
Scientists Create Light-Powered Chip That Could Revolutionize Quantum Computing
The breakthrough device generates, steers, and reads light-based information in a single chip using atomically thin materials and nanoscale structures.
The physics desk
Physics from the quantum to the cosmos: particle physics, quantum computing, astrophysics, cosmology and the discoveries that change what is possible.

The breakthrough device generates, steers, and reads light-based information in a single chip using atomically thin materials and nanoscale structures.

Molybdenum oxychloride exhibits the strongest light-bending effect ever measured in a natural material, potentially revolutionizing optical technologies.

Scientists created a tiny device that generates, steers, and reads light-based information all in one chip, marking a major leap toward ultra-fast, energy-efficient computing using quantum properties of light.

Researchers at the Flatiron Institute and Boston University adapted a 1980s algorithm to simulate the dynamics of hundreds of qubits on classical computers, undercutting a 2025 claim that the feat required a quantum machine.

Researchers developed a compact detector that boosts terahertz radiation detection efficiency by roughly 20 times, potentially revolutionizing healthcare and communications.

A new room-temperature quantum device uses twisted light to entangle photons and electrons, overcoming one of the biggest hurdles in quantum technology development.

By arranging custom-designed silver nanoparticles like LEGO blocks, scientists stabilized a mysterious crystal phase that had never been observed before and exhibits promising quantum properties.

Scientists map optical properties of molybdenum oxychloride, revealing strongest light-bending effect ever measured in natural material.

Compact room-temperature detector could revolutionize terahertz technology for healthcare, communications and scientific research.

Stanford researchers develop nanoscale device that creates quantum entanglement without extreme cooling, potentially revolutionizing quantum technology costs and accessibility.

CERN researchers detect rare particle transformations that disagree with 50-year-old theory, potentially pointing to unknown forces or particles.

Advanced plasma simulations reveal how turbulent disorder in space creates massive organized magnetic structures that influence everything from black holes to solar storms.

Scientists studying rare "penguin decays" found behavior that doesn't match theoretical predictions, suggesting unknown particles or forces may be at work.

By stacking silver nanoparticles like LEGO bricks, researchers created a mysterious crystal phase never observed before with promising room-temperature quantum properties.

The breakthrough quantum system operates without extreme cooling by using twisted photons to entangle light and electrons, potentially enabling smaller and cheaper quantum technologies.

Researchers stabilized an elusive intermediate crystal phase by stacking engineered silver particles like nanoscale LEGO bricks, revealing promising quantum properties at room temperature.

Scientists solved a longstanding materials science puzzle by creating quantum materials that work at room temperature.

Scientists studying rare 'penguin decays' found results that disagree with 50-year-old physics theory, suggesting unknown particles or forces may exist.

By stacking custom-designed silver particles like nanoscale LEGO bricks, researchers stabilized a mysterious crystal phase never observed before, opening new possibilities for quantum technology.

The breakthrough device uses twisted light to entangle photons and electrons without extreme cooling, potentially making quantum technology smaller and more affordable.

Scientists used advanced plasma simulations to discover how the universe builds enormous magnetic fields out of turbulence, potentially reshaping our understanding of cosmic phenomena.

UC Davis researchers combine silicon sensors with machine learning to achieve lab-style spectral analysis without bulky equipment.

Scientists studying rare 'penguin decays' find results that don't match theoretical predictions, suggesting unknown particles or forces may exist.

Researchers point to blazars—supermassive black holes shooting plasma jets toward Earth—as likely origin of record-breaking 220 PeV particle.

Using terahertz lasers, researchers watched angular momentum move through crystals and found rotations can unexpectedly flip direction due to quantum symmetry effects.

Penguin decays show behavior inconsistent with Standard Model predictions, with only 1-in-16,000 chance results are random fluctuation.

Ultra-powerful terahertz lasers reveal how angular momentum transfers through crystals, with surprising reversals caused by quantum symmetry effects.

Nearly two decades of NASA data revealed that a rapidly spinning magnetar powered superluminous supernova SN 2017egm, helping settle a long debate over what drives the universe's brightest stellar explosions.

Scientists studying rare 'penguin decays' detect particle behavior that disagrees with 50-year-old theory, suggesting unknown particles or forces may exist.

Scientists use most detailed plasma simulations ever created to discover how cosmic turbulence builds enormous organized magnetic structures from chaos.