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\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/mnt/WWW/ftp/outgoing/qaqc/cosenza/cosenza_qaqc_update_15.eps,height=11.0cm}}
\end{center}

{\bf Figure~1:} Setup for wire tension measurement in drift tubes
with a commercial tension meter using the oscillation frequency excited
in a magnetic field (Cosenza).

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/MDT-Nursery-1.eps,angle=90,height=10.0cm}}
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{\bf Figure~2:} Graphical user interface for a drift tube test control program (Cosenza).

\end{figure}

\clearpage


\begin{table}[t]

\begin{tabular}{p{85mm}p{90mm}}
\multicolumn{2}{c}{\vbox to 25mm{\vfill}}  \\

\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/vblock_lmu.eps,width=10.0cm}} &

\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/xray_wire.eps,width=9.0cm}} \\

\vspace{-40mm}
{\bf Figure~3:} Principle of the stereo X-ray measurement of wire positions in
drift tubes with respect to reference wires in the jigging (Brandeis University).  &
                                                        
\vspace{-40mm}
{\bf Figure~4:} Endplug holder with X-ray CCD for wire position measurement with
X-rays (Brandeis University, LMU Munich). \\

\end{tabular}

\vspace{-25mm}
\begin{center}
%\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/wire-position-measurement.eps,angle=90,height=11.5cm}}
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{\bf Figure~5:} Principle of the electromagnetic wire position measurement in
drift tubes with two pick-up coils. The tube is rotated by $90^\circ$ to measure
both transverse coordinates (Pavia, Rome).

\end{table}
\clearpage


\begin{figure}

\begin{center}
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\mbox{\epsfig{figure=/mnt/WWW/ftp/outgoing/qaqc/xray/xray_setup_final_xy_1.eps,angle=90,width=18.0cm}}
\end{center}

{\bf Figure~6:} Quality control test stand for wire position measurements in
drift tubes in series production (here for the stereo X-ray method). 
The tube is held during the measurement in the same way as in the combs for chamber assembly 
(MPI Munich, LMU Munich, Dubna).
\end{figure}

\clearpage

 
\begin{figure}

\vspace{-5mm}
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\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/Manifold_1.eps,height=10.0cm}}
\end{center}

{\bf Figure~7:} Drift tube gas leak test stand with single- and multi-tube containers. The
leakage of helium from the drift tubes into the evacuated containers is measured
with a mass spectrometer (Dubna).

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\end{center}

{\bf Figure~8:} Integrated drift tube leak and high voltage test stand
with up to 60 single-tube containers. The tubes are tested sequentially with a
mass spectrometer under computer control (Frascati).
\end{figure}

\clearpage
 

\end{document}
