Abstract

The Solenoidal Tracker at RHIC (STAR) experiment takes advantage of its excellent tracking and particle identification capabilities at mid-rapidity to explore the properties of strongly interacting QCD matter created in heavy-ion collisions at RHIC. The STAR collaboration presented 7 parallel and 2 plenary talks at Strangeness in Quark Matter 2017 and covered various topics including heavy flavor measurements, bulk observables, electro-magnetic probes and the upgrade program. This paper highlights some of the selected results.

Highlights

  • Relativistic heavy-ion collisions provide a unique tool to study the most intriguing aspects of the strong interaction in the laboratory

  • The broadened ρ model calculation [30], which has successfully described the dielectron invariant mass spectra integrated over pT at SPS and RHIC, can not describe the significant enhancement yields observed at very low pT in peripheral A + A collisions

  • Solenoidal Tracker at RHIC (STAR) has presented a w√ide variety of measurements for p+p, p+Au, Au+Au, and U+U collisions, at energies ranging from sNN = 19.6 to 200 GeV

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Summary

Introduction

Relativistic heavy-ion collisions provide a unique tool to study the most intriguing aspects of the strong interaction in the laboratory. In high energy heavy-ion collisions performed at RHIC and the LHC, the achieved energy densities are extremely high so that a new form of matter, referred to as the quark-gluon plasma (QGP) [1], can be created. This matter has been observed to quickly thermalize and evolve as a perfect fluid with small viscosity over entropy ratio. The STAR heavy-ion program at top RHIC energies is aimed to quantitatively study the properties of the strongly-interacting QGP matter created at vanishingly small baryon density.

Heavy flavor measurements
STAR Preliminary 1
Bulk observables
Electro-magnetic probes
Summary
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