858 papers
This paper reports the experimental observation of bidirectional quasi-monoenergetic deuterons (20.4 MeV and 23.8 MeV) accelerated via the Boosted Coulomb Explosion mechanism in a relativistically transparent thin aluminum target, thereby validating and expanding the potential applications of this laser-driven ion acceleration scheme.
This paper demonstrates that engineering incident particles into coherent-state superpositions significantly enhances and stabilizes spin entanglement during scattering off a localized impurity, with odd superpositions uniquely providing robust, decay-resistant entanglement compared to the parameter-sensitive behavior of even superpositions.
This study demonstrates that the thermal conductance of various topological states in bilayer graphene moiré superlattices is universally quantized in units of the thermal conductance quantum determined solely by the Chern number, establishing thermal transport as a robust probe for identifying moiré topological matter.
This study demonstrates for the first time that high-entropy (Mn,Fe,Co,Ni,Cu)₃O₄ ceramics processed via cold sintering with various activators at 250–300°C retain their high-entropy structure and exhibit promising magnetic properties, including a saturation magnetization of 20.0 emu/g, making them suitable candidates for functional magnetic devices.
This paper presents a hardware-aware quantum error correction framework that utilizes experimentally characterized cryogenic HZO ferroelectric field-effect transistors to translate measured differential read currents into Max-SAT optimization coefficients, demonstrating that device-level physics can effectively define decoding landscapes while maintaining performance through extensive endurance cycles.
This paper presents a differentiable surrogate modeling framework that combines a finite-difference strain solver with a trained convolutional neural network to enable rapid, gradient-based inverse design of photonic substrates for deterministic exciton localization in hybrid TMD nanostructures.
This paper proposes a novel -equivariant reconstruction method in coarse-grained Loop Quantum Gravity that restores the geometric closure of spin-network boundaries by preserving individual face areas and canonical holonomy-flux data, thereby resolving closure defects without introducing area mismatches between neighboring regions.
This paper proposes a novel spintronic-magneto-impedictive effect in antiferromagnetic materials modeled by a magnetic-field-gradient-broken spin-Rice-Mele Hamiltonian to enable low-power, pure spin-current memory devices.
This study demonstrates that in wire arc additively manufactured ER308L stainless steel, decreasing linear heat input promotes microstructural refinement and a shift toward lathy δ-ferrite morphology, thereby enhancing interlayer integrity and reducing mechanical anisotropy compared to higher heat input conditions.
This study presents a fabrication-tolerant inverse-design framework for chirped apodized fiber Bragg gratings that, by optimizing five parameters under uncertainty-aware objectives, significantly improves worst-case in-band reflectivity and reduces spectral ripple compared to conventional designs, all without requiring experimental training data.