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Power Law in Micro-Canonical Ensemble with Scaling Volume Fluctuations

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arxiv 0804.0075 v3 pith:DS23AD22 submitted 2008-04-01 hep-ph

classification hep-ph
keywords particlefluctuationsmomentumpowerscalingvolumecollisionsdependence
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Volume fluctuations are introduced in a statistical modelling of relativistic particle collisions. The micro-canonical ensemble is used, and the volume fluctuations are assumed to have the specific scaling properties. This leads to the KNO scaling of the particle multiplicity distributions as measured in p+p interactions. A striking prediction of the model is a power law form of the single particle momentum spectrum at high momenta. Moreover, the mean multiplicity of heavy particles also decreases as a function of the particle mass according to a power law. Finally, it is shown that the dependence of the momentum spectrum on the particle mass and momentum reduces to the dependence on the particle energy. These results resemble the properties of particle production in collisions of high energy particles.

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  1. Soft and semihard components of multiplicity distributions in the $k_T$ factorization approach

    hep-ph 2025-06 conditional novelty 5.0 of 10

    Using a transverse momentum cutoff in kT factorization, the authors fix the soft and semihard mean multiplicities in a double negative binomial fit and find that KNO scaling holds only for narrow rapidity windows and ...

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