Supersymmetry breaking

Supersymmetry breaking is a topic that has captured the attention of many people throughout history. Since its discovery, it has aroused the interest of researchers, scientists, and the general public. In this article, we will explore the different facets of Supersymmetry breaking, its impact on society, its relevance today, and its role in the future. From its influence on popular culture to its importance in science and technology, Supersymmetry breaking has left an indelible mark on the world around us. Through a comprehensive analysis, we will try to shed light on this fascinating topic and its implications in our daily lives.

In particle physics, supersymmetry breaking is the process to obtain a seemingly non-supersymmetric physics from a supersymmetric theory which is a necessary step to reconcile supersymmetry with actual experiments. It is an example of spontaneous symmetry breaking. In supergravity, this results in a slightly modified counterpart of the Higgs mechanism where the gravitinos become massive.

Supersymmetry breaking occurs at supersymmetry breaking scale. The superpartners, whose mass would otherwise be equal to the mass of the regular particles in the absence of the SUSY breaking, become much heavier.

In the domain of applicability of stochastic differential equations including, e.g, classical physics, spontaneous supersymmetry breaking encompasses such nonlinear dynamical phenomena as chaos, turbulence, pink noise, etc.

Supersymmetry breaking scale

In particle physics, supersymmetry breaking scale is the energy scale where supersymmetry breaking takes place.

If supersymmetry fully solves the hierarchy problem, this scale should not be far from 1000 GeV, and therefore it should be accessible at the LHC and other future accelerators. This scenario is called low energy supersymmetry.

However, supersymmetry may also be broken at high energy scales. Finally, Nature does not have to be supersymmetric at any scale.

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