Citric acid cycle :)
citric acid cycle :)
In the light reaction, when electrons are transferred from photosystem 1 to photosystem 2, it goes through an electron transport chain. This ETC pumps protons into the thykaloid. Those protons diffuse out of the thykaloid through ATP synthase which energizes a phosphate group to bond to ADP. This creates ATP.
Proteins carry oxygen through the blood, and they also carry electrons throughout the body to enable reactions.
ATP is generated in the light independent reactions and is then used in the dark reactions to synthesize carbohydrates. ATP plays the role of the product of phosphorylation of ADP.
One is transfer of energy in chlorophyll. The other is transfer of electrons, which happen in photochemical reactions. Another is transport chain for electrons and synthesis of ATP. The final process concerns carbon fixation and release of products.
This sequence accurately describes the flow of electrons in photosynthesis: H2O → photosystem II → photosystem I → NADP
an electron transport chain.
Transport chain series of proteins embedded in a membrane along which energized electrons are transported as electrons are passed from molecule energy is released?
In the inner membrane of the mitochondria.
No, the electrons flow from the reaction center to the primary electron center. Just the opposite of what you said.
Oxygen's RoleAt the end of the electron transport chain in the mitochondria, electrons are donated to oxygen (O2), which combines with hydrogen ions to form water. Without the O2 molecules to accept the electrons, the electron transport chain couldn't function.
In the light reaction, when electrons are transferred from photosystem 1 to photosystem 2, it goes through an electron transport chain. This ETC pumps protons into the thykaloid. Those protons diffuse out of the thykaloid through ATP synthase which energizes a phosphate group to bond to ADP. This creates ATP.
Proteins carry oxygen through the blood, and they also carry electrons throughout the body to enable reactions.
NADH is oxidized in the electron transport chain, meaning it loses electrons. These electrons are transferred through a series of protein complexes to generate ATP. NADH is converted back to its original form, NAD+, making it available to accept more electrons in subsequent metabolic reactions.
IN electron transport chain, NaDH2 and FaDH2 get reduced to give electrons. NaDH2--->DH2+ + 2e- FaDh2---->DH2+ + 2e-
Energy is transferred to the chain of proteins in the electron transport. A electron transport chain is a series of compounds that transfer electrons from electron donors to electron acceptors through redox reactions.
ATP is generated in the light independent reactions and is then used in the dark reactions to synthesize carbohydrates. ATP plays the role of the product of phosphorylation of ADP.
Electrons move through the electron transport chain via a series of redox reactions. They move from high to lower energy levels, resulting in the pumping of hydrogen ions across the membrane.