Balance Function in High-Energy Collisions
Advances in High Energy Physics • 2015
معلومات البحث
المؤلفون
Abdel Nasser TAWFIK, Asmaa G. Shalaby
الكلمات المفتاحية
Not Available
المجلة العلمية
Advances in High Energy Physics
الناشر
Not Available
المجلد
2015
العدد
Article ID 186812
الصفحات
24
publication.type
International
رابط البحث
Open Link
المواد المرفقة
Not Available
الملخص
Aspects and implications of the balance functions (BF) in high-energy physics are reviewed. The various calculations and
measurements depending on different quantities, for example, system size, collisions centrality, and beam energy, are discussed.
First, the different definitions including advantages and even short-comings are highlighted. It is found that BF, which are mainly
presented in terms of relative rapidity, and relative azimuthal and invariant relative momentum, are sensitive to the interaction
centrality but not to the beamenergy and can be used in estimating the hadronization time and the hadron-quark phase transition.
Furthermore, the quark chemistry can be determined.The chemical evolution of the new-state-of-matter, the quark-gluon plasma,
and its temporal-spatial evolution, femtoscopy of two-particle correlations, are accessible. The production time of positive-negative
pair of charges can be determined from the widths of BF. Due to the reduction in the diffusion time, narrowed widths refer to
delayed hadronization. It is concluded that BF are powerful tools characterizing hadron-quark phase transition and estimating
some essential properties.
measurements depending on different quantities, for example, system size, collisions centrality, and beam energy, are discussed.
First, the different definitions including advantages and even short-comings are highlighted. It is found that BF, which are mainly
presented in terms of relative rapidity, and relative azimuthal and invariant relative momentum, are sensitive to the interaction
centrality but not to the beamenergy and can be used in estimating the hadronization time and the hadron-quark phase transition.
Furthermore, the quark chemistry can be determined.The chemical evolution of the new-state-of-matter, the quark-gluon plasma,
and its temporal-spatial evolution, femtoscopy of two-particle correlations, are accessible. The production time of positive-negative
pair of charges can be determined from the widths of BF. Due to the reduction in the diffusion time, narrowed widths refer to
delayed hadronization. It is concluded that BF are powerful tools characterizing hadron-quark phase transition and estimating
some essential properties.
أعضاء هيئة التدريس - جامعة بنها