Six CO2 molecules will be produced for every glucose molecule completely oxidized. Glucose contains six Carbon atoms, hence the six CO2 molecules.
In the decarboxylation of Pyruvate to form Acetyl CoA, one Carbon atom is lost as co2. Acetyl CoA can then be used in the citric acid cycle in which another two co2 molecules are produced. It is important to note however, that neither Pyruvate nor Acetyl CoA will necessarily follow this pathway, since they are also required for various other processes.
2 molecules are produced
During photosynthesis, water, carbon dioxide, and light come together in the cells to create the molecule called glucose. During cellular respiration, the glucose is broken down into 36 to 38 molecules of Adenosine Triphosphate, or ATP, which is used to provide energy to the organism.
Glucose is the beginning molecule that begins the cascade of events that produces energy for the cell.
Technically sunlight would be an inorganic material so it would be yes to both. In general, autotrophs make their own molecules using inorganic materials. Phototrophs, a subset of autotrophs, use sunlight specifically to make their organic molecules
Two molecules of ATP are consumed in the energy investment phase, while four molecules of ATP and two molecules of NADH are produced in the energy payoff phase. This results in a net gain of two molecules of ATP per molecule of glucose oxidized to pyruvate.
For every molecule of glucose oxidized in the citric acid cycle, 6 molecules of carbon dioxide are produced. Glucose is a 6-carbon molecule that is completely oxidized to carbon dioxide in this cycle. Therefore, the fraction of carbon dioxide exhaled by animals that is generated by the citric acid cycle is 100%.
It means that when one molecule of glucose is completely broken down by the process of aerobic cellular respiration, 38 molecules of ATP are produced.
The maximum number of ATP per molecule of glucose is produced during the Kreb's Cycle of cellular respiration.
One molecule of glucose is broken down into two molecules of pyruvate during glycolysis. Each pyruvate molecule then enters the Krebs cycle and is fully oxidized to produce three molecules of carbon dioxide. Therefore, in total, six molecules of carbon dioxide are produced when the Krebs cycle operates once.
Krebs cycle yields very little ATP energy. Some of the important products of this cycle are NADH, FADH2, and CO2. Most of the ATP energy will be synthesized in electron transport chain.
The number of ATPs that can be produced from a molecule of protein, fat, or carbohydrate is related to the number of carbon atoms present in the molecule. During cellular respiration, the carbon atoms in these molecules are oxidized to release energy, which is used to generate ATP through the electron transport chain.
During cellular respiration, one molecule of sugar (glucose) can produce up to 6 molecules of oxygen when completely oxidized through the process of aerobic respiration. This is because oxygen is used as the final electron acceptor in the electron transport chain, where it combines with electrons and protons to form water.
Glucose is oxidized to generate two molecules of pyruvate in the process of glycolysis. During glycolysis, ATP is produced through substrate-level phosphorylation and NADH is generated by oxidizing NAD^+.
34 ATP molecules are produced by the end of the electron transport chain.
During the Krebs cycle, one molecule of water (H2O) is produced for each round of the cycle. At the end of the cycle, a total of two molecules of water per molecule of glucose are generated.
With the production of one molecule of sugar six molecules of oxygen are produced during photosynthesis.