Noun
/fɪʃən ˈɡæmz/
Fission gammas refers to the gamma radiation that is emitted during the process of nuclear fission. This phenomenon occurs when a heavy nucleus splits into smaller nuclei, accompanied by the release of energy and gamma photons. Fission gammas are particularly significant in nuclear physics and can be encountered in various contexts related to nuclear reactors, radiation detection, and nuclear safety.
The term is more commonly used in written contexts, especially in scientific literature, technical reports, and discussions related to nuclear physics. It is less common in everyday oral speech.
В проектировании ядерных реакторов понимание гамма-излучений при делении жизненно важно для обеспечения соблюдения протоколов безопасности.
The detection of fission gammas can help in identifying the location of a nuclear fission event.
Обнаружение гамма-излучений деления может помочь в идентификации места ядерного деления.
Researchers studied the properties of fission gammas to improve radiation shielding materials.
While "fission gammas" itself is not commonly featured in idiomatic expressions, the concept of "fission" can be associated with various terms related to breaking apart or separation. However, here are a couple of phrases that incorporate the broader concept of fission:
Достижения в технологии ядерного деления прокладывают путь к более чистым энергетическим решениям.
To undergo a fission of ideas: A metaphorical expression to describe a process where ideas split or diverge.
The term "fission" comes from the Latin word "fissio," meaning "a splitting," derived from "findere," which means "to split." The word "gamma" refers to gamma rays, which were first described in the early 20th century, with the term coming from the Greek letter gamma (Γ), used in physics to denote these high-energy rays.
Synonyms: - Nuclear fission products - Fission products
Antonyms: - Fusion (referring to the process of combining nuclei)
Fission gammas is a specific term mainly used within the context of nuclear physics and is integral to understanding the behavior and consequences of nuclear reactions.