Hydrolyzed, or water is added to the bond.
ATP (adinine triphosphate) loses a phosphate group to become ADP (adinine diphosphate). The phosphate group was released is referred to as inorganic phosphate. There is also a release of energy as the high energy phosphate bonds are cleaved.
Energy is released when a phosphate group is removed from an ATP molecule, leaving ADP (adenosine diphosphate). This energy can be used by the cell for various cellular activities.
ATP.You can think of the energy as being stored in the bonds between phosphate groups. ATP has the structureadenine - ribose - phosphate - phosphate -phosphateAMP is similar, but has only one phosphate group attached to ribose. So in ATP there are two high-energy bonds linking the extra two phosphate groups to AMP.When ATP is split (hydrolyzed) in the cell, one of two things happens:# Energy is released, a free phosphate group detaches, and ADP remains. # Energy is released, a free pyrophosphate group (P-P) detaches, and AMP remains. In this case the pyrophosphate may itself be split, releasing another packet of energy.
When the bond is broken between the phosphate groups in ATP, energy is released.
ATP stands for Adenosine Tri-Phosphate. This means there are three phosphate groups stuck together on the tail of the molecule. Packing that many negatively charged groups together takes energy which is stored in the structure. When the bond between the second and third phosphates is broken, energy is released and the molecule becomes ADP or Adenosine Di-Phosphate.
Energy is released when phosphate group is removed.
( a phosphate group is removed.) when the chemical bond between the second and third phosphate groups is broken, creating adenosine diphosphate, a phosphate group, and releasing energy.
energy
Energy is released from ATP when a phosphate group is removed through hydrolysis. This reaction releases energy that can be used for cellular processes.
ATP (adinine triphosphate) loses a phosphate group to become ADP (adinine diphosphate). The phosphate group was released is referred to as inorganic phosphate. There is also a release of energy as the high energy phosphate bonds are cleaved.
The energy stored in ATP is released when a phosphate group is removed from ATP through a hydrolysis reaction, forming ADP and an inorganic phosphate molecule. This process releases energy that can be used by the cell for various biological processes.
Energy is released when a phosphate group is removed from an ATP molecule, leaving ADP (adenosine diphosphate). This energy can be used by the cell for various cellular activities.
It becomes ADP and energy is released
ATP.You can think of the energy as being stored in the bonds between phosphate groups. ATP has the structureadenine - ribose - phosphate - phosphate -phosphateAMP is similar, but has only one phosphate group attached to ribose. So in ATP there are two high-energy bonds linking the extra two phosphate groups to AMP.When ATP is split (hydrolyzed) in the cell, one of two things happens:# Energy is released, a free phosphate group detaches, and ADP remains. # Energy is released, a free pyrophosphate group (P-P) detaches, and AMP remains. In this case the pyrophosphate may itself be split, releasing another packet of energy.
When ATP gives up one phosphate group, it is converted into ADP (adenosine diphosphate) and releases energy that can be used for cellular processes. This process is known as hydrolysis, where the bond between the last phosphate group and the rest of the ATP molecule is broken to release energy.
I don't know what APT is, but ATP (adenosine triphosphate) releases energy when a phosphate group is removed from the rest of the ATP. When the bond that holds the phosphate group to the rest of the ATP is broken, it releases energy. The products are ADP (adenosine diphosphate) and a free phosphate group.
When ATP is changed to ADP, a phosphate group is released. This phosphate group can be used by the cell in various cellular processes such as signaling, building molecules, or providing energy for other reactions.