Hematene, a 3-atom-thick material extracted from iron ore, shows promise as an efficient photocatalyst for splitting water into hydrogen and oxygen. Its magnetic properties also make it suitable for spintronic-based devices.
A Rice University team is part of a $25 million study investigating the collapse of Thwaites Glacier in Antarctica. The team will use marine geological and geophysical data to examine how the glacier retreated in the past and determine key boundary conditions controlling its retreat.
Researchers at Rice University have discovered exceptional points in a unique material, enabling continuous tuning of light and matter coupling. This breakthrough may lead to novel quantum technologies like advanced information storage and one-dimensional lasers.
A Rice University-led study has provided first clues about internal structure of the Galicia margin using a seismic probe. The data revealed seismic images of the S-reflector, a prominent detachment fault within the continent-ocean transition zone, which accommodated slipping along the zone.
Bayou, developed by Rice University, uses neural sketch learning to recognize patterns in Java code and generate code snippets. This enables developers to get immediate feedback on their queries, making it easier to navigate the numerous APIs.
Researchers at Rice University have extended a 100-year-old modeling formula to account for complex surfactants in enhanced oil recovery. The new model, developed by Walter Chapman and Xiaoqun Mu, incorporates temperature, pressure, composition, and other conditions to provide a more accurate prediction of oil behavior in wells.
A series of energy price increases across the Middle East and North Africa indicates a shift away from subsidies as a means of legitimacy for autocratic regimes. The reforms aim to streamline patronage structures, allowing regimes to maintain control while reducing their reliance on oil rents.
A Rice University study predicts the 2018 flu vaccine will have limited efficacy against the dominant circulating strain of influenza A due to viral mutations related to egg production. The pEpitope method accurately predicted vaccine efficacy rates for over 40 years of flu records and suggests a more accurate predictor than ferret tests.
Rice University scientists discovered that salt reduces the temperature at which elements interact in a chemical vapor deposition furnace, making it easier to form atom-thin layers. This process allows for the creation of novel materials with customized properties.
Researchers detect Bloch-Siegert shift in strongly coupled light and matter, a phenomenon previously speculated but never observed. The discovery could lead to a greater understanding of theoretical predictions in quantum phase transitions and the development of robust quantum bits for advanced computing.
Rice University scientists introduce a new technique to fine-tune two-component biological sensors, enabling tailor-made biosensors for diagnostic gut bacteria and environmental pollutant detection. The approach uses phosphatase activity to alter the sensitivity of these pathways, promising a major breakthrough in synthetic biology.
Rice University's RENEW technology will underlie a city-scale wireless test platform in Salt Lake City, enabling researchers and developers to conduct tests with up to 40,000 users. The platform aims to prepare for the future of wireless communications, where scalability is crucial.
Researchers relax perovskite crystal to reduce strain and improve power conversion efficiency, achieving 20.5% efficiency with negligible degradation over 1,500 hours of operation.
Researchers assess whether extreme weather events like Hurricane Harvey impact invasive pests, pollinators and other species. The team evaluates changes in ant communities to determine if floods accelerated the invasion process by invasive fire ants and tawny crazy ants.
Scientists at Rice University have developed a method to produce strong, lightweight graphite pellets without the need for high-temperature processing. The pellets exhibit good conductivity and stability in various conditions, making them suitable for applications such as conducting cables and electrodes.
The NEWT Center at Rice University has developed an energy-saving technology to remove pollutants from water. The polymer mat attracts hydrophobic contaminants, which are then destroyed by photocatalytic titanium dioxide under light exposure.
Research finds that living abroad leads to clearer career decision-making and increased self-concept clarity. The study, conducted by a team of social scientists at Rice University and other institutions, suggests that depth, not breadth, of international experiences enhances self-discerning reflections.
Researchers at Rice University have developed a hydrogel that significantly accelerates wound healing in genetically diabetic rodents, promoting tissue growth and regeneration. The study's findings suggest that the hydrogel's cellular infiltration enhances wound closure rates, providing hope for improved treatment of diabetic ulcers.
Researchers discovered micron-scale particles linked to a magnetic field can self-assemble into swimming motion, replicating human breaststroke. The ability can be controlled with an eccentric magnetic field, allowing for potential use as drug-delivery vehicles or micro-robots.
Scientists at Rice University and Tokyo Metropolitan University developed a novel way to manipulate light at the quantum scale by using single-walled carbon nanotubes as plasmonic quantum confinement fields. The discovery could lead to the development of unique lasers and other optoelectronic devices.
A Rice University study reveals a connection between dinosaur-era volcanoes and the formation of shale gas and oil fields. The research suggests that nutrient-rich ash from thousands of volcanic eruptions led to the creation of these deposits.
Researchers discovered that a hydrogel developed by the Rice University lab exhibits significant therapeutic properties, rapidly infiltrating host cells and promoting healing. The hydrogel can be delivered through a syringe and degrades over six weeks, leaving behind healthy tissue.
A new review paper by Eduardo Salas of Rice University found that team training can significantly improve health care outcomes, including reducing patient mortality by 13 percent. The research highlights the importance of incorporating considerations such as on-the-job skill building and simulations into team training.
Researchers at Rice University have developed a new 'white graphene' architecture that can store hydrogen with unprecedented capacity in boron nitride nanomaterials. The optimal design features a specific spacing and arrangement of boron nitride sheets and pillars, resulting in improved hydrogen absorption and release capabilities.
Researchers successfully exfoliated gallenene onto various substrates, demonstrating its potential as an efficient metal contact in two-dimensional electronic devices. The method used to create the flat gallium could be explored for other metals and compounds with low melting points.
A new slow-release hydrogel has been developed to aid immunotherapy for cancer, providing a continuous dose of immunotherapy drugs to activate the immune system. The hydrogel, called STINGel, was tested in lab cultures and in vivo trials, showing promise in killing cancer cells and preventing further implantation of cancer cells.
The Rice team designs a thin, wide-field microscope that surpasses traditional microscopes in resolution and field of view. FlatScope eliminates the need for lenses, allowing for micrometer resolution over several cubic millimeters.
Physicists have discovered a way to create complex structures called Rydberg polarons using ultracold strontium atoms, which can be assembled like Lego blocks. The findings reveal new insights into the basic nature of matter and challenge traditional chemistry laws.
A Rice University-led team has been awarded $10 million by the NSF to create wearable and point-of-care microscopes that can monitor nearly 100 health conditions without invasive procedures. The technology aims to provide real-time, non-invasive imaging of tissues using on-chip illumination and sensing.
Researchers at Rice University have found that graphene catalysts contain trace amounts of manganese, which activates the oxygen reduction reaction and improves fuel-cell efficiency. The study used inductively coupled plasma mass spectrometry to detect manganese atoms in samples made by the Rice lab.
Rice University researchers will use the data to analyze how exposure to mixed toxins in the environment affects a population, especially children. The team aims to develop tools that can characterize environmental exposures, social stressors and residential stability to improve understanding of their impact on educational outcomes.
Scientists at Rice University have successfully used CRISPR/Cas9-based gene editing to repair 20-40% of stem and progenitor cells from patients with sickle cell disease. The study, led by bioengineer Gang Bao, aims to find a cure for the hereditary disease.
Rice University scientists have developed a technique to write graphene patterns onto various materials, including food, paper, and cloth. The new method uses laser-induced graphene (LIG) to create conductive identification tags and sensors that can be embedded into products.
A study by Rice University found that 80% of black and Latino Americans believe in the healing power of religious faith, while Korean-Americans see it as primarily supportive. The research aimed to understand the role of church in health promotion and explored how racial representation shapes distrust of medicine.
A new review article provides a novice-level introduction to applying molecular genomics techniques to study complex behavior. The guide recommends specific tools and collaborations for behavioral ecologists, aiming to bridge the gap between behaviorists and genome annotators.
Rice University scientists have developed a stable and economical method to make polymers through photo-controlled atom-transfer radical polymerization. The process uses photosensitive quantum dots as a catalyst, which can be triggered by light sources such as the sun or a household lamp.
The Rice lab demonstrates energetic properties of colloids in spinning magnetic fields, gathering into disorganized aggregated clusters and then forming crystal-like regimes as the field strength increases. The researchers explore ways to model novel two-dimensional materials like tunable catalysts or colloids with changing surface areas.
Researchers at Rice University have created a new type of gas sensor that can monitor microbes' health and activity in soil without disturbing them. The sensor uses genetically engineered microbes to report on their environment and activity, providing valuable data for bioengineers, geobiologists, and other researchers.
Researchers discovered that a specific mix of hydrogen bonds is critical to making strong and ductile infrastructure materials. The optimal overlap of oxygen and hydrogen atoms forms a network of weak hydrogen bonds that connects soft and hard layers.
Rice University researchers confirmed their theory on the mechanism behind a fluorescent biosensor that monitors neurons by sensing changes in voltage. They developed a method to test fluorescent biosensors using computer simulations, resolving a decade-long debate between scientists.
Archaeologists at Rice University have discovered glass production in sub-Saharan Africa, challenging previous theories about the origins of glass technology. The findings suggest that glass was widely traded across West Africa and had a significant impact on regional dynamics.
Researchers at Rice University have developed a new ceramic material that combines the benefits of white graphene with calcium-silicates. The resulting composite has improved strength, toughness, and thermal conductivity, making it suitable for high-performance applications in construction, nuclear power plants, aerospace, and more.
Researchers develop a gene promoter library to precisely tune genetic inputs and outputs, allowing for the design of probiotics that can diagnose or fight disease. The toolkit enables the creation of non-leaky promoters that turn on as much as needed, opening new doors for fighting disease.
Researchers have created a method to rapidly align and twist carbon nanotubes on a slide, producing short, high-strength fibers. The technique reduces production time from hours to minutes, enabling quicker testing and analysis of the fibers' properties.
Researchers create virus-like nanoparticles that can detect and process environmental inputs, producing controllable outputs. The modified viruses can display multiple peptides on their surface, enabling efficient delivery of protein- or peptide-based therapeutics to specific cells or tissues.
A new paper by experts at Rice University's Baker Institute finds geopolitical risks to US oil supply are at their lowest since the 1970s. Climate policies have enhanced oil security through greater fuel efficiency and alternative technologies.
Researchers at Rice University have optimized nanomaterials for fuel-cell cathodes, revealing that nitrogen-doped carbon nanotubes and graphene nanoribbons can replace platinum to boost fuel cell efficiency. The study showed that the right balance of binding energy is crucial for good catalytic performance.
Scientists at Rice and Swansea universities discovered that removing contaminants from carbon nanotubes enhances their conductivity. Vacuum annealing at high temperatures reduced surface contamination, allowing accurate resistance measurements. This breakthrough could lead to more consistent results in nanoscale devices.
Researchers at Rice University's NEWT Center have discovered a catalyst that converts nitrates into nitrogen and water, effectively removing the toxic pollutant from drinking water. This breakthrough offers a promising solution for addressing nitrate pollution in agricultural communities and improving public health.
A new study by Rice University professor Xue Gao outlines a strategy using gene editing to slow the progression of genetic hearing disease. The research found that delivering RNA protein complexes into hair cells significantly increased hair cell survival rates and preserved hearing in rodents.