Entangled Spacetime: A New Dimension to Quantum Connection
A novel theory proposes that quantum entanglement isn’t instantaneous, but a finite-speed phenomenon occurring within higher-dimensional spacetime.
Science
Can We Truly Measure Gravity at the Quantum Level?
A new perspective suggests that viable theories of quantum gravity must account for the practical limits of measuring spacetime geometry.
Beyond Standard Spin: Hunting for Hidden Interactions
This review explores the theoretical landscape and experimental frontiers in the search for exotic spin-dependent forces beyond the established laws of physics.
Where Quantum Meets Classical: Redefining Reality
A new analysis establishes a formal link between the mathematical requirements of classical physics and the very nature of physical reality, offering a fresh perspective on the long-standing EPR paradox.
Beyond a Single Axion: Hunting for Hidden Fifth Forces
![The ratio between the full potential [latex]V_2^{(h^{1,1})}[/latex] and the potential generated by light axions [latex]V_{\mathrm{light}}^{(h^{1,1})}[/latex] was analyzed for samples of 50 and 200 axions, revealing instances where the axion mass [latex]m_a[/latex] equals 1.](https://arxiv.org/html/2606.06606v1/x4.png)
New research explores how the existence of multiple axion-like particles could manifest as detectable, spin-dependent forces beyond the Standard Model.
Beyond Charge: Uncovering Hidden Symmetries in Quantum Physics
New research delves into the intricate world of 1-form symmetries, revealing how anomalies in these symmetries connect to deeper structures in string theory and quantum field theory.
The AI-Generated Quantum World: A New Threat to Data Trust
Researchers have shown that readily available artificial intelligence can convincingly simulate data from quantum experiments, raising concerns about the authenticity of scientific results.
Simulating Reality: A New Path to Quantum Advantage
![The framework leverages neutral atoms within tunable optical lattices - or individually controlled tweezers - to simulate fermionic systems governed by the Fermi-Hubbard model [latex]H_{FHM}[/latex], iteratively refining the system’s parameters via a variational quantum eigensolver feedback loop to converge on the ground state of a target Hamiltonian, effectively translating the complexities of quantum mechanics into a programmable, numerically accessible form.](https://arxiv.org/html/2606.05517v1/x1.png)
Researchers have devised a hybrid digital-analog approach to fermionic quantum simulation using neutral atoms, paving the way for faster and more efficient modeling of complex physical systems.
Unlocking Quarkonium Secrets with Long-Range Interactions
A new theoretical approach explores the transitions between quarkonium and hybrid mesons by focusing on the subtle effects of long-range interactions.
Untangling Exotic Hadrons with Quantum Entanglement
![The azimuthal modulation of particle pairs-specifically, the [latex]\langle 2\cos(2\Delta\phi)\rangle[/latex] observable-varies significantly across different decay modes-[latex]a_1(1260)\pi[/latex], [latex]h_1(1170)\pi[/latex], [latex]\rho(\pi\pi)_{S\text{-wave}}[/latex], and [latex]\pi(1300)\pi[/latex]-reflecting the influence of intermediate-state quantum numbers and angular-momentum couplings on the transmission of parent-state spin alignment to final-state pions, a distinction confirmed by comparing experimentally reconstructed data with Monte Carlo simulations of true, cross, and recoil pair categories.](https://arxiv.org/html/2606.05691v1/x2.png)
A new technique utilizing entangled particles in heavy-ion collisions allows physicists to precisely measure the properties of fleeting, exotic hadronic resonances.