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Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/c

Taking into account the anisotropy of phase space in multiparticle production, a self-affine analysis of factorial moments was carried out on the NA22 data for $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/$c$. Within the transverse plane, the Hurst exponents measuring the anisotropy are consistent...

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Detalles Bibliográficos
Autores principales: Agababyan, N.M., Atayan, M.R., Charlet, M., Czyżewski, J., De Wolf, E.A., Dziunikowska, K., Endler, A.M.F., Garutchava, Z.Sh., Gulkanyan, H.R., Hakobyan, R.Sh., Karamyan, J.K., Kisielewska, D., Kittel, W., Liu, L.S., Mehrabyan, S.S., Metreveli, Z.V., Olkiewicz, K., Rizatdinova, F.K., Shabalina, E.K., Smirnova, L.N., Tabidze, M.D., Tikhonova, L.A., Tkabladze, A.V., Tomaradze, A.G., Verbeure, F., Wu, Y.F., Zotkin, S.A.
Lenguaje:eng
Publicado: 1996
Materias:
Acceso en línea:https://dx.doi.org/10.1016/0370-2693(96)00749-6
http://cds.cern.ch/record/305246
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author Agababyan, N.M.
Atayan, M.R.
Charlet, M.
Czyżewski, J.
De Wolf, E.A.
Dziunikowska, K.
Endler, A.M.F.
Garutchava, Z.Sh.
Gulkanyan, H.R.
Hakobyan, R.Sh.
Karamyan, J.K.
Kisielewska, D.
Kittel, W.
Liu, L.S.
Mehrabyan, S.S.
Metreveli, Z.V.
Olkiewicz, K.
Rizatdinova, F.K.
Shabalina, E.K.
Smirnova, L.N.
Tabidze, M.D.
Tikhonova, L.A.
Tkabladze, A.V.
Tomaradze, A.G.
Verbeure, F.
Wu, Y.F.
Zotkin, S.A.
author_facet Agababyan, N.M.
Atayan, M.R.
Charlet, M.
Czyżewski, J.
De Wolf, E.A.
Dziunikowska, K.
Endler, A.M.F.
Garutchava, Z.Sh.
Gulkanyan, H.R.
Hakobyan, R.Sh.
Karamyan, J.K.
Kisielewska, D.
Kittel, W.
Liu, L.S.
Mehrabyan, S.S.
Metreveli, Z.V.
Olkiewicz, K.
Rizatdinova, F.K.
Shabalina, E.K.
Smirnova, L.N.
Tabidze, M.D.
Tikhonova, L.A.
Tkabladze, A.V.
Tomaradze, A.G.
Verbeure, F.
Wu, Y.F.
Zotkin, S.A.
author_sort Agababyan, N.M.
collection CERN
description Taking into account the anisotropy of phase space in multiparticle production, a self-affine analysis of factorial moments was carried out on the NA22 data for $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/$c$. Within the transverse plane, the Hurst exponents measuring the anisotropy are consistent with unit value (i.e. no anisotropy). They are, however, only half that value when the longitudinal direction is compared to the transverse ones. Fractality, indeed, turns out to be self-affine rather than self-similar in multiparticle production. In three-dimensional phase space, power-law scaling is observed to be better realized in self-affine than in self-similar analysis.
id cern-305246
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1996
record_format invenio
spelling cern-3052462023-03-14T18:54:51Zdoi:10.1016/0370-2693(96)00749-6http://cds.cern.ch/record/305246engAgababyan, N.M.Atayan, M.R.Charlet, M.Czyżewski, J.De Wolf, E.A.Dziunikowska, K.Endler, A.M.F.Garutchava, Z.Sh.Gulkanyan, H.R.Hakobyan, R.Sh.Karamyan, J.K.Kisielewska, D.Kittel, W.Liu, L.S.Mehrabyan, S.S.Metreveli, Z.V.Olkiewicz, K.Rizatdinova, F.K.Shabalina, E.K.Smirnova, L.N.Tabidze, M.D.Tikhonova, L.A.Tkabladze, A.V.Tomaradze, A.G.Verbeure, F.Wu, Y.F.Zotkin, S.A.Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/cParticle Physics - ExperimentTaking into account the anisotropy of phase space in multiparticle production, a self-affine analysis of factorial moments was carried out on the NA22 data for $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/$c$. Within the transverse plane, the Hurst exponents measuring the anisotropy are consistent with unit value (i.e. no anisotropy). They are, however, only half that value when the longitudinal direction is compared to the transverse ones. Fractality, indeed, turns out to be self-affine rather than self-similar in multiparticle production. In three-dimensional phase space, power-law scaling is observed to be better realized in self-affine than in self-similar analysis.Taking into account the anisotropy of phase space in multiparticle production, a self-affine analysis of factorial moments was carried out on the NA22 data for $\p~+\Pp$ and $\PK~+\Pp$ collisions at 250 GeV/$c$. Within the transverse plane, the Hurst exponents measuring the anisotropy are consistent with unit value (i.e. no anisotropy). They are, however, only half that value when the longitudinal direction is compared to the transverse ones. Fractality, indeed, turns out to be self-affine rather than self-similar in multiparticle production. In three-dimensional phase space, power-law scaling is observed to be better realized in self-affine than in self-similar analysis.Taking into account the anisotropy of phase space in multiparticle production, a self-affine analysis of factorial moments was carried out on the NA22 data for $\p~+\Pp$ and $\PK~+\Pp$ collisions at 250 GeV/$c$. Within the transverse plane, the Hurst exponents measuring the anisotropy are consistent with unit value (i.e. no anisotropy). They are, however, only half that value when the longitudinal direction is compared to the transverse ones. Fractality, indeed, turns out to be self-affine rather than self-similar in multiparticle production. In three-dimensional phase space, power-law scaling is observed to be better realized in self-affine than in self-similar analysis.Taking into account the anisotropy of phase space in multiparticle production, a self-affine analysis of factorial moments was carried out on the NA22 data for π + p and K + p collisions at 250 GeV/ c . Within the transverse plane, the Hurst exponents measuring the anisotropy are consitent with unit value (i.e. no anisotropy). They are, however, only half that value when the longitudinal direction is compared to the transverse ones. Fractality, indeed, turns out to be self-affine rather than self-similar in multiparticle production. In three-dimensional phase space, power-law scaling is observed to be better realized in self-affine than in self-similar analysis.Taking into account the anisotropy of phase space in multiparticle production, a self-affine analysis of factorial moments was carried out on the NA22 data for $\p^+\Pp$ and $\PK^+\Pp$ collisions at 250 GeV/$c$. Within the transverse plane, the Hurst exponents measuring the anisotropy are consistent with unit value (i.e. no anisotropy). They are, however, only half that value when the longitudinal direction is compared to the transverse ones. Fractality, indeed, turns out to be self-affine rather than self-similar in multiparticle production. In three-dimensional phase space, power-law scaling is observed to be better realized in self-affine than in self-similar analysis.hep-ex/9606005HEN-387HEN-387oai:cds.cern.ch:3052461996-06-14
spellingShingle Particle Physics - Experiment
Agababyan, N.M.
Atayan, M.R.
Charlet, M.
Czyżewski, J.
De Wolf, E.A.
Dziunikowska, K.
Endler, A.M.F.
Garutchava, Z.Sh.
Gulkanyan, H.R.
Hakobyan, R.Sh.
Karamyan, J.K.
Kisielewska, D.
Kittel, W.
Liu, L.S.
Mehrabyan, S.S.
Metreveli, Z.V.
Olkiewicz, K.
Rizatdinova, F.K.
Shabalina, E.K.
Smirnova, L.N.
Tabidze, M.D.
Tikhonova, L.A.
Tkabladze, A.V.
Tomaradze, A.G.
Verbeure, F.
Wu, Y.F.
Zotkin, S.A.
Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/c
title Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/c
title_full Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/c
title_fullStr Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/c
title_full_unstemmed Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/c
title_short Large self-affine fractality in $\pi^{+}p$ and $K^{+}p$ collisions at 250 GeV/c
title_sort large self-affine fractality in $\pi^{+}p$ and $k^{+}p$ collisions at 250 gev/c
topic Particle Physics - Experiment
url https://dx.doi.org/10.1016/0370-2693(96)00749-6
http://cds.cern.ch/record/305246
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