A new analysis breaks down the latency impact of integrating post-quantum cryptography into the TLS 1.3 handshake process, finding manageable overhead for modern applications.
A new signature scheme, SQInstructor, expands the SQSign framework and leverages advancements in isogeny graph theory to enhance the security and efficiency of post-quantum cryptography.
A new approach leverages the power of diffusion models and iterative refinement to deliver more reliable secret message embedding within images, even after compression.
As artificial intelligence takes on a larger role in cybersecurity, a new framework is needed to address the unique risks posed by autonomous, multi-agent systems.
This review explores how algebraic modeling, specifically leveraging Plücker coordinates and invariant theory, advances our understanding of linear code equivalence and its implications for cryptographic security.
![The hyperfine splitting of the P-wave bottomonium state for [latex]n=2[/latex] is experimentally determined, with results aligning with theoretical predictions based on a [latex]m_{b,\rm PV} = 4.836 \text{ GeV}[/latex] value for the [latex]b[/latex] quark mass, as established by Ayala et al. (2020).](https://arxiv.org/html/2603.08846v1/x29.png)
New calculations achieve next-to-next-to-next-to-next-to-leading order (N4LO) accuracy in determining the hyperfine splitting of heavy quarkonium states.
A new algorithm tackles the challenge of training teams of AI agents to cooperate and compete reliably, even when facing unpredictable opponents.
A new architecture minimizes risk by ensuring sensitive data remains encrypted even during processing in the cloud.
Researchers have developed a new framework to bring the benefits of analog joint source-channel coding to existing digital WiFi infrastructure.
Researchers have developed a novel searchable encryption scheme that allows multiple users to securely access data based on their individual permissions.