A new analysis reveals that carefully designed experimental setups can dramatically enhance our ability to detect subtle forces at the nanoscale, opening a path to explore physics beyond the Standard Model.
![Data from the combined Belle and Belle II experiments reveal invariant mass distributions for decaying particles - specifically, [latex]\Xi_{c}^{0}\to\Lambda\eta[/latex], [latex]\Lambda\eta^{\prime}[/latex], and [latex]\Lambda\pi^{0}[/latex] - where a total fit, denoted by solid blue curves, distinguishes signal from background contributions represented by red dashed lines, illuminating the complex pathways of particle decay.](https://arxiv.org/html/2603.21722v1/x2.png)
New measurements of how these exotic particles decay are refining our understanding of fundamental symmetries and the strong force.
New research reveals how curvature constraints define the boundaries of spacetime and dictate whether it can be extended beyond its apparent limits.
![The simulations demonstrate that modulating both permittivity [latex]\varepsilon[/latex] and permeability μ-specifically with [latex]\mu_1 = 1.1[/latex], [latex]\mu_2 = 1[/latex], and varying [latex]\varepsilon_1[/latex] from 2.3 to 3 with [latex]\varepsilon_2 = 2[/latex]-allows for controlled spatiotemporal evolution of the electric field, enabling pulse storage and retrieval, and that the efficiency of this process is directly related to the number of modulation cycles applied to the plasma frequency.](https://arxiv.org/html/2603.21622v1/x12.png)
Researchers have developed a framework to overcome limitations in manipulating electromagnetic fields within dynamic media, paving the way for novel photonic devices.
New research reveals how the geometry of quantum phase space influences electron transport and connects it to phenomena like analogue gravity and the linear Hall effect.
![The analysis demonstrates a strong recovery of injected signals - achieving [latex]\ln\mathrm{BF}=42.24[/latex] when comparing models with and without an InPT component - as evidenced by substantial agreement between Nested Sampling (NS) and Fisher Information Matrix (FIM) results, despite minor discrepancies attributable to non-Gaussian posteriors and statistical fluctuations, and with signal-to-noise ratios of [latex]\mathrm{SNR}\_{a}=118[/latex] and [latex]\mathrm{SNR}\_{r}=66[/latex].](https://arxiv.org/html/2603.21762v1/figures/inpt_getdist.png)
A new study details how future space-based gravitational wave observatories could detect and characterize phase transitions in the very early universe, shedding light on the epoch of cosmic inflation.
Researchers have developed a perturbative approach to understand how infrared sensitivity impacts calculations in quantum chromodynamics, offering insights into the behavior of fundamental particles at high energies.
A shift towards automated electron microscopy, combined with machine learning, is dramatically accelerating the pace of materials research and development.
Researchers are using artificial intelligence to reconstruct the complex relationships between entangled quantum bits within monitored circuits, offering new insights into the nature of quantum information.
![The observed anti-phase oscillation between the [latex] -7.7 \, H_1 [/latex] (orange) and [latex] H_2 [/latex] (blue) channels confirms mode locking, as predicted by equation (64), demonstrating a synchronized waveform behavior within the WH branch.](https://arxiv.org/html/2603.20594v1/x7.png)
New research reveals that subtle differences in the gravitational wave signals emitted by regular black holes could finally unlock the mystery of their exotic interiors.