Main plot: the temperature dependence of the chiral condensate for four

Chiral Condensate Phase Diagram A) Phase Diagram For Inhomog

Chiral condensate per flavor ||ll 0 (a) contour map of the chiral condensate σ 0 . (b) enlargement of the

The chiral condensate ¯ ψψb normalized to the chiral condensate in the Chiral condensate as a function of i for 0.0025 and 0.005. fig. 3 Phase diagram for chiral symmetry restoration and meson condensation in

Figure 2 from Visualization of chiral condensate at finite temperature

Chiral phase diagram for z 1+1 2

The equation of state for the chiral condensate ¯ ψψ and the new order

Figure 2 from visualization of chiral condensate at finite temperatureThe critical behavior of the chiral condensate as a function of the Average phase (squares) and covariance between chiral condensate andThe θ dependence of the chiral condensate at m/g = 0.0625, 0.125, 0.25.

Chiral phase diagram for different volumes selections.Chiral condensate φ l (normalized to the vacuum value) and Chiral condensate ¯ ≡ (1/2) (/) ln steph [15].Chiral condensate at β = 0 on a 4 × 4 lattice, using the mesonic worm.

Chiral condensate comparison with [55]. | Download Scientific Diagram
Chiral condensate comparison with [55]. | Download Scientific Diagram

A) phase diagram for inhomogeneous chiral condensate (red dots

The equation of state for the chiral condensate ¯ ψψ and the new orderThe critical behaviors of the chiral condensate for the two different The chiral condensate and its reduced form with subtracted derivativeThe chiral condensate ¯ ψψ as a function of β for different values of.

The critical behaviors of the chiral condensate for the two differentChiral condensate (blue line) and pion condensate (red line) as Chiral condensate as a function of temperature, for several values ofHistograms of the chiral condensate for n f = 2, λ g = 0.5 and lattice.

Histograms of the chiral condensate for N f = 2, λ g = 0.5 and lattice
Histograms of the chiral condensate for N f = 2, λ g = 0.5 and lattice

(a) the chiral condensate σ of model i as a function of temperature t

Main plot: the temperature dependence of the chiral condensate for fourSame plots of fig. 5 but for the chiral condensate. Real and imaginary part of the chiral condensate on the thimbles1: temperature dependence of the chiral condensate from lattice qcd [b.

Chiral condensate as a function of temperature and at zero chemicalThe subtracted chiral condensate ∆ l,s as a function of the Chiral condensate comparison with [55].The unsubtracted chiral condensate for c 1 = 0, 0.001, 0.01, 0.02, 0.04.

Main plot: the temperature dependence of the chiral condensate for four
Main plot: the temperature dependence of the chiral condensate for four

Schematic picture of the chiral condensate (top panels) and

Density plot of the chiral condensate from β-vqe along with t /g -µ/g .

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The critical behaviors of the chiral condensate for the two different
The critical behaviors of the chiral condensate for the two different

The chiral condensate ¯ ΨΨ as a function of β for different values of
The chiral condensate ¯ ΨΨ as a function of β for different values of

The critical behavior of the chiral condensate as a function of the
The critical behavior of the chiral condensate as a function of the

Chiral condensate as a function of temperature and at zero chemical
Chiral condensate as a function of temperature and at zero chemical

The Equation of State for the chiral condensate ¯ ψψ and the new order
The Equation of State for the chiral condensate ¯ ψψ and the new order

Same plots of Fig. 5 but for the chiral condensate. | Download
Same plots of Fig. 5 but for the chiral condensate. | Download

Average phase (squares) and covariance between chiral condensate and
Average phase (squares) and covariance between chiral condensate and

Figure 2 from Visualization of chiral condensate at finite temperature
Figure 2 from Visualization of chiral condensate at finite temperature

Chiral condensate φ l (normalized to the vacuum value) and
Chiral condensate φ l (normalized to the vacuum value) and