Resistivity bound for hydrodynamic bad metals
arXiv:1704.07384 · doi:10.1073/pnas.1711414114
Abstract
We obtain a rigorous upper bound on the resistivity of an electron fluid whose electronic mean free path is short compared to the scale of spatial inhomogeneities. When such a hydrodynamic electron fluid supports a non-thermal diffusion process -- such as an imbalance mode between different bands -- we show that the resistivity bound becomes . The coefficient is independent of temperature and inhomogeneity lengthscale, and is a microscopic momentum-preserving scattering rate. In this way we obtain a unified and novel mechanism -- without umklapp -- for in a Fermi liquid and the crossover to in quantum critical regimes. This behavior is widely observed in transition metal oxides, organic metals, pnictides and heavy fermion compounds and has presented a longstanding challenge to transport theory. Our hydrodynamic bound allows phonon contributions to diffusion constants, including thermal diffusion, to directly affect the electrical resistivity.
1 + 11 + 9 pages; 1 figure
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