Researchers at Stanford University have developed a new phase-change memory that could help computers process large amounts of data faster and more efficiently. The technology improves several metrics simultaneously, including speed, endurance, and stability, while operating below 1 volt.
Researchers have created a lightweight, portable antenna that can switch between two operating states to communicate with satellites or devices on the ground. The antenna's unique design allows it to be compact and foldable, making it ideal for disaster-struck areas or underdeveloped regions.
Research using cellphone data found that most people in big cities primarily interact with others within their own socioeconomic bracket. However, locating meeting places between neighborhoods could help change this, as cities with frequently-visited hubs in between neighborhoods were less segregated.
A new hydrogel drug delivery system has been developed that can transform daily injections of diabetes and weight control drugs into once every four months. The system has shown promising potential in laboratory tests and could improve management of Type 2 diabetes, patient drug compliance, and long-term health outcomes.
Stanford researchers developed a technique to boost PeLEDs' brightness and efficiency, but it comes at the cost of reduced lifespan. The additive doubles efficiency and triples brightness, extending lifespans from under 1 minute to 37 minutes.
Researchers have found that injuries on one part of an organism can trigger a whole-body response aiding wound healing and tissue regeneration. This coordination is crucial for successful regeneration in certain organisms such as planarians, zebrafish, and axolotls.
A new method developed by Stanford researchers uses an inkjet printer, nanoparticles, and artificial intelligence to detect bacteria in blood, wastewater, and other fluids. The test can be done in minutes, is inexpensive, and more accurate than traditional culturing methods.
Researchers at Stanford University have developed a novel AI-powered approach to analyzing traumatic brain injury, using artificial intelligence to identify the most accurate model of mechanical stress on the brain. This breakthrough could lead to better understanding of when concussions lead to lasting brain damage and inspire new pro...
Researchers used electron microscopy to study a new-age polymer's molecular structure and combined it with computer simulations to predict its electrical function. The findings suggest that aligning chains and rearranging molecules can improve electrical conduction in polymers.
Researchers at Stanford University have developed a new RNA vaccine tool called RADAR, which can selectively target specific cells and induce protein production. This technology could offer precise treatment options for various diseases, including cancer.
Researchers at Stanford University have designed a new 3D printing method called injection CLIP (iCLIP) that is 5-10 times faster than the quickest high-resolution printer currently available. This technology allows for the use of multiple types of resin in a single object, enabling the creation of complex objects with varying properti...
A new method allows researchers to study the contents of lysosomes in mice, enabling them to identify molecules involved in diseases such as Batten disease. By using genetically engineered mice with a molecular tag, scientists can selectively collect and analyze lysosomes, providing valuable insights into the causes of these diseases.
Scientists at Stanford University developed a soft implantable probe called NeuroString that can measure dopamine and serotonin in the brain and gut. The probe has potential applications in diagnosing and monitoring intestinal diseases like irritable bowel syndrome and treating Parkinson’s disease.
Scientists at Stanford University have developed a new method for controlling specific brain cells and circuits using infrared light. Researchers successfully stimulated neurons in mice by shining infrared light through the skull, demonstrating the potential for flexible testing of brain functions during normal behavior.
A Stanford bioengineer has developed peptide-like molecules called peptoids that can retain therapeutic properties against viruses, offering a new approach to treating infectious diseases. The peptoids work by disrupting the virus's outer membrane, making them promising antiviral agents.
Scientists have developed a more efficient way to perform biological and chemical experiments using microfluidic chips, reducing collisions by 300% with strategically placed obstacles
A public-private partnership in Monterey/Salinas has developed a novel water recycling program using urban stormwater runoff, irrigation drainage, food processing water, and traditional municipal wastewater. The recycled water supplies one-third of all drinking water on the Monterey Peninsula while providing irrigation water for high-v...
Stanford researchers developed a novel technique attaching nanobodies to CRISPR for targeted gene control. This combo enables precise on/off switching of specific genes, potentially correcting epigenetic defects without combining large effectors.
Researchers created a gel made of two solid ingredients - polymers and nanoparticles - that can defy thermodynamic laws to remain stable at body temperature. This breakthrough could lead to injectable gels that release medicines over time, replacing daily or weekly shots.
A team of Stanford researchers has designed a system that can run AI tasks faster and with less energy by harnessing eight hybrid chips, each with its own data processor built right next to its own memory storage. The Illusion System integrates the chips into one energy-efficient AI-processing engine.
Two Stanford engineers developed a technique to disinfect personal protective equipment (PPE) with ultraviolet light, eliminating 99.9999% of pathogens in under five minutes. They designed and donated a method for healthcare providers worldwide to build PPE sterilization units, helping launch do-it-yourself efforts in over 25 countries.
A Stanford-led team created a computer model that accurately predicted the spread of COVID-19 in 10 major cities by analyzing three factors: daily destinations, duration, and crowd density. The model reveals that most infections occur at 'superspreader' sites and disproportionately affect minority and low-income populations.
Researchers created a microfluidic chip that can detect COVID-19 in just 30 minutes using CRISPR technology and 'lab on a chip' technology. The test is faster, cheaper, and more reliable than existing methods, with potential applications for detecting other diseases.
A new methodology helps disaster preparedness officials in large cities create regional contingency plans to ensure emergency responders can get patients to likeliest-to-stay-open hospital facilities after a quake. The technique estimates death and injury risks, projects hospital damage, and maps best routes for patient transportation.
AI-controlled sensors can alert clinicians and patients of impending health crises, reducing nosocomial infections. Infrared technologies enable real-time monitoring of patients' vital signs, allowing for timely interventions.
Researchers genetically rewired yeast cells to manufacture tropane alkaloids, a family of chemical compounds used in traditional medicine for centuries. The breakthrough could provide new sources for plant-based medicines, addressing global shortages and supply chain disruptions.
A team of researchers at Stanford University has made a breakthrough in developing a wireless brain-computer interface that can accurately control electronic prostheses using thoughts. The new technology uses a tenth of the power required by current wire-enabled systems, making it safer and more natural for patients with paralysis or n...
Researchers create a new way to store data by sliding atomically thin layers of metal over one another, packing more data in less space while using less energy. This approach has the potential to be faster than current technologies, with some estimates suggesting it could be accomplished over 100 times faster.
A Stanford research team developed a framework for routing delivery drones over ground transit networks, quadrupling their effective flight range. The 'makespan' of any batch of deliveries was under an hour in San Francisco and under two hours in Washington, D.C.
Researchers engineered a single messenger protein to induce cellular responses targeting two distinct conditions: neuronal regeneration and lung tumor inhibition. The study demonstrates the potential of bioengineering ligands to treat neurodegenerative disease and cancer.
A Stanford team has developed an inexpensive optical technique to simultaneously record neural activity across the entire top surface of a mouse's cerebral cortex. This allows for comprehensive measurement of neural activity and could lead to breakthroughs in understanding decision-making, motor control, and sensory perception.
California cities can rely on six key strategies to provide for growing populations: conserving water through behavioral changes, reusing non-potable water for irrigation, recycling water for drinking, capturing stormwater runoff, and desalinating seawater. These measures can help reduce costs while increasing the state's water supply.
Researchers at Stanford University School of Engineering used computer simulations to discover how to minimize side effects in a broad class of drugs targeting G protein-coupled receptors. By designing new molecules, they can alter the receptor's shape to deliver beneficial effects while avoiding side effects.
Researchers at Stanford University have developed a way to combine insulin with amylin, a second hormone that plays a synergistic role in controlling blood sugar levels. The new technique involves a protective coating that allows the two hormones to coexist in a single shot, enabling patients to take a double-acting injection.
Engineers have demonstrated a technology that can transmit electricity wirelessly to recharge electric cars, robots or even drones while they move. The system boosts efficiency to 92% and can transmit 10 watts of electricity over short distances.
A Stanford-led study analyzing 95 million traffic stop records found that black drivers are less likely to be stopped at night, while officers search cars of blacks and Hispanics more often than whites. The researchers used a massive database to identify systematic bias in police stops and searches.
Fugu outperforms BBA in terms of least interruption time, highest image resolution and consistency of video quality, keeping viewers engaged for 5-9% longer
Researchers developed a holistic model combining property damage estimates with community-wide economic impacts and social costs. The study found that poorer individuals experience greater losses in well-being, with a 60% loss of average annual income for those at the bottom.
A team of Stanford engineers has created a new lidar technology using a single silicon chip, reducing costs from $8,000 to $30,000. The breakthrough enables the mass production of affordable lidars, a crucial component for autonomous cars.
A team of scientists and engineers from 10 universities created a web portal (N95decon.org) providing best practices for decontaminating and reusing N95 masks. The website synthesizes scientific literature on mask decontamination methods, including heat, UV-C light, and hydrogen peroxide vapors.
Researchers successfully pressured tiny gold particles to assess their behavior under current flow, finding that gold behaves like a solid even at nanoscale. This discovery allows chip designers to continue using gold for critical wires in next-generation data processing devices.
Scientists create a technique to transform cells into chemical engineers that use synthetic materials to construct functional polymers with specific properties. They successfully built artificial structures on mammalian brain cells and neurons in the worm C. elegans, which can alter their behaviors.
Researchers at Stanford University have discovered the invisible pattern that growing neurons follow to form a brain using microscopy and mathematics. The technique could be used to coax stem cells to grow into replacement body parts, such as artificial organs.
Researchers at Stanford University have developed a trick to precisely control photons, the basic particles of light. This breakthrough enables the creation of light-based chips that could deliver far greater computational power than electronic chips.
Researchers at Stanford University have developed a CRISPR-Cas tool that can detect and debug faulty genetic circuits, facilitating more precise treatments for diseases like cancer. The technology allows for greater precision in identifying and eliminating diseased cells, with potential applications beyond cancer treatment.
A new soft and stretchable battery developed by Stanford researchers can store power more safely than conventional batteries, promising to enable the design of comfortable wearable electronics. The device maintains a constant power output even when stretched or squeezed.
A Stanford team has made significant advancements in developing new materials for quantum computing, enabling the creation of practical systems. By harnessing light and electron interactions, they have created structures that can trap spinning electrons, a crucial step towards making quantum computing a reality.
Tiny starfish larvae create vortices that bring food close enough to grab while simultaneously speeding away from scarcity. This mechanism allows the larvae to make feed-versus-speed tradeoffs, optimizing their energy expenditure.
Researchers at Stanford University have created a novel quantum light source that can enable perfectly secure communication. By harnessing the quantum properties of light, they've overcome technical challenges in devices that send and receive quantum data.
Researchers have invented a technique to dramatically accelerate protein evolution, allowing them to test millions of variants in hours or days. The technology, called µSCALE, enables the identification of promising variants and their DNA sequences, paving the way for breakthroughs in medicine, industry, and biosensors.