New research reveals a surprising duality between particle and field behavior near black hole horizons, offering potential corrections to our understanding of Hawking radiation and quantum gravity.
![The study demonstrates that, for fermion dark matter with a [latex]\psi \sim (3,1,1)[/latex] representation, the test statistic varies predictably with the fermion mass [latex]m_\psi[/latex], allowing for the determination of the best-fit value for the new physics parameter Λ as a function of that same mass.](https://arxiv.org/html/2601.08907v1/x2.png)
New research explores whether anomalies observed in the decay of B and K mesons could be explained by interactions with dark matter particles.
Researchers have discovered new phases of matter in simulated systems of interacting bosons, uncovering a unique excitation known as a chiral Higgs mode.
A new experiment using a highly sensitive atomic magnetometer is pushing the boundaries of dark matter detection.
A new study reveals that wave phenomena in certain physical systems can exhibit quantization levels that are not whole numbers, challenging conventional understandings of energy levels.
![Estimates of gravitational wave modes-specifically, the real and imaginary components of prograde and retrograde signals at [latex]\ell = 2[/latex] with an eccentricity of [latex]\epsilon = 0.4[/latex]-demonstrate that while approximations like post-Kerr and Padé can align with predictions from the eikonal method, residual errors in [latex]\log_{10}[/latex] and [latex]\log_{2}[/latex] scales reveal the sensitivity of these estimations to the order of approximation-with discrepancies highlighting the limitations of each approach when compared against Prony extraction.](https://arxiv.org/html/2601.09607v1/x8.png)
New research confronts analytical methods for calculating gravitational wave signatures with detailed numerical simulations of perturbed black holes, revealing how well these predictions hold up when gravity deviates from Einstein’s theory.
A new analysis reveals that the concept of quantum reference frames is fundamental to understanding how particles blend and interact, potentially bridging the gap between quantum mechanics and gravity.
![The study investigates how different new physics scenarios-including scalar, vector, and tensor interactions-manifest in correlations observed in particle collisions, revealing distinctions in purity [latex]\Gamma\Gamma[/latex], concurrence [latex]{\cal C}[/latex], the Bell-CHSH observable [latex]{\cal B}\_{\rm CHSH}[/latex], and measures of entanglement like helicity-basis SREM2M\_{2} and beam-basis SREM2(z^)M\_{2}^{(\hat{z})}, all as functions of the scattering angle [latex]\cos\Theta[/latex] at a center-of-mass energy of 500 GeV and an effective field theory cutoff scale of [latex]\Lambda/3[/latex], demonstrating how these observables vary across different polarization settings-unpolarized, PP, PN, NP, and NN-to characterize the underlying physics.](https://arxiv.org/html/2601.09558v1/x87.png)
Researchers are exploring how the quantum properties of fermion-antifermion pairs, created in high-energy lepton collisions, can reveal insights beyond the Standard Model.
Researchers have developed a powerful framework for calculating entanglement entropy in evolving gravitational systems, potentially revealing how spacetime itself emerges from quantum connections.
New research reveals that the curvature of electronic bands can fundamentally alter superconducting behavior, leading to a cascade of chiral states with observable consequences.