Look up the atomic number of Neon, add 2 to that (since an alpha particle has two protons), and add 4 to the Atomic Mass (since the alpha particle has 4 mass units).
deuterium and tritium fuse producing helium and a neutronthe helium is fully ionized and thus could also be called an alpha particle
When a fusion reaction converts a pair of hydrogen isotopes, such as deuterium and tritium, to an alpha particle and a neutron, most of the energy released is in the form of kinetic energy. This energy primarily manifests as the motion of the products—specifically, the alpha particle and the neutron—resulting in high-speed particles that carry away the energy. Additionally, some energy may be released as electromagnetic radiation, such as gamma rays.
The nuclear reaction involving (^{146}{62}\text{Sm}) (samarium-146) and (^{4}{2}\text{He}) (alpha particle) producing (^{142}_{60}\text{Nd}) (neodymium-142) is an example of an alpha decay or a nuclear fusion process where an alpha particle is absorbed. In this case, the samarium nucleus captures the alpha particle, resulting in the formation of neodymium and releasing energy. This type of reaction is typical in the context of nucleosynthesis in stars or certain radioactive decay processes.
An alpha particle
During a fusion reaction, such as the fusion of hydrogen isotopes to form helium, the primary byproducts are helium nuclei (alpha particles) and a significant amount of energy, often released in the form of gamma rays. Additionally, neutrons may also be produced, depending on the specific fusion reaction taking place.
deuterium and tritium fuse producing helium and a neutronthe helium is fully ionized and thus could also be called an alpha particle
A helium nucleus, also known as an alpha particle, is formed during a solar nuclear reaction by the fusion of four hydrogen nuclei.
When a fusion reaction converts a pair of hydrogen isotopes, such as deuterium and tritium, to an alpha particle and a neutron, most of the energy released is in the form of kinetic energy. This energy primarily manifests as the motion of the products—specifically, the alpha particle and the neutron—resulting in high-speed particles that carry away the energy. Additionally, some energy may be released as electromagnetic radiation, such as gamma rays.
The nuclear reaction involving (^{146}{62}\text{Sm}) (samarium-146) and (^{4}{2}\text{He}) (alpha particle) producing (^{142}_{60}\text{Nd}) (neodymium-142) is an example of an alpha decay or a nuclear fusion process where an alpha particle is absorbed. In this case, the samarium nucleus captures the alpha particle, resulting in the formation of neodymium and releasing energy. This type of reaction is typical in the context of nucleosynthesis in stars or certain radioactive decay processes.
An alpha particle
alpha particles
The reaction is:Po-210------------alpha particle------------------Pb-206
An alpha particle
During a fusion reaction, such as the fusion of hydrogen isotopes to form helium, the primary byproducts are helium nuclei (alpha particles) and a significant amount of energy, often released in the form of gamma rays. Additionally, neutrons may also be produced, depending on the specific fusion reaction taking place.
231Pa---------alpha particle----------227Ac
The other product of the radioactive decay of 204 Pb to 200 Hg is an alpha particle (4 He nucleus). This decay process involves the emission of an alpha particle, leading to the formation of 200 Hg.
Alpha particle.