Translation and analysis of words by ChatGPT artificial intelligence
On this page you can get a detailed analysis of a word or phrase, produced by the best artificial intelligence technology to date:
- how the word is used
- frequency of use
- it is used more often in oral or written speech
- word translation options
- usage examples (several phrases with translation)
- etymology
atom$5689$ - translation to greek
![Animation of a [[Coulomb explosion]] in the case of a cluster of positively charged nuclei, akin to a cluster of fission fragments. [[Hue]] level of color
is proportional to (larger) nuclei charge. Electrons (smaller) on this time-scale are seen only stroboscopically and the hue level is their kinetic energy](https://commons.wikimedia.org/wiki/Special:FilePath/Bucky1.gif?width=200 "Animation of a [[Coulomb explosion]] in the case of a cluster of positively charged nuclei, akin to a cluster of fission fragments. [[Hue]] level of color
is proportional to (larger) nuclei charge. Electrons (smaller) on this time-scale are seen only stroboscopically and the hue level is their kinetic energy")
![A schematic nuclear fission chain reaction. 1. A [[uranium-235]] atom absorbs a [[neutron]] and fissions into two new atoms (fission fragments), releasing three new neutrons and some binding energy. 2. One of those neutrons is absorbed by an atom of [[uranium-238]] and does not continue the reaction. Another neutron is simply lost and does not collide with anything, also not continuing the reaction. However, the one neutron does collide with an atom of uranium-235, which then fissions and releases two neutrons and some binding energy. 3. Both of those neutrons collide with uranium-235 atoms, each of which fissions and releases between one and three neutrons, which can then continue the reaction.](https://commons.wikimedia.org/wiki/Special:FilePath/Fission chain reaction.svg?width=200 "A schematic nuclear fission chain reaction. 1. A [[uranium-235]] atom absorbs a [[neutron]] and fissions into two new atoms (fission fragments), releasing three new neutrons and some binding energy. 2. One of those neutrons is absorbed by an atom of [[uranium-238]] and does not continue the reaction. Another neutron is simply lost and does not collide with anything, also not continuing the reaction. However, the one neutron does collide with an atom of uranium-235, which then fissions and releases two neutrons and some binding energy. 3. Both of those neutrons collide with uranium-235 atoms, each of which fissions and releases between one and three neutrons, which can then continue the reaction.")
![[[Otto Hahn]] and [[Lise Meitner]] in 1912](https://commons.wikimedia.org/wiki/Special:FilePath/Hahn and Meitner in 1912.jpg?width=200 "[[Otto Hahn]] and [[Lise Meitner]] in 1912")
![website=[[YouTube]] }}</ref> but would not have been together in the same room.](https://commons.wikimedia.org/wiki/Special:FilePath/Nuclear Fission Experimental Apparatus 1938 - Deutsches Museum - Munich.jpg?width=200 "website=[[YouTube]] }}</ref> but would not have been together in the same room.")
![The [[cooling tower]]s of the [[Philippsburg Nuclear Power Plant]], in [[Germany]].](https://commons.wikimedia.org/wiki/Special:FilePath/Philippsburg2.jpg?width=200 "The [[cooling tower]]s of the [[Philippsburg Nuclear Power Plant]], in [[Germany]].")
![Drawing of the first artificial reactor, [[Chicago Pile-1]].](https://commons.wikimedia.org/wiki/Special:FilePath/Stagg Field reactor.jpg?width=200 "Drawing of the first artificial reactor, [[Chicago Pile-1]].")
![The stages of binary fission in a liquid drop model. Energy input deforms the nucleus into a fat "cigar" shape, then a "peanut" shape, followed by binary fission as the two lobes exceed the short-range [[nuclear force]] attraction distance, then are pushed apart and away by their electrical charge. In the liquid drop model, the two fission fragments are predicted to be the same size. The nuclear shell model allows for them to differ in size, as usually experimentally observed.](https://commons.wikimedia.org/wiki/Special:FilePath/Stdef2.png?width=200 "The stages of binary fission in a liquid drop model. Energy input deforms the nucleus into a fat \"cigar\" shape, then a \"peanut\" shape, followed by binary fission as the two lobes exceed the short-range [[nuclear force]] attraction distance, then are pushed apart and away by their electrical charge. In the liquid drop model, the two fission fragments are predicted to be the same size. The nuclear shell model allows for them to differ in size, as usually experimentally observed.")
![Fission product yields by mass for [[thermal neutron]] fission of [[uranium-235]], [[plutonium-239]], a combination of the two typical of current nuclear power reactors, and [[uranium-233]] used in the [[thorium cycle]].](https://commons.wikimedia.org/wiki/Special:FilePath/ThermalFissionYield.svg?width=200 "Fission product yields by mass for [[thermal neutron]] fission of [[uranium-235]], [[plutonium-239]], a combination of the two typical of current nuclear power reactors, and [[uranium-233]] used in the [[thorium cycle]].")
Definition
Wikipedia
The name Atom applies to a pair of related Web standards. The Atom Syndication Format is an XML language used for web feeds, while the Atom Publishing Protocol (AtomPub or APP) is a simple HTTP-based protocol for creating and updating web resources.
Web feeds allow software programs to check for updates published on a website. To provide a web feed, the site owner may use specialized software (such as a content management system) that publishes a list (or "feed") of recent articles or content in a standardized, machine-readable format. The feed can then be downloaded by programs that use it, like websites that syndicate content from the feed, or by feed reader programs that allow internet users to subscribe to feeds and view their content.
A feed contains entries, which may be headlines, full-text articles, excerpts, summaries or links to content on a website along with various metadata.
The Atom format was developed as an alternative to RSS. Ben Trott, an advocate of the new format that became Atom, believed that RSS had limitations and flaws—such as lack of on-going innovation and its necessity to remain backward compatible—and that there were advantages to a fresh design.
Proponents of the new format formed the IETF Atom Publishing Format and Protocol Workgroup. The Atom Syndication Format was published as an IETF proposed standard in RFC 4287 (December 2005), and the Atom Publishing Protocol was published as RFC 5023 (October 2007).
