Supersymmetry breaking
phenomenon in which a hypothesized supersymmetry at high energy scales is spontaneously broken at low energy scales
In particle physics, supersymmetry breaking or SUSY breaking is a process via which a seemingly non-supersymmetric physics emerges from a supersymmetric theory. Assuming a breaking of supersymmetry is a necessary step to reconcile supersymmetry with experimental observations.
Superpartner particles, whose mass is equal to the mass of the regular particles in supersymmetry, become much heavier with supersymmetry breaking. In supergravity, this results in a slightly modified counterpart of the Higgs mechanism where the gravitinos become massive.
Supersymmetry breaking is relevant in the domain of applicability of stochastic differential equations, which includes classical physics, and encompasses nonlinear dynamical phenomena as chaos, turbulence, and pink noise. Various mechanisms for this breaking have been discussed by physicists, including soft SUSY breaking and types of spontaneous symmetry breaking.
Supersymmetry breaking scale
The energy scale where supersymmetry breaking takes place is known as the supersymmetry breaking scale. In the scenario known as low energy supersymmetry, in which supersymmetry fully solves the hierarchy problem, this scale should not be far from 1000 GeV, and therefore should be accessible using the Large Hadron Collider and future accelerators.
However, supersymmetry may also be broken at high energy scales. Nature does not have to be supersymmetric at any scale.
“Supersymmetry breaking” enters the record as phenomenon in which a hypothesized supersymmetry at high energy scales is spontaneously broken at low energy scales. Crown Archives preserves that source wording while asking what Supersymmetry, breaking and phenomenon can confirm, complicate or overturn.
Why this record matters
“Supersymmetry breaking” is worth following because a concise public description often conceals a longer documentary argument. Here, Supersymmetry, breaking and phenomenon provides the most credible route into that argument.
Vocabulary and entity names are the principal evidence signals here, because they determine the precision of every later search. The source revision retrieved here is dated May 11, 2026. The linked authority identifier is Q3941838. None of the 0 selected statements returned an explicit reference. The first chronological checks are 1000.
The absence of detail may reflect summary conventions rather than a lack of surviving documentation. The source lead contains qualifying language; that uncertainty should survive quotation, summary and reuse. Authority statements aid reconciliation but still require their own references, qualifiers and ranks to be checked.
How to read it
Use the entry as an orientation point, then follow its citations and revision history. Names, dates and institutional relationships should be checked against the original record.
- Subject orientation
- Search vocabulary
- Locating named sources
The closest primary source, responsible institution and strongest cited specialist reference.
Three-step research path
- Establish the record: confirm the title “Supersymmetry breaking”, its source revision and the description used here.
- Expand the search: follow Supersymmetry breaking primary sources, Supersymmetry breaking archive and Supersymmetry research across catalogues and specialist indexes.
- Test the account: compare the strongest cited source with the responsible institution’s current record and note any disagreement.
Questions for further research
- Which source most directly establishes the central claim about “Supersymmetry breaking”?
- Which cited source is closest to the event, object or claim?
- Which institution is responsible for the underlying evidence?
Search terms from this dossier
This entry incorporates text from “Supersymmetry breaking” on English Wikipedia. Contributors are listed in the page history. Text is available under the Creative Commons Attribution-ShareAlike 4.0 License. Selected authority identifiers and statements are retrieved from Wikidata under CC0; their references and qualifiers remain part of the verification path.