Finally, we also probe 𝑇-dependence of 〈𝜇〉 for the same set of 28 polymers within the approximation that the dynamic disorder in electronic coupling is 𝑇-dependent while the static disorder in electronic coupling remains unaffected with the variation in temperature. This is not an drastic approximation since the glass transition temperatures of known polymers usually reside between -50℃ and 200℃. Each of these 28 polymers screened here exhibit 𝑇-activated, Arrhenius-type behavior and we find that the room temperature mobility values of the polymers exhibit a strong negative correlation with the activation energies (𝐸 𝑎 ) (Pearson's correlation coefficient ~-0.97, see Fig. ). Our findings are in line with the previous experimental and theoretical reports of 𝑇-dependence of charge-carrier mobility in polymers which concluded that the effect of various physical parameters within a polymer chain can be effectively combined in a single activation energy parameter. The results also indicate that the reduced model is working flawlessly within the hopping description of charge transport and validate the overall model reduction scheme for polymers. The only outlier (see Fig. ) corresponds to polymer #1, which has a significantly small electronic coupling strength (𝜏 (0) ~0.1 eV) that gives rise to a small activation barrier but much reduced hopping probability, and thus a much lower mobility value than expected (also see Fig. ).