![The analysis of proton fraction ([latex]X_p[/latex]) contributions, delineated between the NL and NL-hyp models as detailed in Table 1, demonstrates how saturation properties disproportionately influence nuclear behavior, suggesting these properties are not merely a detail of the model, but a fundamental aspect of the system being represented.](https://arxiv.org/html/2601.07727v1/Nmps-xp-hyp.png)
Researchers are employing symbolic regression to decipher the complex connections between the fundamental properties of nuclear matter and the observable characteristics of neutron stars.
A new perspective challenges conventional thinking about CP violation in quantum chromodynamics, suggesting the issue stems from unstated assumptions about gauge field behavior.
A new analysis explores how matter interacts with a particularly complex form of gravity, revealing crucial consistency conditions for its holographic properties.
![The study of neon, magnesium, and silicon isotopes reveals a shift in nuclear structure-from predominantly normal configurations to increasingly complex intruder configurations-correlated with a measurable increase in proton-neutron entanglement entropy as nuclei move beyond the [latex]N=20[/latex] shell closure, suggesting entanglement serves as a key indicator of evolving nuclear behavior.](https://arxiv.org/html/2601.06544v1/x2.png)
A new study utilizes advanced quantum calculations to explore the subtle entanglement patterns within exotic neutron-rich nuclei, offering insights into nuclear structure and potential applications in quantum information science.
![The study of the two-impurity Kondo model examines the Fermi surface of an underlying Anderson metal-specifically, a system where [latex] t^{\prime} = 0.4 [/latex]-to understand the complex interactions arising from localized magnetic moments within a conductive host.](https://arxiv.org/html/2601.07138v1/x1.png)
New research utilizes spin-resolved scanning tunneling microscopy and quantum Monte Carlo simulations to probe the subtle interplay between Kondo effects and unconventional altermagnetic states.
A new analysis challenges claims of genuine quantum behavior in large language models, suggesting observed patterns may reflect contextual similarities rather than fundamental physics.
New research challenges the fundamental role of causality in physics, suggesting it may be an emergent property rather than a core law of the universe.
![The study establishes exclusion limits on the signal strength μ-defined as the ratio of signal to theoretical prediction-across a range of hypothetical dark matter mediator masses ([latex]m_{Z^{\prime}}[/latex]) and dark matter particle masses ([latex]m_{\chi}[/latex]) within a modified Higgs doublet model, demonstrating that parameter combinations yielding larger values of μ are increasingly constrained by observed data, with the 95% confidence level boundary defined by the black solid line and expected boundaries indicated by dashed and dotted lines.](https://arxiv.org/html/2601.06284v1/x11.png)
Recent results from the CMS experiment at the Large Hadron Collider offer the latest constraints on potential interactions between dark matter and the visible universe.
A new perspective on quantum mechanics proposes that the wave function doesn’t describe what is, but rather the potential from which reality emerges through observation.
A new mathematical framework proposes that spacetime itself emerges from the algebraic properties of a quantum structure, potentially reconciling gravity with quantum mechanics.