325 papers
This paper presents a theoretical framework for a flux-tunable "Fraunhofer qubit" based on wide ballistic Josephson junctions, demonstrating that magnetic flux can transform the potential landscape to significantly enhance anharmonicity while maintaining charge-noise protection, thereby offering an optimized operating point for hybrid superconducting circuits.
This paper presents a compact, non-volatile XOR gate design utilizing a single straintronic magnetic tunnel junction and a CMOS device for signal restoration, achieving a footprint reduction and energy efficiency an order of magnitude better than traditional all-transistor implementations.
This paper establishes a cavity-QED framework connecting hexagonal boron nitride color centers with hyperbolic phonon polaritons, demonstrating how single quantum emitters can serve as on-chip sources to generate, control, and mediate long-range interactions of confined mid-infrared polaritons for advanced quantum optics applications.
This paper introduces a novel mechanism called exceptional-bound (EB) band engineering that enables system-size-controlled topological transitions in non-Hermitian systems through unique critical scaling near exceptional points, distinct from the non-Hermitian skin effect and applicable to diverse experimental platforms.
This paper demonstrates that the complex-valued non-Hermitian quantum geometric tensor governs intrinsic nonlinear electrical responses in gapped systems, revealing a unique transport mechanism where finite wavepacket width fundamentally alters conductivity—a phenomenon strictly absent in Hermitian systems.
This paper proposes a noninvasive quantum Maxwell demon in a quantum dot system that utilizes an undetailed charge detector and Landau-Zener-Stückelberg-Majorana driving to achieve simultaneous power generation and cooling without continuous measurement or work investment, with optimal performance found in the nonadiabatic regime.
This study demonstrates that electrically driven Loss-DiVincenzo spin qubits exhibit a linear Rabi frequency scaling with microwave drive amplitude even under simultaneous multi-qubit driving, thereby refuting the notion that previously observed nonlinearities are a general characteristic of such systems.
This review surveys theoretical and experimental advances in the physics of trions within two-dimensional monolayers, highlighting their enhanced binding energies due to reduced screening and confinement, the impact of environmental and external field factors, and their connections to broader many-body phenomena.
This paper proposes and analyzes a gate reflectometry-based experimental procedure that enables the simultaneous discrimination of all four computational basis states of a pair of spin qubits in silicon double quantum dots, offering a pathway to reduce readout overhead in scalable quantum computers.
This paper demonstrates that light scattering from pairs of point-like dipoles exhibits exact resonances when the dipoles violate the optical theorem (indicating nonequilibrium or active conditions), leading to potentially infinite scattering amplitudes, while similar but finite resonances in equilibrium systems can still yield significant amplification factors.
This study numerically demonstrates that vertically oriented hollow gold nanocavities coupled to monolayer MoS2 can spectrally tune and significantly enhance A and B excitonic emission through geometry-controlled plasmon resonance, achieving up to 144-fold photoluminescence increases and enabling precise engineering of excitonic peak ratios for advanced valleytronic and sensing applications.
This paper investigates the inductive coupling between a quantum LC resonator and a graphene-based Josephson junction, revealing that the system's current-phase relation can exhibit spontaneous time-reversal symmetry breaking and predicting the low-energy spectrum of hybridized light-matter excitations.
This study employs a numerically exact hybrid MPS-HEOM approach to demonstrate that in disordered molecular polariton systems, phonon timescales and dynamic disorder govern the activation of dark states and determine the critical system size () required to reach the thermodynamic limit by suppressing collective light-matter dynamics.
Using a self-consistent renormalization group approach, this paper demonstrates that strong coupling to thermal bosons can robustly enhance a superconductor's critical temperature by balancing density fluctuations and boson-induced attraction, with potential applications in cold atomic systems and van der Waals heterostructures.
This paper introduces a modified infinite time-evolving block decimation (iTEBD) algorithm that constructs time-invariant process tensors with significantly improved computational scaling () and reduced memory requirements, enabling the exact simulation of long-time, non-Markovian dynamics in high-dimensional open quantum systems previously considered numerically intractable.
This paper theoretically explains the rapid growth and subsequent plateau of a specific sound wave frequency observed in nematic aerogel-filled superfluid 3He by modeling the aerogel's elastic properties and demonstrating how the hybridization of isotropic first sound, anisotropic second sound, fourth sound, and standard elastic modes leads to these distinct velocity behaviors near the polar phase transition.
This paper systematically bridges the gap between continuum topological field theory and microscopic lattice constructions of three-dimensional non-Abelian topological orders by explicitly deriving fusion and shrinking rules for the quantum double model, thereby establishing a precise correspondence with a field theory with an twist and resolving long-standing skepticism regarding its microscopic realizability.
This paper theoretically demonstrates that altermagnet-based superconducting heterostructures can generate highly spin-polarized thermoelectric currents and achieve nearly perfect thermoelectric diode effects, offering significant potential for advanced spin-caloritronics applications.
This study provides the first direct evidence of a tunable Quantum Anomalous Hall state with spontaneous ferromagnetism in twisted bilayer WSe2 by utilizing polarization-resolved attractive polaron spectroscopy to observe time-reversal symmetry breaking and confirm a Chern number of C=1.
Using a first-principles-based spin-spiral approach and atomistic spin models, this study predicts the emergence of diverse topological spin textures, including Néel-type skyrmions and bimerons, in an all-magnetic FeGeTe/CrGeTe van der Waals heterostructure driven by interfacial Dzyaloshinskii-Moriya interactions and geometric exchange frustration.