A new framework, ZK-ACE, leverages zero-knowledge proofs to dramatically reduce on-chain data and enhance the scalability of blockchain systems preparing for the post-quantum era.
A new framework, pqRPKI, addresses the looming threat of quantum computers by fortifying the Resource Public Key Infrastructure against cryptographic attacks.
A new framework leverages the power of federated learning and post-quantum cryptography to fortify threat intelligence sharing against future quantum attacks.
![Driven by a shared underlying process [latex]Q_{t}[/latex], an ensemble of response functions gracefully converges toward a random attractor-a pair of antipodal points that subtly shift with the passage of time, demonstrating an inherent, dynamic equilibrium.](https://arxiv.org/html/2603.06187v1/Unknown-10.png)
New research reveals how shared noise can force seemingly random systems on a sphere to converge on stable, opposing states.
![The driven spin chain exhibits a phase diagram - detailed in the [latex] Q_0 - \omega_D [/latex] plane - where scar-induced oscillations and Floquet ETH-predicted thermalization compete, transitioning via a modulation of [latex] \omega_D [/latex], and further delineated by lines representing weak and strong Hilbert space fragmentation dependent on sector-specific spin configurations.](https://arxiv.org/html/2603.06111v1/x21.png)
New research explores how periodically driving a quantum spin chain can lead to localized states and a halting of thermalization.
Porting the CRuby virtual machine to the CHERI architecture revealed significant challenges related to undefined behavior in C, necessitating novel approaches to achieve memory safety.
As blockchain ecosystems multiply, this review analyzes the leading technologies aiming to seamlessly move tokens across chains.
A new approach to fuzzing CUDA programs aims to bolster the security of heterogeneous systems by proactively identifying memory safety bugs.
![The comparison of Monte Carlo (MC@NLO) predictions with next-to-leading order (NLO) fixed-order calculations and leading-order approximations-both with and without parton shower effects-demonstrates the process [latex]e^{+}e^{-}\to Z \to e^{+}e^{-} [/latex] at a center-of-mass energy of 365 GeV, highlighting the importance of higher-order corrections and parton shower modeling for accurate theoretical predictions.](https://arxiv.org/html/2603.05585v1/x45.png)
New calculations refine the modeling of particle interactions at high energies, crucial for maximizing the discovery potential of next-generation lepton colliders.
A new approach combines template-less biometrics with physically unclonable functions to generate stable, error-free keys for enhanced multi-factor authentication.