Whispers in the Nano-World: Securing Molecular Communication
This review explores the theoretical limits of reliable and secure data transmission using molecular signals, paving the way for ultra-low power communication networks.
This review explores the theoretical limits of reliable and secure data transmission using molecular signals, paving the way for ultra-low power communication networks.

A new hardware mechanism offers comprehensive protection against a wide range of memory-based attacks, from buffer overflows to speculative execution vulnerabilities.

A new study rigorously tests methods for subtly marking text created by artificial intelligence, revealing both promising results and critical limitations.
New research reveals how deliberately obscured code impacts the ability of artificial intelligence to find security vulnerabilities.

New research details the hyperfine structure of silicon T centres, unlocking potential for protecting quantum information and building long-range quantum networks.
Researchers have designed a novel family of quantum codes that demonstrably outperform the quantum Gilbert-Varshamov bound, paving the way for more resilient quantum computation.

A new mechanism for ensuring reliable and efficient performance in decentralized AI systems is proposed, addressing the challenges of cost and quality in large language model inference.

Researchers have developed a novel supervisory system to ensure the reliable and safe operation of multiple AI agents working together.

Researchers have discovered a way to design solvable quantum circuits based on the geometric properties of spacetime lattices, offering new insights into the behavior of complex quantum systems.

Researchers have developed a compression technique that dramatically reduces the memory footprint of complex neural networks, paving the way for deployment on edge devices.