Talk:Elementary particle

message: This is to suggest you consider including a new topic in the "Beyond the Standard Model" section. The topic could feature the existence of a possible list of beyond-the-Standard-Model elementary particles.
The Springer-published book "Models for Physics of the Very Small and Very Large" provides a possible analog (for elementary particles) to the periodic table (for elements). The analog points, with some specificity regarding particle properties, to possible beyond-the-Standard-Model elementary particles. [Link to a Springer webpage for the book - http://www.springer.com/book/9789462391659 .]
The underlying basis is a model for 'elementary particles of which people know or that might be yet-to-be-discovered.' (People might say that the work does not provide a model of 'how nature (in effect) chooses to produce particles.' Perhaps this parallels the situation [for elements and the periodic table] before people understood atoms.)
A basis for the model is solutions to equations featuring isotropic pairs of isotropic quantum harmonic oscillators. A subset of the solutions correlates with the known (or, Standard Model) elementary particles. Other solutions correlate with possible yet-to-be-discovered (or, -inferred) elementary particles. Aspects include spins (for each particle), masses (for zero-mass particles), approximate masses (for non-zero-mass elementary bosons [This work provides a math-model basis for an approximation to the weak mixing angle {or, Weinberg angle}.]), and some allowed (or not allowed) interactions.
Each of the following lists families of possible particles - (a) Table 7.3.2 in the book and (b) slides 7 through 10 in a video. [Link to the video - https://www.youtube.com/watch?v=T-QwnG-M6H0 .]
Applications of (or, extensions to) above-discussed 'core' aspects of the work provide possible bases for dark matter, the 'dark energy' that correlates with more than two-thirds of the density of the universe, the 'dark energy' that correlates with changes in the 'rate of expansion of the universe,' and the ratio of density of dark matter to density of ordinary matter. [Sections 4.1 through 4.4 in the book; or, subsequent slides in the video.]
--Thomasjbuckholtz (talk) 21:40, 2 August 2016 (UTC)
thread_title:  Possible new topic for the "Beyond the Standard Model" section 

message: Recently,  introduced a new lead image to this article , , . When I click on this image to read it , the text is very small and difficult to read. This is in contrast to the previous the lead image, which was very easy to read when clicked on . I've gone back and forth with Cush on this. Can someone please fix this? Thank you, Isambard Kingdom (talk) 14:15, 31 March 2017 (UTC)
replies: text: I am moving the discussion to the image file page at Wikimedia Commons ♆ CUSH ♆ 14:33, 31 March 2017 (UTC)

text: I don't understand why this article in particular should have a different version of the figure to standard model (or the ). It makes zero sense to me, and I think comes under WP:CSD#F1. Two images means twice the work in maintaining them both. Replacing the old image with the one with the black background is also quite a lot of work (for no real gain) and results in loss of history. — dukwon (talk) (contribs) 12:18, 10 April 2017 (UTC)

text: I don't see  explaining what was wrong the previous/regular file - :File:Standard_Model_of_Elementary_Particles.svg, why a file with a dark background is required or preferred over the more widely used file, or if there is an issue with the more widely used file, why it hasn't been replaced elsewhere with this new version. It's also not clear why this discussion has been moved to Commons, this is an English Wikipedia content issue. Cush - there seems to be clear issues with the use of the new file, I would suggest reverting to the previous version until you can gain consensus to use your new version, and can work out the claimed technical issues. Nick (talk) 12:50, 10 April 2017 (UTC)
replies: text: Restored the original longstanding version. , gain consensus for your change because we shouldn't be using two versions of the same thing across different articles. Headbomb {t · c · p · b} 13:17, 10 April 2017 (UTC)
thread_title:  Lead image (difficult to eat when clicked on) 

message: It says that the graviton has its own antiparticle rather than it is its own antipartitcle, and then proceeds to explain that it would anhillate if existed and would be difficult to detect. By the same reasoning a photon would be hypothetical since it is its own antiparticle  — Preceding unsigned comment added by Mupufata (talk • contribs) 14:31, 13 June 2017 (UTC)
replies: text: Yeah, the main graviton article mentions nothing about annihilation at all. I had a go at fixing the section. — dukwon (talk) (contribs) 16:32, 13 June 2017 (UTC)
thread_title:  Graviton 

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thread_title:  External links modified (January 2018) 

message: I got to the following in the introduction:
Via quantum theory, protons and neutrons were found to contain quarks—up quarks and down quarks—now considered elementary particles.
That's a big step with no explanation and everything from here on depends upon it.
Whats the point of the rest if most people who know very little about do not get this explained?
john f 2.30.131.253 (talk) 12:37, 6 April 2018 (UTC)
thread_title:  Something missing? 

message: Can this part be rewritten to state something like in Standard Model physics elementary particles have no known substructure, but in the string theory model, particles have a string substructure, in which particles are described as being composed of fluctuations in the spacetime environment and therefore fit sensibly in a spacetime framework. -Inowen (nlfte) 19:49, 29 August 2018 (UTC)
thread_title:  No substructure? 

message: Typically for en.Wikipedia, we see users busy pushing some , blatant off-topic about “holons, spinons, and orbitons” (and the resulting complaint lies for four years without motion), whereas a reader can learn little about conceptual properties. #No substructure? True, but too vague, and where does it explain that spin doesn’t require substructure? Particle statistics? True, but no different from subatomic particles in general. Masses? We know that the principal distinction is massive/massless (due to difference between little groups), whereas specific [positive] mass values for elementary particles, except for electron, are not very important for “users” in atomic physics and above. The first specific thing of crucial importance that  can remind are Feynman diagrams, but holy crap… the article does not show any—not even in a navbox!—and doesn’t mention such term altogether. Misery. Look at particle, subatomic particle, and boson for comparison. Incnis Mrsi (talk) 07:17, 17 August 2019 (UTC)
replies: text: For neutrinos … and isn’t needed for electric charge. Ironic. Incnis Mrsi (talk) 09:07, 17 August 2019 (UTC)
thread_title:  Scarce on conceptual properties 

message: In the sidebar diagram, "photon" links to the "proton" page. I don't know how to edit those sidebar templates. So if someone could do that, thanks. Renyu777 (talk) 00:07, 12 November 2022 (UTC)
thread_title:  In the sidebar diagram, photon links to proton. 

message: Deals with the study of all elements which is discovered expect hydrocarbons and their relatives or derivatives 39.33.32.151 (talk) 14:12, 8 December 2022 (UTC)
thread_title:  Inorganic chemistry 

message: From the first paragraph: "Particles currently thought to be elementary include electrons, the fundamental fermions (quarks, leptons, antiquarks, and antileptons, which generally are matter particles and antimatter particles), as well as the fundamental bosons...". That seems like a strange way to put it (mentioning electrons *and* leptons). Bruce Mardle (talk) 14:15, 11 March 2023 (UTC)
thread_title:  Aren't electrons leptons?