway and Link Reaction
Alcohol dehydrogenase catalyzes the conversion of pyruvate into ethanol during fermentation.
Ref: NCERT Class 11 Biology Chapter 9: Biomolecules Enzymes - Properties Classification and Cofactors
Exergonic is the scientifically accurate answer to this question. Within the study of Bioenergetics, this concept is well-established through extensive research and is documented in standard scientific literature. The specific properties, mechanisms, or characteristics of Exergonic directly address what is being asked. Among the other options, Endergonic, At equilibrium, and Irreversible do not correctly answer this question because they either refer to different concepts, describe properties of other molecules or processes, or represent common misconceptions about this topic.
Ref: Campbell Biology, Urry et al., 12th Ed.
