87 papers
This paper presents a systematic study of few-layer -MoTe that correlates superconducting properties with material parameters and band structure, revealing that highly hole-doped bilayer samples exhibit conventional phonon-mediated -wave pairing.
This paper demonstrates that weakly coupled altermagnetic Josephson junctions host spin-polarized Andreev molecules, which induce anomalous nonlocal Josephson effects including tunable phase transitions and a nonreciprocal diode effect, thereby establishing altermagnetism as a promising platform for nonlocal spin Josephson phenomena.
This study demonstrates that controllably introducing disorder via iron cluster deposition in monolayer Fe(Te,Se) drives a superconductor-insulator transition, revealing a disorder-induced quantum phase transition characterized by the evolution from superconducting to insulating U-shaped gaps attributed to localization-enhanced Cooper pair correlations.
This study reveals that in UTe, the ultrahigh-field superconducting region coincides with the line of metamagnetic endpoints only within a narrow angular range near the plane, while the two phase boundaries diverge as the magnetic field tilts toward the axis.
This paper demonstrates that accurately predicting the anomalous isotope effect and critical temperatures in palladium hydrides requires a non-perturbative framework that consistently treats anharmonic effects in both phonon spectra and electron-phonon interaction vertices, overcoming the limitations of previous methods that either neglected non-linear coupling or relied on flawed perturbative expansions.
This paper reports the fabrication of boron-doped, ultra-thin carbon nanotube networks within zeolite pores that exhibit characteristic signatures of high-temperature superconductivity with a critical temperature between 220 and 250 K, alongside a giant pressure effect that further elevates this transition temperature.
This study establishes a systematic gigantic-oxidative atomic-layer-by-layer epitaxy approach to grow phase-pure, high-quality Ln3Ni2O7 thin films that exhibit superconductivity with an onset transition temperature of 50 K without post-annealing, while identifying four critical factors—precise cation stoichiometry, complete atomic layer coverage, optimized interface reconstruction, and accurate oxygen content regulation—that govern their crystalline quality and superconducting properties.
Using sign-problem-free determinant quantum Monte Carlo simulations, this study demonstrates that introducing next-nearest-neighbor hopping in the attractive Hubbard model on a square lattice can significantly enhance the critical temperature by up to 50% while simultaneously reducing the pseudogap region, offering a viable route to achieve experimentally accessible superconducting temperatures.
This paper presents theoretical and experimental evidence for a new phase of matter called multimodal superfluidity in neutron-rich systems, characterized by the coexistence of s-wave pairs, p-wave entangled double pairs, and quartets, which is predicted to occur in various fermionic systems and has significant implications for the structure and dynamics of neutron star crusts.
This study reveals that the dynamics of charge-density-wave puddles in 2-NbSe give rise to a novel Fano-coupled phonon-CDW hybrid mode, characterized by a low-frequency overdamped oscillation that emerges below 17 K and highlights the critical role of lattice pinning and electronic correlations in stabilizing incommensurate CDW order.
This paper demonstrates that depositing granular aluminum on Ge/SiGe heterostructures induces a hard superconducting gap with exceptional magnetic field resilience, enabling the observation of Zeeman-split Yu-Shiba-Rusinov states and tunable g-tensors essential for hole spin-based hybrid quantum devices.
This paper investigates the phase diagram of a periodically driven O(N) scalar field theory coupled to a thermal bath, revealing diverse symmetry-broken states and novel electromagnetic responses such as the Meissner effect, a hybrid "Meissner polariton" mode, and superconducting-like behavior driven by fluctuations.
This study reports the discovery of an unprecedented time-reversal symmetry breaking superconducting state accompanied by electronic glass dynamics in epitaxially strained (La, Pr, Sm)₃Ni₂O₇ bilayer nickelate films, evidenced by unconventional magnetoresistance hysteresis, zero-field non-reciprocity, and logarithmically slow resistance relaxations.
This paper reports transport studies of hybrid InAs nanowire Josephson junctions with epitaxial EuS and Al shells, demonstrating proximity-induced spin-split superconductivity and establishing a new platform for exploring spin-triplet pairing driven by spin-orbit coupling.
This paper theoretically demonstrates the emergence of Majorana flat bands in the vortex lines of superconducting time-reversal-symmetry-breaking Weyl semimetals by decomposing the system into -resolved Chern insulators, identifying the conditions for their formation, proposing a -resolved Chern-Simons invariant for their characterization, and confirming their realization via attractive Hubbard interactions.
This study utilizes time-dependent Ginzburg-Landau simulations to reveal how inhomogeneous magnetic fields from ferromagnetic nanodots drive the nucleation, creep-like deformation, and formation of unique stationary configurations of Abrikosov vortices in hybrid superconductor-ferromagnetic nanostructures, offering critical insights for optimizing nanoscale superconducting systems.
This study demonstrates that a Pechini sol-gel synthesis method with cationic molecular mixing can efficiently produce high-quality Li-doped Bi-2223 superconductors, achieving a maximum critical temperature of 111.4 K at 5 mol% Li doping while revealing unique layer-by-layer crystalline growth and flux creep mechanisms.
This paper develops a microscopic framework incorporating Nambu-Goldstone and Berezinskii-Kosterlitz-Thouless fluctuations to explain the anomalous gate-tunable superconductivity in monolayer WTe, successfully reproducing key experimental observations such as the contrasting carrier-density dependence of and the sudden disappearance of superconducting fluctuations under strong disorder.
This theoretical study establishes unconventional -wave magnets as a versatile platform for realizing a rich landscape of emergent superconducting phases, including topological superconductivity with Majorana edge modes, Bogoliubov Fermi surfaces, and the superconducting diode effect, within a unified microscopic framework.
By integrating local electromagnetic shielding and low-pass filtering directly at the cryogenic scan head, this study overcomes dynamical Coulomb blockade limitations to achieve a record energy resolution of 3.7 μeV, thereby revealing a novel coupling between atomic-scale Josephson currents and macroscopic cavity quantum electrodynamics modes.