In this article, we will explore the fascinating world of Braid statistics, addressing its meanings, origins, impact on today's society and its relevance in different areas. Braid statistics has been the subject of study and debate for decades, and its presence has become increasingly significant in our daily lives. From its impact on popular culture to its influence on technology, Braid statistics has left its mark on history and continues to play a crucial role in the way we perceive the world around us. Throughout this article, we will analyze in detail the multiple aspects related to Braid statistics, with the aim of providing a comprehensive and enriching vision of this very relevant topic.
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| Statistical mechanics |
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In mathematics and theoretical physics, braid statistics is a generalization of the spin statistics of bosons and fermions based on the concept of braid group. While for fermions (bosons) the corresponding statistics is associated to a phase gain of () under the exchange of identical particles, a particle with braid statistics leads to a rational fraction of under such exchange [1][2] or even a non-trivial unitary transformation in the Hilbert space (see non-Abelian anyons). A similar notion exists using a loop braid group.
Braid statistics are applicable to theoretical particles such as the two-dimensional anyons and plektons.
A plekton is a hypothetical type of particle that obeys a different style of statistics with respect to the interchange of identical particles. It obeys the causality rules of algebraic quantum field theory, where only observable quantities need to commute at spacelike separation, where anyons follow the stronger rules of traditional quantum field theory; this leads, for example, to (2+1)D anyons being massless.[3]