Energy is required for just about any process. In the case of splitting compounds, the atoms attract one another with a certain force; this force must be overcome to tear them apart. Since the force is also applied over a positive (non-zero) distance, that requires work, i.e., energy.
An example of something that stores chemical energy is a battery. Batteries store energy in the form of chemical compounds that can be converted into electrical energy when needed.
No, more heat is typically needed to separate ionic compounds than molecular compounds. Ionic compounds have strong electrostatic forces of attraction between ions that require higher energy input to break apart, whereas molecular compounds have weaker intermolecular forces that are easier to overcome.
One of the principal chemical compounds that cells use to store energy is adenosine triphosphate (ATP). ATP is produced during cellular respiration and serves as the primary energy currency of the cell, providing the energy needed for various cellular processes.
In general, yes.
Chemical energy can be transformed through reactions like combustion or oxidation, releasing heat or creating new compounds. Nuclear energy can be transformed through nuclear reactions like fission or fusion, where atomic nuclei split or combine to release large amounts of energy.
no
In a reaction where compounds split apart to form smaller compounds, the original compound breaks down into simpler molecules or atoms through bond cleavage. This process typically releases energy in the form of heat or light, depending on the type of reaction.
Photosynthesis requires carbon dioxide (CO2) and water (H2O) as the primary compounds to initiate the process. Additionally, sunlight is essential as it provides the energy needed for the conversion of these compounds into glucose and oxygen. Chlorophyll, found in plant cells, captures light energy to facilitate this chemical reaction.
An example of something that stores chemical energy is a battery. Batteries store energy in the form of chemical compounds that can be converted into electrical energy when needed.
Traditional chemistry deals mainly with the interaction of elements, compounds, and energy. Nuclear chemistry studies the nucleus of atoms, and how it can split, decompose, and interact with energy.
Mitochondria uses energy from food to make high energy compounds that the cell can use to power growth, development, and movement. Chloroplasts use energy from sunlight to make energy rich food.
Lipids are the class of organic compounds that store energy as fat in living organisms. They consist of molecules such as fats, oils, and waxes that are insoluble in water and contain long hydrocarbon chains. Stored fats can be broken down to provide energy when needed by cells.
Light energy does not affect respiration, but it is needed for photosynthesis, which in plants creates the chemical compounds (carbohydrates) that are oxidized in cellular respiration.
No, more heat is typically needed to separate ionic compounds than molecular compounds. Ionic compounds have strong electrostatic forces of attraction between ions that require higher energy input to break apart, whereas molecular compounds have weaker intermolecular forces that are easier to overcome.
Chlorophyll is essential to photosynthesis because it traps the needed sunlight energy for the process. It absorbs light energy from the sun and converts it into chemical energy that is used to drive the synthesis of organic compounds in plants.
One of the principal chemical compounds that cells use to store energy is adenosine triphosphate (ATP). ATP is produced during cellular respiration and serves as the primary energy currency of the cell, providing the energy needed for various cellular processes.
ATP and similar compounds serve as the primary energy currency in cells, providing energy for various cellular processes such as metabolism, muscle contraction, and active transport. They store and release energy through the breaking and formation of high-energy phosphate bonds.