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54 stories from Planck Standard. Latest: August 9, 2026.
Chinese researchers wrapped a light-absorbing core in a shell that shuttles protons the way a cell membrane does, hitting 1.2% solar-to-chemical efficiency — and it keeps working when embedded in a hydrogel and left outside.
Washington University engineers cracked a trade-off that has blocked fuel-cell catalysts for years, and they are aiming it at the data centers now on track to eat 9% of U.S. electricity.
Carnegie Mellon, Stanford and Purdue researchers harnessed surface phonon polaritons to move up to four times more heat across tiny gaps — a possible breakthrough for cooling computer chips.
Nature-inspired membrane technology could transform industries by dramatically reducing energy consumption while achieving unprecedented molecular separation precision.
Breakthrough achieves four times more energy flow than conventional systems, opening door to better chip cooling and precision heat engineering applications.
Researchers achieved up to four times more energy flow than conventional systems using nanoscale gold metamaterials, potentially revolutionizing chip cooling and energy technologies.
Researchers at Carnegie Mellon, Stanford and Purdue showed that patterning microscopic gold structures can boost radiative heat transfer up to fourfold, a result that could reshape cooling for electronics and energy systems.
Carnegie Mellon researchers demonstrate breakthrough metamaterials technology that could transform chip cooling and energy efficiency across multiple industries.
Carnegie Mellon researchers achieved four times greater heat transfer than conventional systems, potentially revolutionizing electronics cooling.
Carnegie Mellon researchers demonstrate unprecedented control of nanoscale heat flow, opening doors to revolutionary chip cooling and energy technologies.
University of Minnesota researchers show that changing metal film thickness by just a few nanometers can dramatically alter electronic behavior.
University of Minnesota discovery shows how tiny thickness adjustments can alter metal properties by more than one electron volt.
Molybdenum oxychloride demonstrates the strongest light-bending effect ever measured in nature, potentially enabling ultrathin smart contact lenses and AR glasses.
Monash University scientists create compact circuit that generates, directs, and reads quantum light signals, marking major leap toward ultra-fast computing.
Scientists create integrated device that generates, steers, and reads light-based information at room temperature, marking major breakthrough for quantum technologies.
Molybdenum oxychloride exhibits strongest light-bending effect ever measured in natural material, potentially enabling invisible wearable technologies.
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.
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.
Stanford researchers develop nanoscale device that creates quantum entanglement without extreme cooling, potentially revolutionizing quantum technology costs and accessibility.
By stacking silver nanoparticles like LEGO bricks, researchers created a mysterious crystal phase never observed before with promising room-temperature quantum properties.
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.
Scientists adapted centuries-old glassmaking methods to create customizable porous materials for gas storage and separation.
Revolutionary breakthrough shows light can be confined to extraordinarily small spaces using lossless materials, potentially enabling ultra-efficient photonic chips and quantum technologies.
Scientists discover how to fine-tune futuristic porous glass using centuries-old techniques, potentially accelerating clean energy development.
Breakthrough in 'singulonics' uses purely dielectric materials to confine light far beyond conventional limits without energy losses from metals.
Cambridge researchers use molecular antennas to power materials that normally can't conduct electricity, producing ultra pure near infrared light for medical applications.
The Institute for Bioengineering of Catalonia turns the brain's own LRP1 transport system into an active drug — and treated 18-month-old mice behave like healthy younger animals six months later.
Cambridge researchers use molecular antennas to power insulating nanoparticles, achieving breakthrough in ultra-pure near-infrared light generation.
Breakthrough treatment restored brain's natural cleanup system and cleared toxic proteins, with elderly mice behaving like healthy younger animals.
Engineered nanoparticles restored brain cleanup systems and cleared toxic proteins, with elderly treated mice later behaving like healthy younger animals.
Researchers discover that promising 2D materials lose their electronic advantages when paired with insulating layers due to invisible nanoscale separation.
Researchers discover that tiny 0.14-nanometer separation between materials weakens electronic performance and could prevent further miniaturization of computer chips.
Three-dimensional atomic mapping reveals unexpected charge patterns in relaxor ferroelectrics used in ultrasound and sonar systems for decades.
Researchers finally reveal the three-dimensional structure of relaxor ferroelectrics, materials that power ultrasound machines and sonar systems worldwide.
Breakthrough mapping of relaxor ferroelectrics challenges decades of assumptions and opens path to better-designed devices.
Scientists create swirling beams of light using simple liquid crystals instead of complex nanotechnology, achieving breakthrough in photonic device development.
New quantum sensing method using Rydberg atoms could dramatically improve measurement capabilities while enabling compact detector designs.
Researchers at HZDR replaced toxic acid etching with molten salt chemistry to produce MXenes with near-perfect atomic order, setting a new benchmark for the ultra-thin material's electrical performance.
Flinders University researchers built molecular cages embedded in silica that can capture even short-chain PFAS that slip through conventional filters — and the material regenerates itself.
Scientists develop revolutionary molten salt synthesis method that creates ultra-precise atomic surfaces for advanced energy applications.
New molten salt technique creates perfectly ordered atomic surfaces, transforming ultra-thin materials for next-generation electronics and energy storage.
Scientists develop cleaner synthesis method using molten salts and iodine, creating ultra-thin materials with unprecedented electron mobility.
Researchers have rolled flat 2D materials into ultra-thin tubes that create 'highways' for rapid ion transport, dramatically improving battery and sensor performance.
Revolutionary polymer can transform its surface patterns and colors in seconds, potentially enabling AI-controlled camouflage systems and flexible displays.
Researchers transform flat 2D materials into tubular structures that act like "highways" for ions, boosting energy storage and sensor capabilities.
Scientists at Drexel University create ultra-thin conductive tubes that act as 'highways' for rapid ion transport in electronic devices.
Stanford researchers develop breakthrough material that can change both texture and color in seconds, inspired by marine creatures.
Researchers at Drexel University have converted 2D nanomaterial into ultra-thin tubes that create fast ion highways for batteries and sensors.
New design places ultra-thin semiconductors over tiny voids, boosting optical effects by up to 25 times without altering the material itself.
New design uses hollow air cavities beneath atom-thick materials to boost optical signals by up to 25 times, overcoming major limitation of thin devices.
A new metasurface design using silver nanocubes traps light in femtosecond-scale films, producing the fastest thermal photodetector ever built and enabling sensors that see across the entire electromagnetic spectrum.
New hollow cavity design boosts brightness by 20 times and nonlinear signals by 25 times, overcoming major limitation of ultra-thin materials.
Using silver nanocubes arranged just 10 nanometers above a gold surface to concentrate light through plasmonics, a Duke University team created a room-temperature photodetector operating at 2.8 gigahertz — hundreds to thousands of times faster than any previous thermal sensor — with transformative potential for medical imaging, precision agriculture, and space exploration.