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Commit d531f4c9 authored by Wuttke, Joachim's avatar Wuttke, Joachim
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rm figure using setup_multilayer.jpg

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......@@ -35,45 +35,6 @@ and describe how the vertical wavefunction is computed in BornAgain.
\section{DWBA for layered samples}\label{Swave21}
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\begin{figure}[tb]
\centering
\includegraphics[clip=, width=120mm]{fig/drawing/setup_multilayer.jpg}
\caption[Conventional GISAS scattering geometry.]{Geometric conventions
\index{Convention!GISAS geometry}%
\index{Grazing-incidence small-angle scattering!geometric conventions}%
\index{Coordinate system!GISAS geometry}%
\index{Glancing angle}%
\index{Scattering!angle}%
\index{Geometry!conventions for GISAS}
in GISAS scattering comprise a Cartesian coordinate system
and a set of angles.
The coordinate system has a $z$ axis normal to the sample plane,
and pointing into the halfspace where the beam comes from.
The $x$ axis usually points along the incident beam,
projected onto the sample plane.
Incident and final plane waves are characterized
by wavevectors $\k_\si$, $\k_\sf$;
the angle $\alpha_\si$ is the incident glancing angle;
$\phi_\si$ is usually zero, unless used to describe a sample rotation;
$\alpha_\sf$ is the exit angle with respect to the sample's surface;
and $\phi_\sf$ is the scattering angle with respect to the scattering plane.
In the above figure $\phi_\sf$ is negative by convention, while all other angles
are positive.
\nomenclature[1α024 2i000]{$\alpha_\si$}{Glancing angle of the incident beam}
\nomenclature[1α024 2f000]{$\alpha_\sf$}{Glancing angle of the detected beam}
\nomenclature[1φ024 2i000]{$\phi_\si$}{Angle between the incident beam, projected into the sample plane, and the $x$ axis}%
\nomenclature[1φ024 2f000]{$\phi_\sf$}{Angle between the detected beam, projected into the sample plane, and the $x$ axis}%
\nomenclature[2x020]{$x$}{Horizontal coordinate, usually chosen along the incoming beam projection}%
\nomenclature[2y020]{$y$}{Horizontal oordinate, chosen normal to $z$ and $x$}%
The numbered layers illustrate a multilayer system as dicussed in \cref{sec:Multilayers}.
\index{Layer!numbering}%
\index{Multilayer}
}
\label{fig:expgeom}
\end{figure}
%--------------------------------------------------------------------------------
Reflectometry and grazing-incidence scattering
are designed for the investigation of surfaces, interfaces, and thin layers,
or most generically:
......
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