Exploring the influence of magnetism and coherence in the electron-doped Hubbard model through photoemission and transport simulations

Using unbiased determinant quantum Monte Carlo simulations, we report the emergence of "hot spots" in the electron-doped Hubbard model at the locations where the Fermi surface intersects the antiferromagnetic zone boundary. In transport measurements, we find a concave curvature in the resistivity, with a significantly lower value compared to results from hole-doped simulations. Taken together with measurements of the specific heat, our results indicate that the electron-doped Hubbard model has a higher degree of coherence than its hole-doped counterpart. Our photoemission and transport simulations correspond closely to experimental observations, which indicates that these phenomena can be attributed to the intricate interplay between correlations and particle-hole asymmetric band structure.