BNL-RHIC-SPHENIX()

sPHENIX
(
  • Proposed: 2015,
  • Still Running
)
Predecessor Experiment:
sPHENIX Collaboration
sPHENIX is a collaboration, detector, and experiment proposed to succeed the PHENIX experiment at the Relativistic Heavy Ion Collider (RHIC). sPHENIX will measure jets, jet correlations and upsilons to determine the temperature dependence of transport coefficients and the color screening length in the QGP. It will do this with high rate, large acceptance, hadronic and electromagnetic calorimetry and precision tracking. For jet and photon observables, sPHENIX will be able to sample half a trillion Au+Au events in 20 week RHIC run. It will have mass resolution sufficient to distinguish separately the three states of the upsilon family. The hadronic calorimetry will enable sPHENIX to trigger on jets in an unbiased fashion in p+p and p+Au and make unbiased measurements of jet observables in all systems.

Papers per year

20152024

Number of authors

27
28

Document Type

27
2
1
1
1

Subject

24
10
8
1
1
30 results
Citation Summary
Most Recent
Collaboration
for the collaboration. (2024)
Collaboration
for the collaboration. (2024)
Collaboration
for the collaboration. (2023)
  • Published in:
    • EPJ Web Conf. 276 (2023) 05004
  • Contribution to:
Collaboration
for the collaboration. (Nov 23, 2022)
  • Published in:
    • PoS ICHEP2022 224
  • Contribution to:
Collaboration
for the collaboration. (Mar 3, 2021)
  • Published in:
    • PoS ICHEP2020 (2021) 731
  • Contribution to:
Collaboration
for the collaboration. (Jan, 2021)
  • Published in:
    • J.Phys.Conf.Ser. 1498 (2020) 012024
  • Contribution to:
  • Published in:
    • J.Phys.Conf.Ser. 1498 (2020) 012025
  • Contribution to:
  • e-Print:
Collaboration
for the collaboration. (May 6, 2019)
  • Published in:
    • PoS MPGD2017 (2019) 075
  • Contribution to:
Collaboration
for the collaboration. (Feb, 2019)
  • Published in:
    • Nucl.Phys.A 982 (2019) 955-958
  • Contribution to:
Collaboration
for the collaboration. (Jan 28, 2019)
  • Published in:
    • PoS HardProbes2018 (2019) 013
  • Contribution to:
Collaboration
for the collaboration. (Jan 8, 2019)
  • Published in:
    • PoS HardProbes2018 (2019) 043
  • Contribution to:
Collaboration
for the collaboration. (Nov 24, 2018)
  • Published in:
    • PoS MPGD2017 (2019) 067
  • Contribution to:
Collaboration
for the collaboration. (Nov 17, 2018)
  • Published in:
    • PoS MPGD2017 (2019) 074
  • Contribution to:
Collaboration
for the collaboration. (Sep 7, 2018)
  • Published in:
    • PoS DIS2018 (2018) 178
  • Contribution to:
Collaboration
for the collaboration. (Jun 3, 2018)
  • Published in:
    • PoS MPGD2017 (2019) 044
  • Contribution to:
Collaboration
for the collaboration. (2018)
  • Published in:
    • EPJ Web Conf. 171 (2018) 10002
  • Contribution to:
Collaboration
for the collaboration. (Nov 27, 2017)
  • Published in:
    • J.Phys.Conf.Ser. 928 (2017) 1, 012014
  • Contribution to:
Collaboration
for the collaboration. (Nov, 2017)
  • Published in:
    • Nucl.Phys.A 967 (2017) 548-551
  • Contribution to:
Collaboration
for the collaboration. (Feb 7, 2017)
  • Published in:
    • J.Phys.Conf.Ser. 779 (2017) 1, 012019
  • Contribution to:
  • 1
  • 2
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