Biologically, glucose provides the most ATP when broken down through cellular respiration. Each glucose molecule can yield up to 36-38 ATP molecules depending on the efficiency of the process.
Most of a cell's ATP is produced by the process of oxidative phosphorylation in the mitochondria. During this process, energy from the breakdown of glucose and other nutrients is used to generate ATP.
Gross yield of ATP during glycolysis: 4Net yield of ATP during glycolysis: 2 (anaerobic glycolysis of a glucose molecule took 2 ATP to accomplish so subtract 2 ATP from your gross yield of 4...therefore it's 2 for net yield).Kreb cycle: produces a total of 2ATP (one each time it happens and it happens twice).
In glycolysis of cellular respiration, NADH produces 2ATP because one ATP is used to transport a molecule of NADH into the mitochondria and continue with aerobic respiration. However, in pyruvate decarboxylation and the Krebs cycle, each NADH yields 3ATPs. FADH2 yields 2 ATPs.
The theoretical ATP yield of aerobic respiration is 36-38 ATP molecules per glucose molecule. This occurs through a series of metabolic pathways such as glycolysis, the citric acid cycle, and oxidative phosphorylation in the mitochondria.
aerobic(36 ATP)
Yes, glycolysis, citric acid cycle, and electron transport chain each release certain amount of ATP.
Biologically, glucose provides the most ATP when broken down through cellular respiration. Each glucose molecule can yield up to 36-38 ATP molecules depending on the efficiency of the process.
Most of a cell's ATP is produced by the process of oxidative phosphorylation in the mitochondria. During this process, energy from the breakdown of glucose and other nutrients is used to generate ATP.
Gross yield of ATP during glycolysis: 4Net yield of ATP during glycolysis: 2 (anaerobic glycolysis of a glucose molecule took 2 ATP to accomplish so subtract 2 ATP from your gross yield of 4...therefore it's 2 for net yield).Kreb cycle: produces a total of 2ATP (one each time it happens and it happens twice).
2 ATP
FADH yields 2 ATP .
The most ATP are produced during the last stage of cellular respiration-- the electron transport chain which involves chemiosmosisThe theoretical yield for eukaryotes is 36 ATP per glucose moleculeOne ATP generated for each proton pump activatedMultiplied by 2=2 two pyruvates from glucose= 10 NADH = 2 glycolysis + 2 oxidation of pyruvate (2) + 6 from Krebs2 FADH22 ATP from glycolysis + 2 ATP from Krebs10 x3=30 ATP from NADH + 2x2=4 ATP from FADH2 + 4 ATP= 38 ATP producedAccurate for bacteria not eukaryotes= NADH in cytoplasm from glycolysis need 1 ATP/NADH molecule36 potential yield
yes
Correct answer: 2
Only two ATP is yield of Krebs cycle .
No