Researchers at MIT and Hong Kong University have developed a biodegradable liquid that can stop bleeding in wounded rodents within seconds by forming a protective barrier gel. This breakthrough could significantly impact medicine, particularly in emergency surgery situations.
Researchers at MIT have developed a platform that enables sustained, coordinated, autonomous flight with multiple UAVs, achieving complex tasks such as persistent surveillance. The test platform consists of networked mini-UAVs that can be commanded by a single operator and operate without piloting skills.
Researchers at MIT have created an engine on a chip that could run 10 times longer than traditional batteries, powering devices like laptops and cell phones. The device is made of silicon wafers and features a tiny combustion chamber, turbine blades, and mini-generator.
The MIT team analyzed 32,853 proteins and found the most complicated knot, a five-crossing trefoil knot, in only one protein. This knot may prevent the protein from getting sucked into the proteasome as it works, supporting the theory that complex knots are linked to the protein's function.
The MIT researcher's design allows for the installation of huge offshore wind turbines in deeper waters, reducing public opposition and increasing electricity production. The floating platforms can be assembled onshore, towed out to sea, and adjusted to stabilize the turbines, resulting in cost savings and improved efficiency.
Researchers at MIT have identified a class of chemical molecules that preserve the metallic properties of carbon nanotubes, enabling them to be assembled and manipulated without losing conductivity. This breakthrough has potential applications in detectors, sensors, and optoelectronics.
Researchers at MIT have found a unique cloud forest in Oman where trees extract moisture from passing clouds, but the ecosystem is under threat from over-grazing camels. The trees' ability to collect water from fog may not be enough to recover if the camels continue to eat too much foliage.
The MIT-developed molecular sieve can precisely control pore size, allowing for faster and more accurate separation of proteins from biological fluids. This technology has the potential to aid in disease detection and treatment by enabling scientists to study biomarker proteins with greater efficiency.
Researchers at MIT are developing a device that can detect and prevent epileptic seizures by measuring brain activity. The new technology builds on an existing therapy and could be refined to work with a headband or baseball cap. If successful, it would allow more patients to use the therapy on demand.
Researchers at MIT have developed a new, eco-friendly way to produce iron by molten oxide electrolysis (MOE), which eliminates greenhouse gases and generates only oxygen. The process has the potential to increase iron productivities up to 10 times that of aluminum production.
Researchers at MIT use sound waves to identify pockets of natural gas and oil in fractured rocks, offering a new method for finding sweet spots. By combining data from seismic surveys and microseismic events, the team aims to improve the accuracy of hydraulic fracturing, potentially unlocking a larger share of US gas reserves.
MIT researchers confirm the existence of long-term potentiation (LTP) in the hippocampus when learning occurs. Using advanced techniques, they found that certain key connections among neurons strengthen with learning, providing conclusive evidence for a fundamental learning mechanism.
Researchers at MIT are testing kayak-based robots called SCOUTs, which use surface navigation to communicate wirelessly. The goal is to create a team of robots that can work seamlessly together with minimal human direction.
Researchers at MIT's Picower Institute for Learning and Memory have developed a state-of-the-art imaging system that allows them to directly visualize molecular activity within individual neurons in the brain of live animals. This breakthrough enables the observation of changes in neuronal activity in response to environmental stimuli,...
Researchers at MIT developed mesh-like webs of light-detecting fibers, measuring direction, intensity, and phase of light without lenses or filters. The fiber constructs can generate rough images of objects, providing a new approach to situational awareness and interactive technology.
The Massachusetts Institute of Technology has released a free educational pamphlet warning of the dangers of dumping seafood into the wild. Invasive species can travel through ship ballast water, aquaculture facilities, and consumer releases, causing economic and environmental damage.
MIT researchers have discovered that tumor cells become aneuploid due to subtle errors in microtubule attachment. The study sheds light on the role of checkpoint proteins and their interaction with APC and EB1 molecules in maintaining normal cell division.
Researchers at MIT have developed a new magnetic semiconductor material that can inject spin-polarized electrons into silicon semiconductors. This breakthrough enables the creation of more efficient electronic circuits with reduced size and increased versatility.
The MIT 'seeing machine' allows visually challenged people to see images, videos, and text through a desktop device. In a pilot clinical trial, 60% of participants accurately interpreted visual language and navigated a virtual environment with the help of the device.
Researchers are re-creating submarine channel formation to understand their internal structure and improve oil recovery efficiency. The experiments have yielded counterintuitive results, revealing behaviors that differ from surface rivers due to differences in density.
Researchers at MIT have created a new energy system that converts light into electricity, enabling more fuel-efficient cars. The system uses advanced materials and photonics to create intense light, which is then harnessed by photo diodes to power electrical systems.
Researchers have developed a technique using iron oxide nanoparticles to group together in cancerous tumors, creating masses detectable by MRI machines. This method has the potential to replace traditional treatments like radiation or chemotherapy with fewer side effects.
Researchers at MIT have discovered a potential new treatment for Alzheimer's disease that delays cognitive decline using a combination of omega-3 fatty acids and two other compounds. The cocktail treatment has been shown to increase the formation of brain cell synapses, which are damaged in Alzheimer's patients.
The MIT SPHERES project aims to develop autonomous space vehicles that can maintain their positions via radio links, interacting almost constantly. The first critical test of the SPHERE is set for May 18 inside the space station, with two additional satellites scheduled to reach the station later this year.
A recent study by MIT chemist Catherine L. Drennan has discovered the simple secret behind how organisms create self-medications like antibiotics and anti-tumor agents. The enzyme SyrB2, which uses a smaller amino acid to bind halides, reveals an elegant simplicity in its mechanism.
Researchers at MIT and Brigham have developed a way to design nanoparticles that can selectively deliver chemotherapy to cancer cells while leaving healthy cells intact. The particles, which are about 150 nanometers in size, use targeting molecules called aptamers to home in on cancer cells.
The MIT team used an intricate assembly process to create a functional electronic device from viruses, producing dense films of cobalt oxide and gold. The result is a nanoscale battery material with high energy density, suitable for compact energy storage applications.
Researchers applied engineering tools to study cell decision-making in cancer and inflammatory diseases. The studies uncovered a surprising link between the two, suggesting new treatment approaches for debilitating conditions like rheumatoid arthritis.
Scientists at MIT uncover a crucial mechanism driving plankton evolution, enabling them to adapt to changing environmental conditions. The discovery highlights the importance of gene diversity and exchange between microbes and viruses in shaping ocean ecosystems.
MIT researchers have made a breakthrough in creating morphing vehicles by utilizing rechargeable batteries. The team's innovative approach involves using the expansion and contraction of solid compounds to actuate large-scale structures, allowing for seamless shape changes.
The MIT team uses particle-spring systems to create three-dimensional designs that can find a structure's most efficient form in minutes. Historically, finding new structural forms required physical means, but this method offers a more efficient and sustainable approach.
Researchers at MIT have discovered a compound called B2 that promotes the formation of large protein inclusions, which may help stop Huntington's disease progression. The compound also shows promise for treating Parkinson's disease, another neurodegenerative disorder caused by misfolded proteins.
Researchers at MIT developed a tool to selectively irradiate blood vessels to study radiation damage. This technique has the potential to reduce side effects for cancer patients treated with radiation therapy.
Researchers at MIT create a new alloy using nanostructure manipulation to replace chromium, a toxic material used in industrial coatings, reducing fumes and improving resistance to corrosion. The technology has the potential to transform industries and improve worker safety.
Researchers at MIT have developed a new type of lithium battery that can charge and discharge in about 10 minutes, making it closer to the timeframe needed for hybrid car batteries. The new material is more stable and safer than existing lithium cobalt oxide batteries, which are used in small devices.
Researchers at MIT have created a new type of ultracapacitor using nanotube structures, which can increase the storage capacity by up to 25 times. This innovation has the potential to provide a more efficient and economically viable alternative to conventional batteries.
Researchers capture the structure of a virus poised to inject its genetic material into a host cell for the first time, providing unprecedented detail. The images show a long coil of DNA dangling inside the viral shell, waiting to be ejected via a protein channel just inside the shell exterior.
A new MIT sensor system tracks enormous fish populations over a vast area, revealing the first-ever images of these groups. Researchers observed fractal patterns and 'waves' of population density, potentially indicating communication among fish.
A novel autonomous underwater vehicle (AUV) has photographed the ancient Greek shipwreck on the ocean floor, revealing detailed images of cargo remnants. The project marks a significant milestone in underwater archaeology, using advanced technology to survey and map shipwrecks with unprecedented accuracy.
A new theory explains how cracks propagate in brittle materials, shedding light on material failure in nanoscale devices, airplanes, and earthquakes. The research simulates the behavior of atoms under extreme conditions, uncovering the physics behind fractures.
Researchers have discovered a remarkably stable indentation in the fabric of space and time, created by the spin of a black hole. The finding is based on identical patterns observed in X-ray light emitted near the black hole nine years apart, using NASA's Rossi X-ray Timing Explorer.
A team from MIT and Harvard found that a certain type of X-ray explosion common on neutron stars is never seen around their black hole cousins, indicating the presence of an event horizon. The absence of surface explosions called X-ray bursts suggests that gas released by nearby stars vanishes into a void.
Researchers have found evidence of neuron growth in adult brains, particularly in dendrites, which could lead to new treatments for diseases like paralysis. The study's findings suggest that using neurons can stimulate growth, providing a potential approach to enhancing brain plasticity and improving functional outcomes.
MIT physicists and NIST colleagues report the most precise direct test yet of Einstein's E=mc^2, verifying the formula's accuracy with an unprecedented precision. The team's findings validate the equivalence of energy and mass, strengthening the theory's position in modern physics.
MIT researchers have developed a way to test the mechanical properties of almost 600 different materials in a matter of days. This breakthrough could lead to faster identification of dental implants and tank armor with improved resistance.
A new perspective on cortical development suggests that genetic and environmental factors interact to shape brain regions. Researchers, led by Mriganka Sur, have discovered that transcription factors play a key role in controlling cell growth and connectivity during early prenatal development.
Researchers at MIT have proposed a new theory that could eliminate the obstacle of limited speed and control in artificial muscles. By applying specific light frequencies, engineers can activate devices more quickly without added energy demands or extra weight.
Insects use unique postures and forces to propel themselves up steep, slippery menisci in water. Researchers found two species of water treaders create dimples in the surface with their legs, generating forces that suck them up the slope.
Researchers at MIT created electronic maps of cellphone use in Graz, Austria, tracking tens of thousands of people using anonymous data. The project showcases the dynamics of a city in real time, opening up new possibilities for urban studies and planning.
A team of scientists led by Alan E.E. Rogers successfully detected deuterium using a radio telescope array, a significant breakthrough in understanding the universe's origins. The detection has implications for understanding dark matter and cosmic baryon density.