6
Three turns of the Calvin Cycle are required to produce a G3P molecule that can be utilized in the synthesis of glucose.
Six turns of the Calvin cycle are required to produce a molecule of glucose.
Two repeats of the Calvin Cycle are required to produce one glucose molecule.
Six turns of the Calvin Cycle are required to produce one glucose molecule.
Six turns of the Calvin Cycle are required to produce one molecule of glucose.
Three turns of the Calvin Cycle are required to produce a G3P molecule that can be utilized in the synthesis of glucose.
Six turns of the Calvin cycle are required to produce a molecule of glucose.
Two repeats of the Calvin Cycle are required to produce one glucose molecule.
Six turns of the Calvin Cycle are required to produce one glucose molecule.
Six turns of the Calvin Cycle are required to produce one molecule of glucose.
Six turns of the Calvin Cycle are required to produce one molecule of glucose.
Six molecules of G3P are required to produce one molecule of glucose during the Calvin cycle.
The glucose molecule is required for aerobic conditions. Glucose is broken down into molecules that along with oxygen enter the citric acid cycle. This produces energy during aerobic conditions.
During the Calvin cycle, 6 molecules of carbon dioxide (CO2) are needed to produce one molecule of glucose because glucose contains 6 carbon atoms. Each carbon dioxide molecule contributes one carbon atom to the glucose molecule through a series of chemical reactions in the Calvin cycle.
The Krebs cycle runs twice for each molecule of glucose consumed.
Two turns of the citric acid cycle are required for a single glucose molecule to be fully metabolized. This is because one glucose molecule is broken down into two molecules of pyruvate during glycolysis, and each pyruvate molecule enters the citric acid cycle to produce energy.
twice