34
34
Approximately 28-32 ATP molecules are produced from one glucose molecule during the electron transport chain in cellular respiration. This number can vary slightly depending on specific factors such as the efficiency of the electron transport chain and the cell type.
The maximum number of ATP molecules that can be produced from each glucose molecule in aerobic respiration is 36-38 ATP molecules. This occurs through glycolysis, the citric acid cycle, and the electron transport chain.
32
34 ATP molecules are produced by the end of the electron transport chain.
30 from one glucose molecule breakdown
The greatest number of ATP molecules is produced in the electron transport chain during cellular respiration. This process occurs in the inner mitochondrial membrane and results in the production of up to 34 ATP molecules per glucose molecule.
The estimated energy produced in the electron transport chain (ETC) from one glucose molecule is around 30-32 ATP molecules. This ATP production occurs through a series of redox reactions driven by electron transport and proton pumping across the inner mitochondrial membrane.
In the presence of oxygen, one glucose molecule can produce a total of 36-38 molecules of ATP through cellular respiration. This process involves glycolysis, the Krebs cycle, and the electron transport chain.
Approximately 30-32 ATP molecules are produced through cellular respiration for each glucose molecule burned, depending on factors such as the efficiency of ATP production in the electron transport chain.
During glycolysis, a net gain of two ATP molecules is produced per glucose molecule. In the citric acid cycle, a total of 2 ATP molecules are produced per glucose molecule. Finally, during oxidative phosphorylation, approximately 34 ATP molecules are produced per glucose molecule through the electron transport chain. This results in a total of about 38 ATP molecules gained per glucose molecule during cellular respiration.
When glucose is used as the energy source the largest amount of ATP is produced during complete oxidative respiration by utilizing the efficiencies of the electron transport chain. Other metabolic pathways like fermentation capture only a small fraction of potential energy compared to oxidative respiration.