Chloroplast dood
The final electron acceptor in glycolysis is oxygen, which is needed for the production of ATP in aerobic respiration. Oxygen captures the electrons at the end of the electron transport chain to form water.
NADP becomes reduced to form NADPH when it accepts an electron from an electron donor, such as an electron. This reduction reaction allows NADP to carry high-energy electrons for use in cellular processes like photosynthesis.
During photosynthesis, the electron acceptor is typically NADP+ (nicotinamide adenine dinucleotide phosphate). NADP+ accepts electrons and protons to form NADPH, which carries the high-energy electrons produced during the light reactions of photosynthesis to the Calvin cycle for the synthesis of carbohydrates.
oxygen is used to pull electrons down to the Electron Transport Chain which pumps H+ to create H+ gradient :)
An electron acceptor is a molecule or atom that can be reduced by gained an electron from something else. It is also called an electrophile or an oxidizing agent. Common strong electron acceptors are O2, Cl2, Br2, MnO42-, PbO2, Co3+, Cr2O72-, H2O2. In a table of standard redox potential, they are the species with the most positive reduction potentials.The Lewis definition of bases is described in terms of electron acceptors and donors. A electron pair acceptor is an acid, and an electron pair donor is a base.See the Web Links and Related Questions links to the left for more information.
only chloroplast
The final electron acceptor in glycolysis is oxygen, which is needed for the production of ATP in aerobic respiration. Oxygen captures the electrons at the end of the electron transport chain to form water.
In the light reactions of photosynthesis, the final electron acceptor is NADP+, which gets reduced to NADPH. In cellular respiration, the final electron acceptor is oxygen, which gets reduced to form water.
The final electron acceptor in the noncyclic pathways of ATP formation is oxygen. Oxygen is necessary to receive electrons at the end of the electron transport chain in aerobic respiration, forming water as a byproduct.
The final electron acceptor in photosynthesis is NADP+ (nicotinamide adenine dinucleotide phosphate). NADP+ accepts electrons, along with hydrogen ions, from the electron transport chain in the thylakoid membrane, and is reduced to NADPH, which is a key molecule in the production of carbohydrates during the light-independent reactions of photosynthesis.
It is an electron acceptor in the electron transport chains in the light reactions.
NADP becomes reduced to form NADPH when it accepts an electron from an electron donor, such as an electron. This reduction reaction allows NADP to carry high-energy electrons for use in cellular processes like photosynthesis.
The ultimate electron acceptor in photosynthesis is NADP+ (nicotinamide adenine dinucleotide phosphate). It is reduced to NADPH during the light-dependent reactions of photosynthesis and carries electrons to the Calvin cycle for carbon fixation.
The primary electron acceptor in Photosystem II is a molecule called plastoquinone. Plastoquinone accepts electrons from chlorophyll after they are excited by light, and transfers them to the cytochrome complex in the thylakoid membrane.
The final electron acceptor is NADP. In oxygenic photosynthesis, the first electron donor is water, creating oxygen as a waste product. In anoxygenic photosynthesis various electron donors are used. Cytochrome b6f and ATP synthase work together to create ATP.
During photosynthesis, the electron acceptor is typically NADP+ (nicotinamide adenine dinucleotide phosphate). NADP+ accepts electrons and protons to form NADPH, which carries the high-energy electrons produced during the light reactions of photosynthesis to the Calvin cycle for the synthesis of carbohydrates.
(1) NADP+ is the final electron acceptor of the light-dependent reactions. NADP+ is reduced to NADPH by ferredoxin-NADP+ reductase using electrons derived from the photon-induced splitting of H2O at photosystem II. (2) In the light-independent or 'dark' reactions the NADPH that is formed is used to further reduce 1,3-bisphosphoglycerate to glyceraldehyde-3-phosphate (G3P). Most of the G3P formed is used to regenerate ribulose 1,5-bisphosphate, while a small amount is used for biosynthesis of energy-rich molecules such as sugars, fats and amino acids. The net effect is that the original electrons (reducing power), derived from the initial splitting of water, are stored in the C-H bonds of these molecules.