Glucose is C6H12O6
Complete oxidation produces only carbon dioxide and water (using atmospheric oxygen).
From glucose, six water molecules can be produced, since water contains two hydrogen atoms per molecule, and there are twelve of these in glucose.
n = m/Mr
This equation describes the relationship between the number of moles (n), the mass (m) and the relative molecular mass (Mr).
Mr of glucose is 6x12 + 12x1 + 6x16 = 180 g/mol, because Mr is the sum of the atomic masses of each atom.
Therefore n = 1/180 moles.
We have already determined that one molecule of glucose is oxidised into six water molecules. Therefore, one mole of glucose will also be oxidised into six moles of water, since a mole is an absolute quantity.
If we have 1/180th of a mole of glucose, it can be oxidised into 6 x 1/180th of a mole. This is 6/180 = 1/30th mole of water.
Mr of water is 16+1+1 = 18 g/mol.
We have 1/30 mol.
Using n = m/Mr, rearranged for m (so now m = n x Mr):
m = 1/30 x 18
m = 18/30 = 3/5 g
From one gram of glucose, we can oxidise it to produce 0.6 grams of water.
If cellular respiration begins with two molecules of glucose, a total of about 76 molecules of ATP can be generated through the process of glycolysis, the citric acid cycle, and oxidative phosphorylation. This is because each molecule of glucose yields approximately 38 molecules of ATP through the complete process of cellular respiration.
The net number of ATP molecules produced from the complete oxidation of lauric acid (C12:0) is approximately 106 ATP molecules. This is based on the beta-oxidation process that occurs in the mitochondria, generating ATP through the electron transport chain and oxidative phosphorylation.
The complete oxidation of one mole of lactose yields 30 moles of ATP through aerobic respiration. This occurs due to the breakdown of lactose into glucose and galactose, which are then metabolized to produce ATP through glycolysis, the Krebs cycle, and the electron transport chain.
40
64 net...68 are produced overall but 2 ATP's are used in the reaction per molecule of glucose.
The complete oxidation of one molecule of glucose produces 36-38 ATP. Therefore, the complete oxidation of 3 molecules of glucose would produce 108-114 ATP in total.
The actual number of ATP produced from the complete oxidation of one molecule of glucose is around 30-32 ATP molecules. This includes ATP generated through glycolysis, the Krebs cycle, and oxidative phosphorylation in the mitochondria.
If cellular respiration begins with two molecules of glucose, a total of about 76 molecules of ATP can be generated through the process of glycolysis, the citric acid cycle, and oxidative phosphorylation. This is because each molecule of glucose yields approximately 38 molecules of ATP through the complete process of cellular respiration.
The net number of ATP molecules produced from the complete oxidation of lauric acid (C12:0) is approximately 106 ATP molecules. This is based on the beta-oxidation process that occurs in the mitochondria, generating ATP through the electron transport chain and oxidative phosphorylation.
The complete oxidation of one mole of lactose yields 30 moles of ATP through aerobic respiration. This occurs due to the breakdown of lactose into glucose and galactose, which are then metabolized to produce ATP through glycolysis, the Krebs cycle, and the electron transport chain.
Through complete oxidation of glucose, a total of 36-38 molecules of ATP are generated. This process occurs through several stages, including glycolysis, the citric acid cycle, and oxidative phosphorylation.
After the completion of oxidation of lactate, 2 ATP molecules are produced. Lactate is then sent to the liver to be turned back into glycolysis.
The balanced equation for the complete oxidation of acetylene (C2H2) burning in air is: 2C2H2 + 5O2 -> 4CO2 + 2H2O. This equation shows that two molecules of acetylene react with five molecules of oxygen to produce four molecules of carbon dioxide and two molecules of water.
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The latest estimate of the total number of net ATP molecules that can be maximally generated by the complete aerobic respiration of glucose is approximately 30-32 ATP molecules. This value can vary slightly depending on the specific conditions and efficiency of the process.
The answer is 5. An acetyl group (containing two C atoms) is split off the original fatty acyl-SCoA with each repetition of the beta-oxidation spiral. Therefore, the first repetition of the beta-oxidation yields one acetyl-SCoA molecule and a fatty acyl-SCoA molecule that is two carbon atoms shorter than the initial fatty acyl-SCoA. There will be five acetyl-SCoA molecules produced by the fifth repetition.
approximately 40%