ATP (with 3 Phosphate Groups) would be the full charged battery.
ADP (with 2 Phosphate Groups) would be the partially charged battery. To release energy, the bond between the 2nd and 3rd phosphate group is released. To store energy, a bond is made between the 2nd and 3rd phosphate group.
ATP (with 3 Phosphate Groups) would be the full charged battery. ADP (with 2 Phosphate Groups) would be the partially charged battery. To release energy, the bond between the 2nd and 3rd phosphate group is released. To store energy, a bond is made between the 2nd and 3rd phosphate group.
The first law of thermodynamics can be used to explain the operation of a battery. The law states that energy can neither be created nor destroyed. This can be used to explain how the energy of a battery is converted from chemical to electrical energy.
because it is portable
A battery stores chemical energy which is released in the form of electricity.
Kinetic energy is not stored in a battery. Instead, a battery stores and releases electrical energy through chemical reactions. When a battery is charged, chemical energy is converted into electrical energy. When the battery is used, the stored electrical energy is released to power devices.
The stored energy of a battery is typically measured in watt-hours (Wh) or joules (J). It represents the amount of energy that can be released by the battery when it is discharged. The stored energy is determined by the battery's capacity and voltage.
A battery stores chemical energy which is released in the form of electricity.
Energy and matter can be likened to a battery and a device: energy powers the device (matter) through cycles of use and recharge. Just as the battery provides the necessary energy for the device to function, energy fuels the cycles of matter in various processes such as photosynthesis, metabolism, and decomposition in ecosystems.
Potential chemical energy is released as electrical energy when the external circuit is connected.
when a battery is charged the electrons are received by the acidic compound in the battery. then it is stored in battery. then released to anything you wanted. "if you think this won't work buy a new battery instead of asking such question in web"
Money can be used as an analogy for energy because both money and energy are resources that can be exchanged, stored, and used to accomplish tasks. Just as money can be used to purchase goods and services, energy can be used to power machines and perform work. The relationship between money and energy lies in their ability to facilitate and drive various activities and processes in society.
The chemical energy stored in a battery is a form of potential energy because it is stored in the chemical bonds of the battery's components (such as electrodes and electrolytes), and the energy is released when these bonds break during a chemical reaction. Kinetic energy, on the other hand, is associated with the motion of particles or objects, which is not the case with the chemical energy stored in a battery.