![The study demonstrates how manipulating elastomer plate elongation-specifically stretching to [latex]\lambda\in[1.03,2.27][/latex] and [latex]\lambda\in[1.11,2.22][/latex]- fundamentally alters the propagation of in-plane ([latex]S\!H_0[/latex] and [latex]S_0[/latex]) and out-of-plane ([latex]A_0[/latex]) modes, revealing a complex relationship between mechanical deformation and wave dynamics within soft materials.](https://arxiv.org/html/2603.18839v1/x1.png)
New research shows that analyzing guided waves in stretched materials offers a powerful way to distinguish between different hyperelastic models, going beyond the limitations of traditional mechanical testing.
A new connection between black hole vibrations and the mathematics of quantum Seiberg-Witten theory offers a powerful method for calculating their characteristic frequencies.
A new analysis challenges traditional criteria for identifying ‘good’ singularities in string theory, offering a more inclusive framework for understanding the fate of spacetime.
A new study reveals a refined correspondence between three-dimensional quantum theories and their holographic duals, offering powerful tools for calculating complex physical properties.
Researchers are pioneering techniques that allow developers to interactively explore program behavior not just across space-the code itself-but also across time-its execution history.
A novel framework connects the abstract world of Calabi-Yau categories to the physical observables of string theory, potentially unlocking deeper insights into the holographic principle.
New research reveals how stellar energy loss can be used to probe the interplay between Lorentz symmetry violation and supersymmetric particles.
New gravitational wave data from merging black holes continues to validate General Relativity, though subtle signals hint at potential new physics.
Researchers have developed an innovative approach to analyze the quantum entanglement of spinning particles, bridging the gap between two key relativistic dynamics.
![The multipartite mutual information [latex]I^{\mathrm{GHZ}}\_{F}(N)[/latex] of a fermionic GHZ state exhibits a discernible relationship with the dilaton [latex]\mathcal{D}[/latex], fluctuating predictably as system size-quantified by particle number <i>N</i> at 5 and 10-and field mode frequency ω vary.](https://arxiv.org/html/2603.18439v1/x6.png)
New research explores how the extreme gravity of dilaton black holes impacts the delicate quantum links between multiple particles.