Temperature Dependence of Electric and Magnetic Gluon Condensates
arXiv:hep-ph/9302300 · doi:10.1103/PhysRevD.47.4084
Abstract
The contribution of Lorentz non-scalar operators to finite temperature correlation functions is discussed. Using the local duality approach for the one-pion matrix element of a product of two vector currents, the temperature dependence of the average gluonic stress tensor is estimated in the chiral limit to be . At a normalization point GeV we obtain . Together with the known temperature dependence of the Lorentz scalar gluon condensate we are able to infer and separately in the low-temperature hadronic phase.
11 pages, TPI-MINN-92/37-T
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