Ab Initio Calculation of Finite Temperature Charmonium Potentials
arXiv:1303.5331 · doi:10.1103/PhysRevD.89.071502
Abstract
The interquark potential in charmonium states is calculated for the first time in both the zero and non-zero temperature phases from a first-principles lattice QCD calculation. Simulations with two dynamical quark flavours were used with temperatures T in the range 0.4 T_c \lesssim T \lesssim 1.7 T_c, where T_c is the deconfining temperature. The correlators of point-split operators were analysed to gain spatial information about the charmonium states. A method, introduced by the HAL QCD collaboration and based on the Schroedinger equation, was applied to obtain the interquark potential. We find a clear temperature dependence, with the central potential becoming flatter (more screened) as the temperature increases.
5 pages
References in corpus (13)
- Nuclear Force from Lattice QCD
- Static quark-antiquark pairs at finite temperature
- Charmonium at high temperature in two-flavor QCD
- Can quarkonia survive deconfinement ?
- Heavy quarkonium in any channel in resummed hot QCD
- Quarkonium states in an anisotropic QCD plasma
- Bottomonium above deconfinement in lattice nonrelativistic QCD
- The Polyakov Loop and its Relation to Static Quark Potentials and Free Energies
- Disentangling the timescales behind the non-perturbative heavy quark potential
- S wave bottomonium states moving in a quark-gluon plasma from lattice NRQCD
- Dynamical QCD simulations on anisotropic lattices
- On static quark anti-quark potential at non-zero temperature
- Static potentials for quarkonia at finite temperatures
Cited by in corpus (8)
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- Charmonium Potentials At Non-Zero Temperature
- The Debye Length and the Running Coupling of QCD: a Potential and Phenomenological Approach
- Bottomonium in the plasma: lattice results