Inside the nucleus of an atom, there is a competition between two principle forces: strong nuclear forces which keep the nucleus together, and electrostatic forces between the protons which want to blow it apart. Different proton-neutron structures causes changes between these two forces which affects the stability of the atom.
The exact instant an atom decays is a quantum perturbation. Every time the atom vibrates, it has a chance of overcoming the activation energy barrier for decay.
the atom to become unstable and rip apart
Electrons from the magnetosphere can cause atoms to become excited or ionized when they interact with them. This can lead to the emission of light, changes in chemical reactions, or damage to biological molecules. Additionally, these electrons can contribute to the creation of auroras when they collide with gases in the Earth's atmosphere.
Protons and electrons are the two subatomic particles that cause atoms to be pushed apart due to their like charges repelling each other. Neutrons do not have a charge and do not contribute to the electrostatic forces between atoms. The attraction between the positively charged protons in the nucleus and the negatively charged electrons around the nucleus causes atoms to be pulled together.
Atoms combine in chemical reactions to form new compounds, which can have different properties than the individual atoms. By bonding with other atoms, atoms can achieve a more stable electron configuration, often by filling their outer electron shell to reach a state of lower energy. The resulting compounds can have enhanced stability and reactivity compared to the individual atoms.
Neutrons. For lighter elements with two few neutrons, a likely decay route will be through electron capture and beta particle emission. Those with more neutrons decay by beta particle emission, which can be described as a neutron splitting into a proton/electron pair, where the surplus energy is imparted to the electron, ejecting it from the nucleus. Heavier elements may decay by either of these or by alpha particle emission, which is essentially the ejection of a helium nucleus (two protons and two electrons). The heaviest elements may also undergo spontaneous fission, where the nucleus begins to vibrate and split. This typically also releases free neutrons, which can bombard neighboring heavy atomic nuclei, causing them to become unstable and to fission, resulting in what is known as a chain reaction. See the attached link for a table of the isotope decay modes. In the table key are some neat animations.
Too many or too few neutrons.
water
Neutrons have no charge. As a result, they are not deflected by the positive charge of the nucleus or the negative charge of the electron cloud. They have the best chance of interacting with the nucleus and further destabilizing it, causing it to split.
the atom to become unstable and rip apart
no they dont cause they just dont.
Radioactive atoms are atoms that have unstable nuclei, which can undergo radioactive decay to become more stable. During this process, they emit radiation in the form of alpha particles, beta particles, or gamma rays. This emission of radiation can cause a change in the atom's composition or energy level.
The two aspects that cause the nucleus of any element atom to be unstable are:not have the specific neutron/proton ratio to be a stable nucleus, and orhaving number of protons that exceeds the stability limit (exceeding 83).Referring to question below for more information.
If the air is stable, it will not become unstable unless there is a significant change in the atmospheric conditions. Factors that might cause air to become unstable include temperature inversions, warm air rising over cooler air, or the presence of a lifting mechanism like a front or mountain range.
When a freely moving neutron is introduced to a nuclear fuel like uranium, it can be absorbed by the nucleus of the fuel atom, causing it to become unstable and split into two or more smaller atoms, releasing energy and more neutrons in the process. This is known as nuclear fission, and it can lead to a chain reaction if the released neutrons go on to collide with other fuel atoms and cause them to undergo fission as well.
In order to cause an atomic nucleus to become unstable so that it will undergo fission, you have to add a neutron. If a slow neutron collides with an atomic nucleus, it will be absorbed into the nucleus and become part of it. The nuclear attraction of the nucleus is strong enough to grab a slow neutron. But a fast neutron cannot be captured because it has too much kinetic energy. The attraction of the nucleus is not enough to stop the motion of a fast neutron. Even if a fast neutron makes a direct hit on an atomic nucleus, it is just going to bounce off.
Only heterotrophic organisms remain after a change in the environment
No triggering is used on an astable multivibrator because it can cause it to become unstable.