Science

Researchers have developed an innovative approach to reducing errors in superconducting qubits by integrating a leakage reduction unit directly into the measurement process.

A new review outlines the critical computer science hurdles facing the development of a functional and scalable quantum internet.

A new framework automatically generates protective measures to prevent sensitive instructions from being revealed by large language models, safeguarding their core functionality.

A new analysis dives deep into the trade-offs between Proof of Work and Proof of Stake, the foundational mechanisms powering decentralized networks.

Researchers have developed a method for expressing the stabilizers of complex hypergraph states using only local operators, opening new avenues for understanding their non-local properties.

Researchers have developed a new defense mechanism for Optical Character Recognition systems that uses the principles of topology to filter out adversarial attacks and maintain accuracy.

A new approach to distributed programming leverages language integration and checkpointing to create fault-tolerant applications that gracefully recover from failures.

Researchers have developed a new algorithm that efficiently rearranges neutral atoms, paving the way for more stable and scalable quantum computers.

Researchers have demonstrated a compact photonic chip that efficiently translates between common qubit encoding methods, enabling tighter integration of quantum networks and processors.

Researchers have developed a novel method for building quantum gates with significantly reduced qubit overhead on LDPC codes, offering a promising alternative to traditional surface code approaches.