Search for DCC in relativistic heavy-ion collisions : Possibilities and Limitations
arXiv:nucl-ex/0211007 · doi:10.1142/S0217751X04018105
Abstract
The experimental observation of disoriented chiral condensate is affected due to various physical and detector related effects. We study and quantify the strength of the experimental signal, ``neutral pion fraction'' within the framework of a simple DCC model, using the analysis methods based on the multi-resolution discrete wavelet technique and by evaluating the signal to background ratio. The scope and limitations of DCC search in heavy-ion collision experiments using various combination of detector systems are investigated.
References in corpus (15)
- Static and Dynamic Critical Phenomena at a Second Order QCD Phase Transition
- Event-by-event fluctuations of average transverse momentum in central Pb+Pb collisions at 158 GeV per nucleon
- How Disoriented Chiral Condensates Form: Quenching vs. Annealing
- A Search for Disoriented Chiral Condensate at the Fermilab Tevatron
- Domain Structure of a Disoriented Chiral Condensate From a Wavelet Perspective
- A Preshower Photon Multiplicity Detector for the WA98 Experiment
- Systematics of Inclusive Photon Production in 158 AGeV Pb Induced Reactions on Ni, Nb, and Pb Targets
- Application of neural network for photon-hadron discrimination in a preshower detector in high energy heavy ion collisions
- Localized Domains of Disoriented Chiral Condensates
- Search for DCC in Relativistic Heavy-Ion Collision Through Event Shape Analysis
- Domains of Disoriented Chiral Condensate
- Isospin Fluctuations from Multiple Domains of Disoriented Chiral Condensate
- Independent domains of disoriented chiral condensate
- A Fluctuation Probe of Disoriented Chiral Condensates
- Phi-measure and Disoriented chiral condensates