Articles tagged with Room Temperature
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Researchers at Linköping University have developed a world's first spin amplifier that can be used at room temperature, a crucial step towards spintronics. This achievement has significant implications for the future of electronics and data processing.
Researchers at Northwestern University have engineered a surface that prevents bubbling during boiling, creating a stable vapor cushion and eliminating bubbles. This discovery could lead to advancements in heat transfer equipment, anti-frost technologies, and reduce damage to surfaces.
Researchers have developed a solid-state MASER capable of operating at room temperature, eliminating the need for extreme conditions. This breakthrough has significant implications for various fields, including medicine, where it could be used to create more sensitive medical instruments.
Researchers at Harvard University have successfully created room-temperature quantum bits that can store information for nearly two seconds. This achievement is a significant step towards building a functional quantum computer and opens up new possibilities for various applications such as quantum cash and secure communications.
Researchers have developed a new technique to control the crystalline structure of titanium dioxide at room temperature, enabling precise control over its properties. This allows for the creation of materials with optimal structures for specific applications, such as photovoltaic cells and hydrogen production.
A handheld plasma flashlight has been developed to effectively kill bacteria on the skin's surface, including antibiotic-resistant Enterococcus faecalis. The device, powered by a 12-volt battery, generates a plasma plume that penetrates deep into bacterial layers, killing them in tens of seconds.
Researchers have developed a honeycomb pattern of nano-sized magnets that can store computable information and reduce interactions between neighboring magnets by two-thirds. The arrays can be read by measuring their electrical resistance, enabling potential for faster and more efficient computing.
Researchers at Caltech have successfully cooled a miniature mechanical object to its lowest possible energy state using laser light, paving the way for the development of exquisitely sensitive detectors and quantum experiments. The achievement uses optical light to extract phonons from the system, creating an efficient optomechanical t...
Researchers used DNA to identify microbes consuming methane, ethane, and propane after the oil spill. Temperature played a crucial role in bacterial growth and response to the spill.
A Princeton University study found that people are more likely to yawn in winter than summer due to ambient temperatures. The researchers believe that yawning could serve as a method for regulating brain temperature.
Researchers at Helmholtz-Zentrum Berlin have engineered a material that exhibits both electrically charged (ferroelectric) and magnetic (ferromagnetic) properties, controlled by electricity. This 'multiferroic' material has potential for multi-state data storage in computers, offering cost-effectiveness compared to existing materials.
The James Webb Space Telescope has completed its first round of cryogenic mirror testing, with six segments of the primary mirror responding to extreme temperatures. A second set of mirrors will arrive in late July for further testing, with the final set arriving in the fall.
Researchers have discovered a new, room-temperature method to produce hydrogen using molybdenum-based catalysts, which could significantly lower production costs. The new catalysts are stable, efficient, and compatible with acidic, neutral, or basic conditions in water.
Researchers have developed a method to finely control methane combustion, producing ethylene at room temperature and formaldehyde at lower temperatures. The process uses gold dimer cations as catalysts, enabling the selective generation of different products.
A new method called Antisolvent Swing Regeneration reduces the amount of heat needed during processing, potentially saving at least 10% of energy. This process uses a recyclable binding organic liquid to remove hydrogen sulfide from natural gas.
Researchers at UC Berkeley have developed a new technique that allows plasmon lasers to operate at room temperature. This achievement is a major step towards applications for plasmon lasers in single-molecule biodetectors, photonic circuits, and high-speed optical communication systems. The scientists were able to enhance the emission ...
A new technique developed by NIST scientists can detect biochemical changes in a decomposing cadaver, making it easier to find hidden graves. The device uses an alumina-coated column with a motorized pipette to pull in air samples, detecting trace amounts of ninhydrin-reactive nitrogen.
Researchers at CIN2 have developed a way to make artificial materials that control water condensation, leading to the formation of 'room-temperature ice' at ambient conditions. This breakthrough has significant implications for snowmaking, improved freezer systems, and new coatings for skating rinks.
Researchers found asymmetrical behavior in electrons' tunneling ability depending on oxygen atom position, a significant step toward identifying pseudogap state and its effect on superconductivity. The discovery may lead to new approaches to achieving room-temperature superconductivity in copper-oxides.
A new technique enables large-scale production of high-quality graphene at room temperature using a molecular wedge, resulting in undamaged graphene dispersed in water. The researchers used the graphene to build chemical sensors and ultracapacitors with high-performance applications in environmental sensing and energy storage.
Researchers found that accidental overdose deaths from cocaine use rose significantly when ambient temperature exceeded 24 degrees Celsius. The number of cocaine-related overdose deaths continued to climb as temperatures increased, due to cocaine's effect on core body temperature and cardiovascular system.
A new study reveals that wild female bats switch between clustering and torpor to minimize energy expenditure, with torpor use increasing post-lactation. This flexible strategy allows for optimal thermoregulation despite environmental changes.
Mid-infrared laser breakthroughs to 120 watts, boosting infrared countermeasures for aircraft protection. Researchers developed QCL devices resistant to filamentation, increasing peak output power and ridge width.
Professor Paul Ching-Wu Chu, a world leader in superconductivity research, has received a $2.8 million grant to explore novel materials that can operate at higher temperatures and have greater current carrying capacity. This funding will enable the development of more compact and lighter power devices with higher energy densities.
Clemson University is part of a five-year, $3 million Air Force Office of Scientific Research award to explore carbon nanotube-based superconductors. The team aims to develop composite wires that can replace inefficient copper wiring in power lines.
Tom Smith is experimenting with synthesizing liquid salts into a gel to create a new material that confines charge-carrying ions in a gelled, pseudo-liquid state. The goal is to improve conductivity in electrochemical devices at nanoscopic dimensions.
Scientists use a unique instrument to probe the dynamics of ions in water, revealing that water zips around ions more than expected. The findings improve understanding of chemical interactions important in environmental and atmospheric sciences.
Scientists have successfully trained tiny semiconductor crystals to display new magnetic functions at room temperature using light as a trigger. The breakthrough could enable the creation of materials that store information and perform logic functions simultaneously without the need for super cooling.
Recent work at SLAC National Accelerator Laboratory reveals two distinct structures in liquid water: tetrahedral and disordered regions. The researchers discovered that these structures exist in 'clumps' made up to 100 molecules, with the temperature affecting their distribution and density.
Researchers have successfully created single-atom quantum dots that can be used to control individual electrons with minimal energy. This breakthrough brings quantum dot-based devices within reach, potentially transforming the development of ultra-low power computers.
New research by Cardiff University's Common Cold Centre found that hot fruit cordial provides immediate relief from cold symptoms. The study of 30 volunteers with common cold symptoms showed a 'hot' version of the drink to be effective in reducing symptoms such as runny nose and cough.
Researchers at Berkeley Lab have developed a nanoelectromechanical system (NEMS) that can weigh individual gold atoms, measuring masses as small as two fifths of a gold atom in just over one second. The NEMS mass sensor uses carbon nanotubes and achieves sub-single-atom resolution at room temperature.
Physicists at Rutgers University have studied exotic chemical compounds containing neptunium and plutonium, revealing a new connection between magnetism and superconductivity. The findings suggest that these materials could lead to room-temperature superconductors.
Scientists have discovered the location of doped hole carriers that aggregate in high-temperature superconductors, advancing understanding of how they form pairs. This finding reveals the interplay between magnetism and superconductivity, suggesting that non-superconducting vortex cores may exhibit collective magnetism.
A new study reveals that fruitflies have four large heat-responsive neurons in their brain, which help them detect and avoid temperatures just above their preferred level. This discovery sheds light on the mechanisms of neural circuits that drive animals to select a preferred temperature.
Researchers surveyed 39 tree species and found nearly constant temperatures in leaf samples. This discovery challenges the assumption that leaf temperatures are equal to ambient air conditions, suggesting adaptations towards achieving optimal temperature for photosynthesis.
New research reveals that overheating and thermal stress can contribute to the development of Sudden Infant Death Syndrome (SIDS). The study, led by Dr. Shabih Hasan, found that increased ambient temperatures, smoking during pregnancy, and exposure to cigarette smoke can all increase the risk of SIDS.
Researchers at Harvard University have developed a novel device that emits coherent Terahertz (THz) radiation at room temperature, overcoming a major hurdle in laser technology. The breakthrough has significant potential for applications ranging from security screening to chemical sensing.
Researchers have doubled the efficiency of infrared lasers in the mid-infrared wavelength range, which could enable next-generation laser-based defense systems and commercial applications like trace chemical analysis and pollution monitoring. The advancements were achieved through improvements to material quality, design, and fabrication.
Researchers have discovered a potential solution to store raw hydrogen in a compact and efficient manner. MOF-74, a porous crystalline powder, can adsorb more hydrogen than any unpressurized framework structure studied to date at low temperatures.
Graphene outperforms silicon in terms of mobility, allowing for high-speed electronic devices and biochemical sensors. Researchers found that thermal vibrations have a small effect on electrons in graphene, making it promising for various applications.
Researchers at Northwestern University have developed a new type of laser that can emit over 700 milli-Watts of continuous output power, a factor of two increase from competing technology. The Quantum Cascade Laser has a 10-18% wall-plug efficiency, making it suitable for widespread deployment and low-cost production.
Critical high-temperature superconducting materials exhibit metallic behavior, similar to ordinary metals. This discovery paves the way for a deeper understanding and potentially higher critical temperatures, bringing us closer to room temperature superconductivity.
A new theory predicts how polymer glasses, such as those used in DVDs and aircraft windshields, age over time. The material's properties change due to slow molecular movements, affecting its stiffness and brittleness.
Researchers at ASU are working on a new fuel cell technology designed for large-scale power generation, which can efficiently generate electrical power while minimizing heat management needs. The team aims to develop a membrane that operates at high temperatures, reducing size, weight, and costs.
Researchers have observed the quantum Hall effect in a new form of carbon called graphene at room temperature, pushing the phenomenon's boundaries. The discovery opens up possibilities for measuring resistance standards at elevated temperatures and magnetic fields.
Researchers have developed a technique to measure precise conditions for electrically polarized ultrathin materials, revealing the ferroelectric state in next-generation memory chips and devices. The study shows that these materials can retain their properties at room temperature with thicknesses as thin as 4 nanometers.
Researchers found nematodes' life cycle affects pollution sensitivity, with sexually-reproducing strains more vulnerable. Temperature changes trigger genome shifts and alter gene regulation, impacting population growth.
Researchers at Cornell University have developed nanoscale resonators with the highest quality factor so far obtainable at room temperature. The devices can be used to detect and identify biological molecules and replace bulky quartz crystals in radio-frequency circuits.
Researchers have created nanoscale resonators, called nanostrings, with the highest quality factor so far obtained at room temperature. These devices can be used to detect and identify biological molecules and replace bulky quartz crystals in radio-frequency circuits.
Researchers found that synapses act as fine-tuned filters, amplifying meaningful patterns and eliminating stray noise. Synaptic transmission is highly temperature-dependent, and the two types of synapses work together to identify patterns carrying relevant information.
Researchers at University at Buffalo have determined that the temperature difference between air and water controls the amount of mist at Niagara Falls. The study found that a higher temperature difference results in a thicker and more substantial mist plume, contrary to previous reports linking high-rise hotels to increased mist levels.
Researchers developed a new method to permanently bind carbohydrate groups to proteins using room-temperature water-based chemistry. This breakthrough could lead to improved drug delivery and advancements in cancer research.
Researchers have developed a method to estimate oxygen levels in grain boundaries of superconductors, which can enhance their critical current density. This technique, called pressure-induced oxygen relaxation, could make it easier to manufacture reliable ceramic superconductors.
Researchers at UC Santa Barbara have successfully detected and studied 'dark' spins in diamond, a significant breakthrough in the development of room temperature quantum computing. The discovery could enable networks of spins to process information at the atomic level.
A recent study published in Pediatrics found that parked cars can heat up by an average of 40 degrees F within an hour, regardless of ambient temperature. This rapid heating can be fatal if left unattended, highlighting the importance of taking children with you when parking.
Scientists have discovered a novel method to achieve spontaneous ignition and sustained combustion at room temperature using nanometer-sized particles of platinum. This breakthrough has significant implications for distributed power generation and military defense, offering a potential solution to the energy crisis with higher efficien...
Pigs can become lethargic in high temperatures, leading to poor growth rates. Providing extra cooling measures such as water baths or misting systems can help reduce heat stress and increase feed intake.
Researchers developed self-cleaning hydrogen sensors using titania nanotubes that can recover from contamination by exposing them to ultraviolet light. The sensors' photocatalytic properties allow for efficient removal of contaminants, enabling real-world applications with minimal sensor error.
The study identifies three key factors: tunnelling, competing order, and charge imbalance. By understanding these mechanisms, scientists can develop superconducting materials with higher critical temperatures, leading to significant implications for industries like medical imaging and electrical power transmission.