Science

Researchers have refined the Gilbert-Varshamov bound, yielding tighter limits on the performance of both classical and quantum error-correcting codes.

Researchers are exploring the mathematical structure of braid groups to build a key exchange protocol that resists attacks from both classical and quantum computers.

New research demonstrates fundamental limitations in achieving simulation-based security for quantum functional encryption, extending known impossibilities to the quantum realm.

A novel two-component model, leveraging modified DGLAP evolution and unintegrated PDFs, provides a compelling description of particle production in high-energy proton-proton collisions.

A new framework translates questions about the maximum size of combinatorial structures into optimization problems, offering a powerful approach to extremal combinatorics.

A new approach combines the density of DNA with artificial intelligence to create a robust and error-resistant digital archiving system.

Researchers demonstrate a surprisingly simple fabrication process for creating vertical nanopillar devices from complex metal-molecule stacks, potentially unlocking scalable molecular electronics and spintronics.

New research reveals how strong electron correlation can disrupt the formation of robust integer quantum Hall states, impacting their potential for future electronic devices.

Researchers have developed a novel framework that enables privacy-preserving code generation using open-source AI models, shielding sensitive information from cloud observation.

Researchers demonstrate a practical attack that could isolate Ethereum nodes and disrupt network consensus after the Merge.