We analyze the extended superfluid density data of Bo\v{z}ovi\'{c} \textit{ et al}. taken on homogenous thin films to explore the critical properties of the thermal (TSM) and quantum superconductor to metal (QSM) transitions in overdoped La2−xSrxCuO4. The temperature dependence reveals remarkable agreement with d-wave BCS behavior, where σ∝1/λ2. No sign of the expected KTB transition is observable. We show that the critical amplitude ρs0=ρs(T)/(1−T/Tc) scales as Tc∝ρs01/2 and with that as Tc∝ρs(0), empirically verified by Bo\v{z}ovi\'{c} \textit{et al}. Together with additional evidence for BCS behavior in overdoped La2−xSrxCuO4 we show that the scaling relation Tc∝λ(0)−1∝Δ(0)∝ξ(0)−1∝Hc2(0)−1/2∝λ0−1∝Δ0∝ξ0−1∝Hc20−1/2 applies, by approaching the QSM and TSM transitions. This differs from the dirty limit behavior λ(0)∝ξ(0)1/2, maintains the Tc \ independence of the Ginzburg-Landau parameter κ=λo/ξ0, and puts a stringent constraint on the effect at work. We notice that potential candidates appear to be the nonlocal effects on the penetration depth of clean d-wave superconductors explored by Kosztin and Legget.