A microscopic understanding of the strongly correlated physics of the cuprates must account
for the translational and rotational symmetry breaking that is present across all cuprate …

We study two mechanisms for enhancing the superconducting mean-field transition
temperature T c by nonmagnetic disorder in both conventional (sign-preserving gaps) and …

Strongly correlated electron systems host a variety of poorly understood correlations in their
high-temperature normal state. Unlike ordered phases defined by order parameters, regions …

We study the interplay of superconductivity and a wide spectrum of critical (multifractal) wave
functions (“spectrum-wide quantum criticality,” SWQC) in the one-dimensional Aubry-André …

Understanding the relationship between stripe order and other phenomena, including
antiferromagnetism and superconductivity, is one of the central issues in cuprate …

We use cellular dynamical mean-field theory with extended unit cells to study the ground
state of the two-dimensional repulsive Hubbard model at finite doping. We calculate the …

We study superconductivity in a two-dimensional, disordered marginal Fermi liquid. At the
semiclassical level, the transition temperature T c is strongly suppressed because marginal …

The interplay of spin and motional degrees of freedom forms a key element in explaining
stripe formation accompanied by sublattice reversal of local antiferromagnetic ordering in …

Determinant quantum Monte Carlo (DQMC) is used to determine the pairing and magnetic
response for a Hubbard model built up from four-site clusters—a two-dimensional square …

Recent experimental results of angle-resolved photoemission spectroscopy suggested that
an additional strong nearest neighbor attraction in the Hubbard model might be significant …