![The study demonstrates how varying angular velocities-specifically, anisotropy strengths of [latex]\nu = 1.025[/latex] and [latex]\nu = 1.1[/latex]-affect the spectral functions of both the [latex]J/\Psi[/latex] and [latex]\Upsilon(1S)[/latex] mesons at a chemical potential of [latex]\mu = 0.1\,{\rm{GeV}}[/latex] and [latex]c = -0.3\;{\rm{Ge}}{{\rm{V}}^{2}}[/latex], revealing distinct longitudinal and transverse polarization behaviors relative to the anisotropic direction.](https://arxiv.org/html/2601.11064v1/x4.png)
A new holographic study reveals how the rotation and anisotropic expansion of the quark-gluon plasma impact the spectral signatures of heavy quarkonia, offering crucial insights into the extreme conditions created in heavy-ion collisions.
Researchers have developed a novel method for reconstructing material density by embedding resonant inclusions and analyzing boundary behavior.
A new theoretical framework predicts the formation of intrinsic Janus structures and reveals their potential for manipulating light in unexpected ways.
![The system investigates a three-dimensional extension of the Su-Schrieffer-Heeger (SSH) model-specifically a Hubbard-SSH model-where layers are coupled by alternating hopping amplitudes, and renormalization of two-particle interactions is considered solely at the outermost layer via an on-site Hubbard [latex]U[/latex] term, allowing for exploration of emergent phenomena arising from interlayer interactions and strong correlations.](https://arxiv.org/html/2601.11055v1/x1.png)
A new theoretical approach explores how electron interactions drive emergent behavior at the surfaces and interfaces of complex layered materials.
New research reveals how the relativistic properties of materials like graphene dramatically alter the behavior of quantum scars within confined systems.
![Recent results from the Belle II experiment explore the decay [latex]B \to s \nu \bar{\nu}[/latex], reinterpreting evidence for [latex]B^{+} \to K^{+} \nu \bar{\nu}[/latex] through marginalized posterior analysis of Wilson coefficients-specifically, sums of [latex]C_{V_R}, S_R, T_R[/latex]-and examining data from [latex]B \to X_s \nu \bar{\nu}[/latex] decays across three distinct mass regions using optimized BDT outputs to differentiate charged and neutral B decays, as well as contributions from [latex]e^{+}e^{-} \to q\bar{q}[/latex] (where q represents up, down, strange, and charm quarks).](https://arxiv.org/html/2601.11279v1/june.png)
Recent results from the Belle and Belle II experiments are pushing the boundaries of the Standard Model by searching for rare decays that could signal the existence of new particles and interactions.
![The interplay of photon-electron interactions-specifically the [latex]e-ph[/latex], [latex]e-e[/latex], and photon-eterm terms-reveals a dynamic electron distribution shaped by time-dependent energy landscapes at [latex]E_0 = 0.6 \text{V/nm}[/latex], with notable shifts occurring at [latex]t = -3.2 \text{fs}[/latex], [latex]-0.5 \text{fs}[/latex], and [latex]2.2 \text{fs}[/latex], ultimately manifesting as electron distributions clustered around [latex]\mathcal{E} = \mathcal{E}_{F} \pm \hbar \omega_{0}/8[/latex].](https://arxiv.org/html/2601.10985v1/x3.png)
A new theoretical framework details how intense, few-femtosecond light pulses interact with transparent conducting oxides, revealing a surprising dominance of absorption over emission.
![Polariton dispersion reveals a complex interplay between light and matter, where the coupling of excitons and photons-illustrated by the [latex]\Omega_{k_\parallel}[/latex] relationship-creates hybrid light-matter quasiparticles whose electronic and photonic character-quantified by [latex]\eta_{\mathbf{k}_\parallel}^{\mathrm{el}}[/latex] and [latex]\eta_{\mathbf{k}_\parallel}^{\mathrm{ph}}[/latex]-is strongly dependent on momentum, ultimately influencing the population of plasmons in the ground state as described by the anomalous Hopfield coefficient [latex]|x_{\mathbf{k}_\parallel}|^2[/latex] and its asymptotic behavior in the quasistatic limit [latex]k_\parallel \gg \omega_p/c[/latex].](https://arxiv.org/html/2601.11297v1/x5.png)
A new theoretical framework clarifies the fundamental interactions between light and matter in nanophotonic systems, revealing regimes of exceptionally strong coupling.
![The study demonstrates a quantifiable relationship between antineutron momentum and atomic number as manifested in the measured annual modulation signal [latex]\sigma_{ann}(p_{\bar{n}}; A)[/latex], providing insight into the underlying physics of this phenomenon as detailed in reference [13].](https://arxiv.org/html/2601.11390v1/fig61_pr.png)
A new review examines the surprisingly incomplete understanding of antineutron interactions and charts a course for future experiments at CERN.
Researchers have crafted a highly sensitive torsion pendulum using nanofabrication techniques, opening new avenues for probing fundamental gravitational effects on a laboratory scale.