Nuclear reactions occur when atomic nuclei collide or interact, leading to changes in nuclear composition and energy release or absorption. These reactions include fusion, fission, and particle-induced transformations. Nuclear reactions power stars and are harnessed in nuclear reactors for energy production. Reaction rates depend on nuclear structure, interaction energies, and quantum tunneling effects. Nuclear reactions are also essential for producing medical isotopes and studying fundamental interactions. In laboratories, particle accelerators are used to investigate reaction mechanisms and cross sections. Theoretical models describe reaction dynamics and energy transfer processes. Understanding nuclear reactions is critical for astrophysics, energy research, and nuclear technology. They form the foundation of both natural and engineered nuclear processes.
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