278 papers
This paper presents an integrated methodology combining SuperSalt machine-learning interatomic potentials with a structural coherence model to rapidly predict the thermal conductivity of molten salts with experimental-level accuracy at a fraction of the computational cost of traditional molecular dynamics simulations.
This paper reports the development and experimental validation of the Tomoiu Internal Confinement Fusion (TICF) process, a hybrid chemical-thermonuclear system that allegedly achieved continuous net-positive energy production (Q-values of 2–8) through aneutronic fusion reactions without measurable neutron or gamma radiation. A TICF demonstration reactor has been assembled at the Tomoiu Advanced Fusion Energy (TAFE) laboratory and is available for direct observation of continuous net-positive thermal energy production. The reported performance exceeds an 800% thermal energy gain under the demonstrated operating conditions, providing an opportunity for researchers, engineers, investors, and energy stakeholders to independently evaluate this emerging technology.
This paper proposes a "flux-first" framework where classical spacetime, gravity, and black hole thermodynamics emerge from the coarse-grained connectivity of a quantized flux-tube network, demonstrating through renormalization-group analysis, string-theoretic embedding, and numerical Monte Carlo tests that this approach naturally yields an induced Einstein–Hilbert action, the Bekenstein–Hawking area law, and a resolution of the gravity–QCD hierarchy.
This paper presents a unified radial Laguerre-basis method that solves atomic hydrogen and helium in both two and three dimensions by mapping dimensional changes to a single parameter, revealing distinct electron–electron interaction kernels for intrinsic 2D versus planar 2D models and reporting the first radial energies for intrinsic Gauss-law 2D helium with high accuracy.
This paper presents a Raman-assisted cross-Kerr interaction between microwave photons in superconducting cavities that enables direct, code-space-preserving nonlinear coupling for fault-tolerant bosonic quantum gates and syndrome extraction without populating the mediating coupler.
This paper proposes and numerically validates a high-performance, label-free surface plasmon resonance sensor utilizing a multi-layered structure of silver, titanium dioxide, zinc telluride, and aluminium antimonide to achieve exceptional sensitivity and resolution for the early detection of glucose in urine.
This paper proposes a formal framework for "Time Cosmology" that distinguishes itself from standard interacting dark energy models by positing that the present (visible/acoustic sector) is physically indispensable as a dissipative mediator for irreversible "writing" of the dark matter record, while the dark sectors engage only in non-dissipative "reading," thereby establishing a unique structural coherence and a measurable arrow of time without invoking new fifth forces.
This study demonstrates that high-entropy oxide polymer nanocomposites and borate glass systems featuring specialized core-shell architectures offer a lightweight, non-toxic, and highly efficient solution for simultaneous gamma-ray and thermal neutron shielding, achieving superior attenuation performance with less than 1% deviation from Geant4 simulations.
This study demonstrates that an in-situ microwave-laser hybrid additive manufacturing approach effectively modulates thermal stress and suppresses cracking during the direct deposition of Al2O3/YAG/ZrO2 ternary eutectic ceramics, enabling the successful fabrication of large-scale, crack-free components.
This study utilizes high-resolution numerical simulations to demonstrate that nonlinear interactions between Kinetic Alfvén Waves and electrons, mediated by self-consistent density modifications and parallel electric fields, efficiently convert macroscopic fluid cascades into micro-physical thermalization, thereby offering a key mechanism for solar coronal heating and solar wind acceleration.