Researchers developed CUNQA, an open-source emulator enabling the testing of distributed quantum computing models on existing high-performance computing systems, paving the way for future scalable quantum architectures. This tool uniquely simulates three communication schemes, offering valuable insights before real distributed quantum computers are built.

HPE has launched the Quantum Scaling Alliance, uniting technology leaders to accelerate the development of practical, scalable quantum computing solutions. This collaboration aims to move quantum technology beyond research, integrating it with existing supercomputing infrastructure to unlock breakthroughs across diverse industries.

Researchers have developed a new method for streamlining quantum computations using existing technology, achieving optimal efficiency by performing any sequence of operations with a minimal and predictable number of steps without requiring additional quantum bits.

QANplatform has joined Blockchain for Europe to enhance the EU's quantum security. The platform enables developers to create quantum-resistant Web3 applications in any programming language, setting new standards in cybersecurity.

Genuine multipartite entanglement, a complex form of correlation beyond simple separability, represents a crucial concept in advanced information processing and benchmarking of complex systems. Robert Stárek from Palacký University, Tim...

Researchers comprehensively surveyed methods for automatically designing energy-efficient spiking neural networks, revealing that optimising both the network’s software and the underlying hardware is crucial for realising their potential in applications like edge computing and the Internet of Things.

Researchers have developed a new method for precisely controlling individual atoms using light, achieving significantly faster and more versatile movement in three dimensions which promises to accelerate the development of powerful atom-based computers.

Scientists observe a distinct shift in atomic current within a supercooled gas, revealing a dynamic change in state triggered by manipulating the connection between atomic momentum and internal spin.

Scientists have experimentally verified a fundamental limit of quantum mechanics by demonstrating that the behaviour of entangled qubits cannot be explained by simply assuming our knowledge of their properties is incomplete, using a complex quantum processor and accounting for real-world hardware imperfections.

Researchers have proven that a key mathematical property, non-degeneracy of the Hessian, holds true for a specific class of spinfoam models describing quantum gravity, confirming their connection to established physics and ruling out problematic mathematical anomalies that plague other similar theories.