For photosynthesis , they have an electron transport system, giving energy to each molecule, to pump the hydrogen ions across the membrane of the cholophyll, and so creates a hydrogen ion gradient. Later, throught the process of chemiosmosis, the hydrogen ions go back through specific ATP synthase channels, and combine with ADP and an inorganic phosphate, to produce ATP.
It's similar with cellular respiration to, though it is in the inner membrane of the mitochondria, which goes into the matrix of the mitochondria. The two are pretty simliar, though in mitochondria, 32-34 ATP molecules are produced, a lot more than photosynthesis, because ATP for photosynthesis drives the light-independent reactions for glucose.
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Cells use ATP as a source of energy for various cellular processes, such as muscle contractions, active transport of molecules across cell membranes, and chemical reactions. ATP is broken down into ADP and inorganic phosphate, releasing energy that can be used by the cell.
Adenosine triphosphate, ATP, is the energy currency of the cell that the cell uses yo do all the cellular work needing done. From replication to elimination much of the cell's work must be powered by something and ATP is well designed to do this work.
Energy is stored and released by ATP by bonding a phosphate with ADP.This bond creates ATP.Water is split in the process, releasing oxygen.
Cells use energy to create larger sperm counts and bigger buttholes to get big butt in their butt.
High-energy bonds are formed by absorbing energy in ATP. When the end phosphate of ATP is detached, the energy in the high-energy bond can be used to fuel a reaction within the cell.
Yes, ATP synthase is an enzyme that plays a key role in the production of ATP in cells.
The mitochondria is responsible for the production of ATP in eukaryotic cells through the process of cellular respiration.
Yes, eukaryotic cells need to produce ATP for energy, just like prokaryotic cells.
ATP (adenosine triphosphate), or ultimately it would be glucose.
Cells with high-energy demands like muscle cells, heart cells, and brain cells require the most ATP in the body. These cells require ATP for functions such as muscle contractions, maintaining ion gradients for nerve function, and powering biochemical processes for brain function.