There are several different ways that Cells can make ATP from ADP and inorganic phosphate (Pi). One of the more common ways is when the phosphate group is transferred to ADP from a molecule that is more energetic than ATP. This form of biosynthesis is called substrate-level phosphorylation. The formation of ATP is coupled to the removal of a phosphate group from another molecule
When glucose is being synthesized (gluconeogenesis), the reaction goes from right to left and a molecule of ATP is used up to create 1,3-bis phosphoglycerate. During glycolysis, when glucose is being broken down, the reaction goes from left to right and a molecule of ATP is produced when the phosphate group on 1,3-bis phosphoglycerate is transferred to ADP.
This is an example of ATP synthesis by substrate-level phosphorylation. It is one of two such reactions in glycolysis and is the main reason why the degradation of glucose can be used to produce useful energy. For example, when glucose is taken up from the blood stream by muscle cells and degraded to produce ATP that can be used in muscle contraction.
In order for electron transfer and ATP synthesis to continue after the first disruption, an intact electron transport chain and a functioning ATP synthase enzyme must be present. The electron transport chain allows for the movement of electrons, while ATP synthase uses the energy generated from this flow of electrons to produce ATP.
The type of sugar present in ATP is ribose.
The mitochondria of the cell produce ATP. In plant cells, the chloroplast would make ATP and in human cells the mitochondria produces the ATP.
For the maximum amount of ATP to be produced in cellular metabolism, the presence of oxygen (aerobic conditions) is essential. This allows for the most efficient generation of ATP through oxidative phosphorylation in the electron transport chain. Additionally, an ample supply of substrate molecules (such as glucose or fatty acids) and functional mitochondria are required for optimal ATP production.
Yes, oxygen is required to make ATP through the process of aerobic respiration.
all of the electron transport proteins as well as ATP synthase
In order for electron transfer and ATP synthesis to continue after the first disruption, an intact electron transport chain and a functioning ATP synthase enzyme must be present. The electron transport chain allows for the movement of electrons, while ATP synthase uses the energy generated from this flow of electrons to produce ATP.
The type of sugar present in ATP is ribose.
Because ATP is present due to oxidation.
Plants must obtain ions such as potassium, magnesium, and phosphorus from the soil in order to make ATP. These ions play key roles in various biochemical processes, including the production of ATP through cellular respiration.
Two condition that must be present for light independent reactions to occur is the presence of CO2 and the presence of ribulose bisphosphate. Two other conditions include the presence of ATP and NADPH and the presence of required enzymes.
To make the ATP molecule, three phosphorus atoms must be removed from ADP (adenosine diphosphate) to form ATP (adenosine triphosphate). This removal of phosphorus atoms releases energy that can be used by the cell for various processes.
Glucose must be present in order for cellular respiration to occur. Cellular respiration is the process in which glucose is broken down in to ATP (energy), Carbon Dioxide, and water. Glucose is a reactant in the sense that it must be present for the reaction to occur.
The mitochondria of the cell produce ATP. In plant cells, the chloroplast would make ATP and in human cells the mitochondria produces the ATP.
Oxygen is the element that must be present for both steps of cellular respiration to occur. It acts as the final electron acceptor in the electron transport chain, allowing for the production of ATP through oxidative phosphorylation.
Oh, dude, like, the charge that might be present in the ATP binding site of a protein to attract ATP would most likely be a negative charge. ATP has phosphate groups that are negatively charged, so the binding site would probably have some positively charged amino acids to attract those negatively charged phosphates. It's like a little magnet for ATP, you know?
There must be an input of energy from ATP.