Two-particle correlations in 158 A GeV collisions
- Aggarwal, M M
- Agnihotri, A
- Ahammed, Z
- Angelis, Aris L S
- Antonenko, V G
- Arefev, V
- Astakhov, V A
- Avdeichikov, V
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- Carlén, L
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- Chattopadhyay, S
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- Claussen, A
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- Gustafsson, Hans Åke
- Gutbrod, H H
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- Kalechofsky, H
- Kamermans, R
- Kampert, K H
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- Langbein, I
- Lebedev, A
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- Luquin, Lionel
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- Man'ko, V I
- Martin, M
- Martínez, G
- Maksimov, A
- Mehdiyev, R
- Mgebrishvili, G
- Miake, Y
- Mikhalev, D
- Mir, M F
- Mishra, G C
- Miyamoto, Y
- Morrison, D
- Mukhopadhyay, D S
- Myalkovskii, V
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- Nayak, S K
- Nayak, T K
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- Nikitin, V A
- Nikolaev, S
- Nilsson, P O
- Nishimura, S
- Nomokonov, V P
- Nystrand, J
- Obenshain, F E
- Oskarsson, A
- Otterlund, I
- Pachr, M
- Parfenov, A
- Pavlyuk, S
- Peitzmann, Thomas
- Petracek, V
- Plasil, F
- Pinganaud, W
- Purschke, M L
- Räven, B
- Rak, J
- Raniwala, R
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- Ramamurthy, V S
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- Retière, F
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- Rufanov, I A
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- Siemiarczuk, T
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- Solomey, Nickolas
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- Steinberg, P
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- Sumbera, M
- Svensson, T
- Trivedi, M D
- Tsvetkov, A A
- Tykarski, L
- Urbahn, J
- Van den Pijll, E C
- van Eijndhoven, N
- van Nieuwenhuizen, G J
- Vinogradov, A
- Viyogi, Y P
- Vodopyanov, A S
- Vörös, S
- Wyslouch, B
- Yagi, K
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- Young, G R
DOIAbstract
The only known way to obtain indirect experimental information on the space-time structure of the particle emitting source created in relativistic heavy-ion collisions is two-particle (Hanbury-Brown- Twiss (HBT)) correlations. In particular a strong correlation between the momenta of the particles and the space-time emission point indicate expanding sources as predicted by hydrodynamical models. Calculations suggest that the contribution of the various resonances that decay after freezeout is mainly seen as a reduction of the correlation strength lambda at small K/sub T/ and distortion of the Gaussian shape for HBT spectra. (10 refs)
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