Positrons
Yes, unstable atoms can become stable by emitting excess energy in the form of ionizing radiation such as gamma rays, alpha particles, or beta particles. This process helps the atom achieve a more stable configuration by releasing the excess energy stored in its nucleus.
Heavy nuclei are most stable when their neutron-to-proton ratio approaches 1. Nuclei with too many or too few neutrons compared to protons will have higher instability. This balance contributes to stability by preventing the repulsion between protons from overpowering the attractive nuclear force.
Because the structure of their nuclei is unstable: too many or too few neutrons, excess energy causing metastable state, etc. To get more stable they decay, emitting alpha, beta, and/or gamma radiation.
Body can convert excess proteins and sugars into fat and store the same, apart from excess fat available. During the evolution this was a great gift by nature to human being. Now with modern age this phenomena has become one of the greatest curse.
Excited atoms, according to Bohr's theory, would release the excess energy by emitting photons of specific frequencies as they return to lower energy states. This emission of light is known as atomic emission.
Yes, unstable atoms can become stable by emitting excess energy in the form of ionizing radiation such as gamma rays, alpha particles, or beta particles. This process helps the atom achieve a more stable configuration by releasing the excess energy stored in its nucleus.
Nuclear decay is a process where unstable nuclei release energy or particles to become more stable. This helps unstable nuclei achieve greater stability by reducing their excess energy or changing their composition to reach a more balanced state.
When excess neutrons are produced and collide with other atomic nuclei, it triggers a series of fission reactions, releasing more neutrons and energy in the process. This self-sustaining reaction can lead to a large release of energy in a short period of time.
every excess become a vice..
Large nuclei tend to be radioactive because they are unstable and have an excess of protons and neutrons, leading to a higher likelihood of undergoing radioactive decay to achieve a more stable configuration.
An excited atom can lose energy by emitting a photon of light, a process known as spontaneous emission. This photon carries away the excess energy, allowing the atom to return to a lower energy state.
Light-emitting diodes (LEDs) are efficient at producing light without generating excess thermal energy. They convert electricity directly into light through a process that minimizes heat production, making them more energy-efficient and cooler to the touch compared to traditional incandescent bulbs.
The simple answer is to release excess energy and thus become more stable.The full answer requires some understanding of Quantum Mechanics, as it is a quantum process and even though an atom has excess energy to release its current state may be one that Quantum Mechanics prohibits (or encourages) certain changes from occurring.
In gamma rays atom becomes more stable by emitting excess energy in the form of gamma radiation. Gamma rays are part of the electromagnetic spectrum.
The Bronchi become inflamed with Bronchitis, and they produce excess mucus.
Heavy nuclei are most stable when their neutron-to-proton ratio approaches 1. Nuclei with too many or too few neutrons compared to protons will have higher instability. This balance contributes to stability by preventing the repulsion between protons from overpowering the attractive nuclear force.
Because the structure of their nuclei is unstable: too many or too few neutrons, excess energy causing metastable state, etc. To get more stable they decay, emitting alpha, beta, and/or gamma radiation.