The process of gamma radioactive decay of anti-particles involves the emission of high-energy photons (gamma rays) from an unstable nucleus of an anti-particle. This occurs when the nucleus has excess energy and needs to release it in order to become more stable.
The main difference between gamma radioactive decay of anti-particles and regular gamma radioactive decay is the source of the emitted photons. In regular decay, the photons are emitted from the nucleus of a regular particle, whereas in anti-particle decay, the photons are emitted from the nucleus of an anti-particle.
Any type of anti-particle with an unstable nucleus can undergo gamma radioactive decay. This includes anti-protons, anti-neutrons, and anti-electrons (positrons).
The main danger of gamma radioactive decay of anti-particles is the high-energy gamma rays that are emitted. These rays can be harmful to living organisms and can cause damage to cells and DNA.
Gamma radioactive decay of anti-particles is used in various scientific research fields, such as nuclear physics, astrophysics, and particle physics. It allows scientists to study the properties of anti-particles and their interactions with regular particles, providing valuable insights into the fundamental nature of the universe.