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1144 artiklar · sida 39 av 46

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Researchers achieved a dramatic 500-fold increase in how long UV light emissions persist in zinc oxide crystals through basic thermal annealing. The breakthrough could accelerate commercial development of ultraviolet LEDs, sensors, and photodetectors—markets worth billions annually—by making the materials far more efficient at converting electrical current into useful light.EN

2024-01-01 · Heliyon · ,
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Researchers have cracked a persistent engineering puzzle in molecular solar thermal storage by using heteroaromatic compounds to simultaneously achieve both high energy density and stability. The advance could accelerate commercialization of a promising alternative energy technology that stores sunlight as chemical energy for later release as heat.EN

2024-01-01 · ChemPhotoChem · , , et al.
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Researchers have validated a faster, cheaper way to model the electronic properties of specialized InAlN nanorods used in LEDs and solar cells. The finding lets engineers screen materials using standard computing methods instead of expensive supercomputers, accelerating development timelines for next-generation optoelectronic devices.EN

2024-01-01 · Physical Chemistry, Chemical Physics - PCCP · , , et al.
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Researchers have pinpointed the atomic defect responsible for blue light emission in hexagonal boron nitride, a material with growing applications in quantum computing and photonic devices. The discovery could accelerate development of room-temperature quantum light sources and improve manufacturing control, opening commercial opportunities in secure communications and advanced sensing.EN

2024-01-01 · Nanoscale · , , et al.
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Researchers discovered that making dye molecules more rigid paradoxically destroys their ability to emit light—a finding that could reshape design strategies for display technologies and optical sensors. The mechanism explains why flat, rigid dyes lose 90% of their brightness, enabling chemists to engineer better-performing alternatives for commercial applications.EN

2024-01-01 · New Journal of Chemistry · , , et al.
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Researchers have synthesized two previously unknown compounds made from hydrogen, carbon, and nitrogen under extreme pressure and temperature. The materials could eventually lead to harder, heat-resistant substances useful in industrial applications, though commercial development remains years away.EN

2024-01-01 · Angewandte Chemie International Edition · , , et al.
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Researchers have identified how the position of nitro groups on aromatic molecules determines whether they glow or go dark—a finding with immediate applications for display technology, medical imaging, and optical sensors. By mapping the quantum mechanics of electron flow, the team shows how to preserve brightness in materials that typically lose it, opening new design pathways for commercial light-emitting devices.EN

2024-01-01 · Journal of Materials Chemistry C · , , et al.
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Researchers discovered that heat doesn't always flow along the expected pathways in engineered plastic fibers used for energy conversion. The finding could help manufacturers design more efficient organic thermoelectric devices—potentially cheaper, safer alternatives to traditional materials for power generation and cooling applications.EN

2024-01-01 · Macromolecular materials and engineering · , , et al.
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Scientists have developed synthetic polymers that mimic natural antibodies, enabling faster, cheaper detection of diseases and targeted drug delivery tailored to individual patients. The technology could accelerate clinical diagnostics and reduce healthcare costs by replacing expensive biological antibodies with engineered alternatives that work across multiple medical applications.EN

2023-10-24 · Polymers · , , et al.
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A new editorial synthesizes emerging research on solitons—stable wave-like structures that could revolutionize quantum computing, telecommunications, and energy storage. Understanding how these exotic states nucleate and persist in condensed matter opens pathways for engineering materials with unprecedented properties for next-generation technologies.EN

2023-01-01 · Frontiers in Physics · , , et al.
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Researchers have turned electronic noise into a detection mechanism by layering gold particles onto graphene-silicon devices. The approach reliably spots organic vapors and could lead to cheaper, more sensitive gas sensors for industrial safety and environmental monitoring.EN

2023-01-01 · Applied Physics Letters · , , et al.
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Scientists have identified a major source of interference that could swamp signals in upcoming neutrino observatories—atmospheric muons created by cosmic rays. As experiments like IceCube-Gen2 prepare to scan vastly larger volumes of space, understanding and filtering out this background noise is now critical to achieving their scientific goals and justifying multi-hundred-million-dollar investments.EN

2023-01-01 · Journal of Cosmology and Astroparticle Physics · , , et al.
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Researchers identified 39 bioactive molecules in an Egyptian desert shrub that killed breast and liver cancer cells in lab tests. The finding could help pharmaceutical companies develop new cancer therapies from plants adapted to extreme environments, potentially offering treatments with fewer side effects than current options.EN

2023-01-01 · BMC Complementary Medicine and Therapies · , , et al.
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Researchers have identified what determines whether molecules stack or fold when assembling into hollow nanotubes—a discovery that could accelerate manufacturing of nanomaterials for drug delivery and electronics. By understanding how molecular bonding preferences guide self-assembly, scientists can now predict and control the final structure, moving closer to reliable bottom-up production of engineered nanomaterials.EN

2023-01-01 · Journal of the American Chemical Society · , , et al.
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Researchers have created synthetic ring-shaped molecules that shift their geometry to control chemical reactivity—a feat that could accelerate drug discovery and materials development. The work demonstrates that precise conformational control unlocks new reaction pathways, offering a blueprint for engineering molecules with customizable properties.EN

2023-01-01 · CCS CHEMISTRY · , , et al.
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OpenMolcas, a free computational chemistry platform, has added major capabilities for simulating molecular behavior and chemical reactions. The upgrades make sophisticated atomic-level modeling accessible to researchers without expensive proprietary software, potentially accelerating development of new drugs, batteries, and industrial chemicals.EN

2023-01-01 · Journal of Chemical Theory and Computation · , , et al.
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Researchers have engineered a three-dimensional composite material that dramatically improves how efficiently light converts water into hydrogen fuel. By combining graphene with specially engineered zinc indium sulfide, the material achieves hydrogen generation rates competitive with existing commercial catalysts—a key step toward making solar hydrogen production economically viable at scale.EN

2023-01-01 · JACS Au · , , et al.
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Scientists have identified a tradeoff in aluminum-silicate coatings: heating them during manufacturing makes them stronger and denser, but significantly more prone to cracking. The finding could reshape how manufacturers balance durability against damage resistance in protective coatings used in electronics, optics, and aerospace applications.EN

2023-01-01 · Thin Solid Films · , , et al.
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Scientists used computational modeling to reveal how bismuth ferrite transforms between different structural states, each with distinct electronic and mechanical properties. The findings could accelerate development of next-generation ferroelectric materials for sensors, memory storage, and energy applications worth billions in the electronics market.EN

2023-01-01 · The European Physical Journal Plus · , , et al.
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Researchers have discovered that adding three elements to zirconium oxide ceramics allows them to densify at lower temperatures and faster rates than conventional methods. The advance could reduce energy costs and production time for ceramics used in electronics, dental implants, and industrial components.EN

2023-01-01 · Journal of The American Ceramic Society · , , et al.
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Researchers have created the first detailed models of how light escapes from the violent aftermath of neutron star collisions, identifying specific chemical signatures that astronomers can now use to detect and study these rare cosmic events. The work could help calibrate observations from next-generation telescopes and improve estimates of how much gold and other heavy elements these collisions produce.EN

2023-01-01 · Monthly notices of the Royal Astronomical Society · , , et al.
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Researchers have identified a previously unknown class of magnetic formations called tailed skyrmions that emerge under specific field conditions. The discovery expands the toolkit for designing next-generation magnetic memory and computing devices, where controlling these exotic structures at nanoscale could enable denser, faster data storage.EN

2023-01-01 · Frontiers in Physics · , , et al.
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Researchers have adapted a quicker manufacturing technique to produce high-entropy alloys that convert heat to electricity with comparable efficiency to slower methods. The advance could accelerate commercialization of thermoelectric materials for industrial heat recovery and power generation, where speed and scalability determine economic viability.EN

2023-01-01 · ACS Omega · , , et al.
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After decades of searching, researchers at the Large Hadron Collider have directly detected four top quarks produced simultaneously—a milestone that validates fundamental physics predictions and opens new avenues for discovering physics beyond current models. The finding strengthens confidence in the Standard Model while providing a testing ground for theories of exotic particles and forces.EN

2023-01-01 · European Physical Journal C · , , et al.
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Scientists have demonstrated that two types of magnetic vortices—skyrmions and antiskyrmions—can coexist and remain stable for hours at near-room temperatures in a real material system. The breakthrough opens a practical pathway for building smaller, more efficient spintronic devices that store and process data using these magnetic structures rather than traditional electron charges.EN

2023-01-01 · npj Quantum Materials · , , et al.