All Tables
- Table 1:
The radius at the center of the last radial bin considered in the temperature fits and the best-fit parameters from fitting Eqs. (1) and (2) to the data (
errors in parenthesis). Here,
in Eq. (1) is used and, for both
fitting functions, T(r=0) is set equal to the temperature of the central bin.
- Table 2:
The radius at the center of the last radial bin
considered in the gas density fits and the best-fit parameters from
fitting Eq. (3) to the data (
errors in parenthesis).
- Table 3:
Cooling radius
and the results for the
effervescent heating model with no mass dropout (
). For each model,
i.e. for a fixed conduction efficiency
,
the extra
heating curve H derived from Eqs. (4)-(6) is
fitted using Eq. (11) over the radial range
,
and
the best-fit values for L and r0 are derived. Only models with
between
and
can be fitted.
The corresponding minimum and maximum values of the time-averaged luminosity Land the inner cutoff radius r0 are given. For most of the clusters, both
best-fit parameters for time-averaged luminosity and
inner cutoff radius decrease monotonically with increasing
.
These are labeled by an asterisk in the column trend.
and
are the time-averaged
luminosity and the inner cutoff radius for the
model with the smallest reduced
and
is the corresponding conduction
efficiency. The minimum and maximum values of the time-averaged luminosity
for finite integration limits (see
Sect. 4.5) are also listed. No result is found for A399.
- Table 4:
Results for the effervescent heating model with mass dropout or outflow. The
minimum and maximum values of the time-averaged luminosity L and the inner cutoff radius r0 are computed from the results of
models with conduction efficiency
and
.
The minimum
and maximum values of the time-averaged luminosity
for finite integration limits (see Sect. 4.5) are also listed. As
for the
models, no result is found for A399.