474 papers
This paper presents a validated mesoscopic grain-envelope model using a phase-field front-propagation method to efficiently simulate and predict grain growth evolution under various material and process conditions in multi-pass, multi-layer additive manufacturing.
This study demonstrates that in the van der Waals magnet Fe5GeTe2, strong electronic correlations drive the formation of a flat band at the Fermi level, which in turn induces a charge order, establishing a paradigm where interaction-driven flat bands promote large-scale electronic ordering.
This study demonstrates that growing tensile-strained ultrathin Yttrium Iron Garnet (YIG) films on Gadolinium Scandium Gallium Garnet (GSGG) substrates suppresses interfacial interdiffusion through enhanced chemical stability, thereby achieving ultralow damping and tunable magnetic anisotropy at cryogenic temperatures essential for advanced spintronic applications.
This paper theoretically demonstrates that the interplay between electron-magnon scattering and spin-orbit-induced electron-electron scattering drives ultrafast demagnetization in itinerant ferromagnets by simultaneously generating magnons and transferring angular momentum to the lattice in a non-equilibrium microscopic scenario.
This paper theoretically demonstrates that locally injected electric currents in chiral metals induce bulk spin polarization in the linear response and interface antiparallel spin polarization in the quadratic response, with the latter's sign being determined by dipole-like charge distributions rather than bulk spin currents, thereby reproducing experimental correlations between structural chirality and spin polarization direction.
This study demonstrates the successful formation of highly ordered, crystalline Ag and Au nanoparticles within single-crystalline -GaO via ion implantation and 550°C annealing, characterized by specific crystallographic alignment with the host matrix and confirmed by localised surface plasmon resonance.
This paper establishes a microscopic framework for non-Markovian phonon dynamics driven by high-intensity THz pulses, using molecular dynamics simulations to derive noise and dissipation kernels that quantify heat production and reveal the crossover between Markovian and non-Markovian regimes on picosecond timescales.
This study utilizes a custom-built cryogenic magneto-THz scattering-type scanning near-field optical microscopy platform to visualize the nanoscale evolution of colossal magnetoresistance in , revealing that magnetic-field-induced spin switching initiates as 1–2 nm isolated sites that coalesce into ~15 nm conducting regions during the transition from an antiferromagnetic insulator to a ferromagnetic metal.
This paper demonstrates that super-resolution fluorescence fluctuation microscopy is a rapid and effective method for imaging localized exciton instability caused by interfacial disorder in monolayer semiconductors, offering a practical alternative to atomic force microscopy and hyperspectral imaging for evaluating material quality in nanoscale devices.
This study demonstrates that polycrystalline aluminum nitride (AlN) thin films deposited at back-end-of-line compatible low temperatures exhibit consistently high thermal conductivity across various substrates and can reduce peak device temperatures by up to 44%, establishing AlN as a practical heat spreader material for integrated circuits.
This study reports the successful synthesis of bulk OsO2 single crystals that outperform commercial RuO2 nanopowder in oxygen evolution reaction efficiency and stability, challenging the universal applicability of nanoscaling by demonstrating that crystal integrity is a critical descriptor for robust electrocatalysis.
This study demonstrates that proximity coupling rhombohedral multilayer graphene to a Haldane substrate enables electric-field-controlled sign reversal of orbital magnetization in trilayer and tetralayer systems, a phenomenon absent in bilayers, thereby establishing layer count as a critical tuning parameter for orbitronic and valleytronic applications.
This paper demonstrates that the quantum metric serves as a sensitive geometric probe for persistent spin helices by revealing a divergence caused by a hidden line degeneracy at the balanced spin-orbit coupling condition, which is subsequently regularized by higher-order cubic interactions.
This paper proposes a theoretical framework for detecting magnon orbital moment transport in altermagnets via an electric polarization probe, demonstrating that the magnon's effective electric dipole moment generates a measurable transverse voltage suitable for low-dissipation orbitronic applications.
This paper demonstrates that continuous photogeneration of excitons in atomically thin transition metal dichalcogenides, combined with resident charge carriers, induces a picosecond-scale bistability in electron temperature driven by the feedback loop between Drude heating and the dissociation of trions into free carriers.
By synthesizing high-quality rutile OsO2 single crystals, researchers discovered that while the material is initially a paramagnetic metal, applying high pressure (44 GPa) induces a metal-insulator transition and drives a phase change into an altermagnetic state, demonstrating that external pressure can effectively tune its magnetic ground state.
This study investigates how layer structure and strain influence the electronic properties and surface morphology of InAs/InGaAs quantum wells on InP (001), revealing that layer design dictates mobility anisotropy, excessive thickness triggers quantum well collapse, and quantum confinement significantly affects band nonparabolicity.
This paper characterizes the WAR5 defect in diamond as a promising quantum sensing platform, demonstrating millisecond-scale spin relaxation times at room temperature and extended coherence times at cryogenic temperatures alongside optical spin polarization capabilities.
This paper proposes that moire excitons in two-dimensional superlattices exhibit cooperative quantum optical phenomena, such as tunable superradiant and subradiant states and extreme optical switching, driven by their real-space lattice structure and controllable via electric fields, strain, or twist angle adjustments.
This paper critiques the 2025 i-DMFT method by Di Liu et al. for failing to accurately reproduce the Born-Oppenheimer potential energy curves of hydrogenic halides (HF, HCl, HBr) near equilibrium and for predicting qualitatively incorrect behavior in the long-range Van der Waals region that contradicts multipole expansion theory.