Water separates into O2, H+ ions, and electrons. CO2 is reduced by NADPH during the Calvin cycle and becomes G3P, which may then be converted into glucose or starch depending on the energy needs of the cell.
In photosynthesis, the sun radiates thermal energy, or light. The plants take in this energy and convert it into chemical energy, as starches.
Enzymes play a key role in determining the fate of a chemical reaction in a living cell by catalyzing and regulating the speed of the reaction. Additionally, the intracellular concentration of reactants and products can also affect the direction and equilibrium of the reaction within the cell.
Hydrogen ions in chloroplasts mainly originate from the splitting of water molecules during the light-dependent reactions of photosynthesis. These hydrogen ions play a vital role in creating a proton gradient used to generate ATP during photophosphorylation. The fate of these hydrogen ions involves the conversion back into water molecules through the enzyme ATP synthase, which helps in the production of ATP.
After a reaction, the substrate is transformed into products through the interactions with enzymes or other catalysts. The original substrate molecules undergo chemical changes, resulting in new molecular structures that have different properties. Once the reaction is complete, the products are released, and the enzyme, if involved, can often be reused for subsequent reactions. The fate of the substrate ultimately depends on the specific reaction conditions and the nature of the substrates and products involved.
Monitoring reactant disappearance or product formation over time using techniques such as UV-Vis spectroscopy or chromatography can provide insight into reaction intermediates. Isotope labeling experiments can help identify the pathway of a reaction by tracing the fate of specific atoms during the reaction. Computational chemistry methods, such as density functional theory calculations, can be used to predict reaction pathways and intermediate structures. Kinetic studies, including determining rate laws and activation energies, can provide information about the steps involved in a reaction mechanism.
•reaction of rock/minerals with water •The ultimate fate of all surface rocks •Contrast with physical weathering •Hydration •Hydrolysis •Dissolution •Carbonation •Biological •Redox
In photosynthesis, the sun radiates thermal energy, or light. The plants take in this energy and convert it into chemical energy, as starches.
i think it get oxidized. am i correct
Enzymes play a key role in determining the fate of a chemical reaction in a living cell by catalyzing and regulating the speed of the reaction. Additionally, the intracellular concentration of reactants and products can also affect the direction and equilibrium of the reaction within the cell.
Fate - Fate album - was created in 1985.
Hydrogen ions in chloroplasts mainly originate from the splitting of water molecules during the light-dependent reactions of photosynthesis. These hydrogen ions play a vital role in creating a proton gradient used to generate ATP during photophosphorylation. The fate of these hydrogen ions involves the conversion back into water molecules through the enzyme ATP synthase, which helps in the production of ATP.
There are currently 3: Fate, Fate: Undiscovered Realms, and Fate: The Traitor Soul.
No, in plants carbon dioxide is a raw material, or reactant, for photosynthesis. Plants take in carbon dioxide and release oxygen. For animals, is is just a waste product.
Tagalog translation of fate: kapalaran
A homophone for the word "fate" is "eight."
he seems to be incontrol of his fate
fate