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%------------------------------------------       
\begin{table}

\begin{tabular}{p{90mm}p{90mm}}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/vblock_lmu.eps,width=9.0cm}} &
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/xray_wire.eps,width=9.0cm}} \\

\vspace{-40mm}
{\bf Figure~1:} Principle of the stereo X-ray measurement of wire positions in
drift tubes with respect to reference wires.   &
                                                        
\vspace{-40mm}
{\bf Figure~2:} Endplug holder with X-ray CCD for wire position measurement with
X-rays.

\end{tabular}

\vspace{-20mm}
\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/wire-position-measurement.eps,angle=90,height=10.0cm}}
\end{center}

{\bf Figure~3:} 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.

\end{table}
\clearpage

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\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/mnt/WWW/ftp/outgoing/qaqc/xray/xray_setup_final_yz_1.eps,height=15.0cm}} 

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

{\bf Figure~4:} 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.
\end{figure}

\clearpage

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\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/mnt/WWW/ftp/outgoing/qaqc/cosenza/cosenza_qaqc_update_15.eps,height=9.5cm}}
\end{center}

{\bf Figure~5:} Setup for wire tension measurement in drift tubes via the oscillation frequency excited
in a magnetic field using a commercial tension meter (integrated with gas leak and high voltage test).


\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/MDT-Nursery-1.eps,angle=90,height=9.5cm}}
\end{center}

{\bf Figure~6:} Graphical user interface for a drift tube test control program.
\end{figure}

\clearpage

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\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/Manifold.eps,height=9.5cm}}
\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.

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/ATLAS-MDT-Tube-Tests.eps,angle=90,height=9.5cm}}
\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.
\end{figure}

\clearpage
 
\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/.at/mdt_data/kroha/qaqc/leak_detector4.eps,height=12cm}}
\end{center}

{\bf Figure~9:} Drift tube gas leak test stand with fixtures at the endplugs as well as sliding
along the tube which allow to measure helium leakage through endplugs or tube walls into 
evacuated volumes with a mass spectrometer (system developed for endcap chambers with
many different tube lengths).

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/comb.eps,width=\textwidth}}
\end{center}

{\bf Figure~10:} Control of tube placement on the end combs during chamber assembly
with a laser system.
\end{figure}

\clearpage

 
\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/control_display_color.eps,height=18.0cm}}
\end{center}

{\bf Figure~11:} Graphical user interface for a chamber assembly control program.

\end{figure}
\clearpage

 
\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/diff_manometer.eps,height=12.0cm}}
\end{center}

{\bf Figure~13:} Gas leak test stand for completed MDT chambers with differential manometer
and reference volume.

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/atlas/dubna_leak.eps,width=\textwidth}}
\end{center}

{\bf Figure~14:} Differential manometer with reference volume for chamber leak test stands.
\end{figure}
\clearpage
 
\begin{figure}

\begin{center}
\mbox{\epsfig{figure=/home/iwsatlas1/kroha/tex/qaqc/teststand_lmu.ps,angle=180,width=0.95\textwidth}}
\end{center}

{\bf Figure~15:} Cosmic ray test stand for the operation test of chambers at the
production sites. Several chambers can be tested simultaneously. With a tower
of three chambers, wire positions can be reconstructed.
\end{figure}
\clearpage

\end{document}
