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\@writefile{lot}{\contentsline {table}{\numberline {4.14}{\ignorespaces Comparison of Pb-Glass, PbF$_2$, and PbWO$_4$ calorimeter properties. The photo-electrons per GeV for TF-1 Pb-Glass are obtained with a photo-cathode covering 36obtained with a UV sensitive mesh PMT covering 45\% of the cross section. The critical energy is the energy at which electron energy losses by ionization and radiation are equal. The element size chosen for Pb-glass is 40x40x400 mm$^3$, for PbF$_2$, 30x30x150 mm$^3$.}}{182}}
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\@writefile{lof}{\contentsline {figure}{\numberline {4.22}{\ignorespaces Photon resolution on a plot $Q^2$ vs. $s$. The curves labeled by different photon energy resolution values correspond to the kinematic limit at which the $p(e,e'\gamma )$ and $p(e,e'\gamma )N\pi $-threshold are separated by $1$-$\sigma $ in the forward (DVCS) limit. For each resolution curve, the entire kinematic region to the left is accessible with the exclusive channel resolved without a triple coincidence. The curve labeled WO4 corresponds to PbWO$_4$, a high density scintillator. }}{185}}
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