Oxygen
Because the electron carrier molecules, such as the cytochromes, are located in the cristae.
NO molecule has 15 (odd) electrons, 8 from oxygen and 7 from nitrogen.
An example of an electron acceptor molecule is oxygen (O₂). In cellular respiration, oxygen accepts electrons at the end of the electron transport chain, allowing for the production of ATP. Other examples include NAD⁺ and FAD, which also function as electron acceptors during metabolic processes.
NADPH and ATP are produced by the light reactions. The ATP is a high energy molecule produced by photophosphorylation while the NADPH is produced at the end of the electron transport chain.
its a carbohydrate
The electron carrier molecules of the Krebs cycle are NADH and FADH2. In the Calvin cycle, the electron carrier molecule is NADPH.
NADH and FADH2
NADP
The donor is the one who loses the electron. Donor is the elctron carrier.
Because the electron carrier molecules, such as the cytochromes, are located in the cristae.
The molecule you are referring to is NAD+ (nicotinamide adenine dinucleotide). It acts as a coenzyme electron carrier in the Krebs cycle by accepting and donating electrons during the oxidation-reduction reactions that occur in the cycle.
An electron carrier acts as an energy-storage molecule when it is in a reduced state by gaining electrons and storing energy in chemical bonds. Examples of electron carriers involved in energy storage include NADH and FADH2, which are critical molecules in cellular respiration for ATP production.
NO molecule has 15 (odd) electrons, 8 from oxygen and 7 from nitrogen.
No, ATP is not considered an electron carrier. ATP is the primary energy-carrying molecule in cells, storing and transferring energy for cellular processes. Electron carriers like NADH and FADH2 are involved in the transport of electrons during cellular respiration.
An example of an electron acceptor molecule is oxygen (O₂). In cellular respiration, oxygen accepts electrons at the end of the electron transport chain, allowing for the production of ATP. Other examples include NAD⁺ and FAD, which also function as electron acceptors during metabolic processes.
No, FADH2 is in the "accepted" state. FADH+ is the form of the molecule that is able to accept electrons.
NADPH and ATP are produced by the light reactions. The ATP is a high energy molecule produced by photophosphorylation while the NADPH is produced at the end of the electron transport chain.