They do slide along the electron transport chain, but not onto molecules of ATP. The motive power of these electrons are used to pump protons into the outer lumen of the mitochondria. There the protons build up until there is a powerful enough gradient so that they come down that gradient and through the ATP synthase, a rotary enzyme that uses the flow of protons to attach a phosphate group onto ADP and thus ATP is synthesized.
The electrons emerge from the last electron transport complex and there oxygen takes them up with the spent protons and water results.
One major class are known as the Cytochromes.
In mitochondria, electron-carrying molecules are moved along the membranes by protein complexes that pump protons across the inner membrane, creating an electrochemical gradient. In chloroplasts, electron-carrying molecules are helped along by the thylakoid membrane's structure, which provides a platform for electron transport proteins to interact and facilitate the movement of electrons during photosynthesis.
During non-cyclic electron flow, electrons come from water molecules that are split by photosystem II. These electrons replace the ones lost by photosystem II as they are passed along the electron transport chain.
Electron transport is electricity. Electricity is the flowing of electrons along a substrate such as copper. Electrons will move from one source to another source. In household electricity the electrons travel along the path and back to the original source.
They begin to electrolyze, a term used for giving off static charge.
ATP molecules
One major class are known as the Cytochromes.
The electron transport chain.
They lose energy,which is then used by the cell to make ATP
In mitochondria, electron-carrying molecules are moved along the membranes by protein complexes that pump protons across the inner membrane, creating an electrochemical gradient. In chloroplasts, electron-carrying molecules are helped along by the thylakoid membrane's structure, which provides a platform for electron transport proteins to interact and facilitate the movement of electrons during photosynthesis.
The purpose of the Krebs cycle is to produce ATP or create molecules that will create ATP in the electron transport chain (NADH and FADH2)
High-energy electrons from NADH and FADH2 are passed along the electron transport chain
In the electron transport chain, the molecules that enter are NADH and FADH2. These molecules donate their electrons to the chain, which then pass along a series of protein complexes in the inner mitochondrial membrane to generate ATP through oxidative phosphorylation.
The high-energy electrons in the electron transport chain are derived from molecules like NADH and FADH2, which are generated during cellular respiration in processes like glycolysis and the citric acid cycle. These molecules donate their electrons to the chain, where they are passed down through a series of protein complexes to generate ATP.
This process is known as electron transport chain. It is a series of protein complexes and molecules within the inner membrane of the mitochondria that transfer electrons and generate a proton gradient, ultimately producing ATP through oxidative phosphorylation.
During non-cyclic electron flow, electrons come from water molecules that are split by photosystem II. These electrons replace the ones lost by photosystem II as they are passed along the electron transport chain.
Electron transport is electricity. Electricity is the flowing of electrons along a substrate such as copper. Electrons will move from one source to another source. In household electricity the electrons travel along the path and back to the original source.