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FADH2 and NADH
Cellular Respiration is the process in the cell that creates energy (ATP). Cellular Respiration is broken up into three stages; Glycolysis, the Krebs Cycle, and the Electron Transport Chain. Glycolysis takes place in the cytoplasm of the cell and is responsible for the net formation of 2 ATP molecules. The process then enters the matrix of the mitochondria where the Krebs Cycle takes place. The Krebs Cycle is responsible for the formation of 4 ATP molecules. Finally, the Electron Transport Chain is responsible for the formation of 30 ATP molecules. Therefore, for each cycle of cellular respiration, 36 molecules of ATP are produced in the cell.
A large molecule that can not enter the cell through myosis enters the cell through by endocytosis. Endocytosis is an example of active transport.
Pyruvic acid enters and carbon dioxide exits.
thyroxine
FADH2 and NADH
Cellular Respiration is the process in the cell that creates energy (ATP). Cellular Respiration is broken up into three stages; Glycolysis, the Krebs Cycle, and the Electron Transport Chain. Glycolysis takes place in the cytoplasm of the cell and is responsible for the net formation of 2 ATP molecules. The process then enters the matrix of the mitochondria where the Krebs Cycle takes place. The Krebs Cycle is responsible for the formation of 4 ATP molecules. Finally, the Electron Transport Chain is responsible for the formation of 30 ATP molecules. Therefore, for each cycle of cellular respiration, 36 molecules of ATP are produced in the cell.
Cellular Respiration is the process in the cell that creates energy (ATP). Cellular Respiration is broken up into three stages; Glycolysis, the Krebs Cycle, and the Electron Transport Chain. Glycolysis takes place in the cytoplasm of the cell and is responsible for the net formation of 2 ATP molecules. The process then enters the matrix of the mitochondria where the Krebs Cycle takes place. The Krebs Cycle is responsible for the formation of 4 ATP molecules. Finally, the Electron Transport Chain is responsible for the formation of 30 ATP molecules. Therefore, for each cycle of cellular respiration, 36 molecules of ATP are produced in the cell.
So for a real answer... The electron transport chain basically pumps out protons across the mitochondrial membrane from the matrix into the inter-membrane space, building a proton gradient. When these protons try to flow back in, they run through the ATPase and generate ATP. We can visualize this process as a chain, where electrons move through components of the chain and eject protons as they go from structure to structure. We generally think of the beginning of this chain as the place where NADH is oxidized and gives up its electrons. However, FADH2 enters from an area which can be thought of as further down the chain. So if we think of the electron transport chain as having three steps, with each step generating one ATP, then NADH starts at step one, but FADH enters the chain later at step two. So FADH will only eject enough protons for two ATP, while NADH ejects enough for three. That's a simple way of looking at it, at least.
First stage is Glycolysis pyruvate is then turned into Acetyl CoA and enters the Krebs Cycle Second stage is Krebs Cycle Third stage is Electron transport chain
NADH produces 3 ATPs because it donates the proton at a "higher" location in the electron transport chain than does FADH2, which is why FADH2 produce only 2 ATPs. NADH and FADH2 donates electrons and protons into the electron transport chain.
In animal cells, the mitochondria are the site of energy generation. Although glucose that enters the cell is first broken down to 2 molecules of pyruvic acid, this substance enters the TCA cycle, whose products act as electron carriers in the electron transfer pathway which ultimately results the in generation of energy by the mitochondria
A large molecule that can not enter the cell through myosis enters the cell through by endocytosis. Endocytosis is an example of active transport.
They return to Photosystem I
Pyruvic acid enters and carbon dioxide exits.
It depends wether or not NADH from glycolisis enters or not. If yes, then 38. If not, then 36 come from the electron transport chains and other ATP.
Yes, it generate a magnetic field when it enters into the earth atmosphere.