\begin{document}$ 16.85\ $\end{document}% for the quark transport coefficient. It was shown that we should consider the target nuclear geometry effect in studying the Drell-Yan reaction on nuclear targets. On the basis of the Bjorken variable and scale dependence of the quark transport coefficient, the atomic mass dependence was incorporated. The quark transport coefficient was determined as a function of the atomic mass, Bjorken variable\begin{document}$ x_2 $\end{document}, and scale \begin{document}$ Q^2 $\end{document} by the global fit of the experimental data. The determined constant factor \begin{document}$ \hat{q}_0 $\end{document} of the quark transport coefficient is \begin{document}$ 0.062\pm0.006 $\end{document} GeV\begin{document}$ ^2 $\end{document}/fm. It was found that the atomic mass dependence has a significant impact on the constant factor \begin{document}$ \hat{q}_0 $\end{document} in the quark transport coefficient in cold nuclear matter."> Atomic mass, Bjorken variable, and scale dependence of quark transport coefficient in Drell-Yan process for proton incident on nucleus -
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