![\begin{figure}
\par\includegraphics[width=7cm,clip]{2714fg1.eps}
\end{figure}](/articles/aa/full/2005/26/aa2714-05/img30.gif) |
Figure 1: Mass density profiles within the loop according to Eq. (13). Parameters are given in Table 2. |
| Open with DEXTER | |
In the text
![\begin{figure}
\par {\bf a}\hskip12pt\includegraphics[width=6.8cm,clip]{2714fg2a...
...ar {\bf b}\hskip12pt\includegraphics[width=6.8cm,clip]{2714fg2b.eps}\end{figure}](/articles/aa/full/2005/26/aa2714-05/img45.gif) |
Figure 2:
a) Time-signatures of mass density 
profiles measured on the line x=0.
b) The density at the loop's top
in time.
Parameters of the simulations are given in Tables 2 and 3.
|
| Open with DEXTER | |
In the text
![\begin{figure}
\par {\bf a}\hskip12pt\includegraphics[width=6.8cm,clip]{2714fg3a...
...]
{\bf b}\hskip12pt\includegraphics[width=7.2cm,clip]{2714fg3b.eps}
\end{figure}](/articles/aa/full/2005/26/aa2714-05/img54.gif) |
Figure 3:
Power spectra of the signals of Fig. 2. a) Wavelet spectrum. b)
Frequency spectrum: the continuous and dashed lines are drawn using the FFT and Maximum method
respectively. Using the values in Table 1 the main peaks in the spectra correspond to a
wave period of
 ,
i.e. to a frequency of
 .
|
| Open with DEXTER | |
In the text