Table 5.
Open in new tab

Values for our single-parameter baryonic feedback model as a function of the sub-grid heating temperature in the bahamas feedback models. In the formulae below |$\theta =\log _{10}(T_\mathrm{AGN}/10^{7.8}\, \mathrm{K})$|⁠. In equation (24) β = 2 has been fixed. Parameter X(z) is constructed from X0 and Xz as |$X(z) = X_0\times 10^{z X_z}$|⁠.

ParameterEquationbahamas formula
B0203.44–0.496θ
Bz20−0.0671–0.0371θ
f*, 0/10−2252.01–0.30θ
f*, z250.409+0.0224θ
|$\log _{10}(M_{\mathrm{b},0}/\, h^{-1}\, \mathrm{M_\odot })$|2413.87+1.81θ
Mb, z24−0.108+0.195θ
ParameterEquationbahamas formula
B0203.44–0.496θ
Bz20−0.0671–0.0371θ
f*, 0/10−2252.01–0.30θ
f*, z250.409+0.0224θ
|$\log _{10}(M_{\mathrm{b},0}/\, h^{-1}\, \mathrm{M_\odot })$|2413.87+1.81θ
Mb, z24−0.108+0.195θ
Table 5.
Open in new tab

Values for our single-parameter baryonic feedback model as a function of the sub-grid heating temperature in the bahamas feedback models. In the formulae below |$\theta =\log _{10}(T_\mathrm{AGN}/10^{7.8}\, \mathrm{K})$|⁠. In equation (24) β = 2 has been fixed. Parameter X(z) is constructed from X0 and Xz as |$X(z) = X_0\times 10^{z X_z}$|⁠.

ParameterEquationbahamas formula
B0203.44–0.496θ
Bz20−0.0671–0.0371θ
f*, 0/10−2252.01–0.30θ
f*, z250.409+0.0224θ
|$\log _{10}(M_{\mathrm{b},0}/\, h^{-1}\, \mathrm{M_\odot })$|2413.87+1.81θ
Mb, z24−0.108+0.195θ
ParameterEquationbahamas formula
B0203.44–0.496θ
Bz20−0.0671–0.0371θ
f*, 0/10−2252.01–0.30θ
f*, z250.409+0.0224θ
|$\log _{10}(M_{\mathrm{b},0}/\, h^{-1}\, \mathrm{M_\odot })$|2413.87+1.81θ
Mb, z24−0.108+0.195θ
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