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@@ -162,6 +162,27 @@ for our collection of thimbles to produce the correct contour, the composition
of the thimbles must represent the same element of this relative homology
group.
+\begin{figure}
+ \includegraphics{figs/thimble_homology.eps}
+ \hfill
+ \includegraphics{figs/antithimble_homology.eps}
+
+ \caption{
+ A demonstration of the rules of thimble homology. Both figures depict the
+ complex-$\theta$ plane of an $N=2$ spherical $3$-spin model. The black
+ symbols lie on the stationary points of the action, and the grey regions
+ depict the sets $\tilde\Omega_T$ of well-behaved regions at infinity (here
+ $T=5$). (Left) Lines show the thimbles of each stationary point. The
+ thimbles necessary to recreate the cyclic path from left to right are
+ darkly shaded, while those unnecessary for the task are lightly shaded.
+ Notice that all thimbles come and go from the well-behaved regions. (Right)
+ Lines show the antithimbles of each stationary point. Notice that those of
+ the stationary points involved in the contour (shaded darkly) all intersect
+ the desired contour (the real axis), while those not involved do not
+ intersect it.
+ } \label{fig:thimble.homology}
+\end{figure}
+
Each thimble represents an element of the relative homology, since each thimble
is a contour on which the real part of the action diverges in any direction.
And, thankfully for us, Morse theory on our complex manifold $\tilde\Omega$