Researchers at MIT and partners successfully integrated a photosynthetic protein complex with a solid-state electronic device, paving the way for efficient energy generation. The innovation uses spinach chloroplasts to create a dry environment that stabilizes protein complexes, enabling the development of practical organic solar cells.
Researchers from MIT and international collaborations found that different proportions of two key ingredients in ginseng promote or hinder blood vessel growth, with implications for wound healing and cancer treatment. The study highlights the need for stronger regulations on herbal drugs due to variable processing methods.
The SonoPrep device uses ultrasonic energy to make skin more permeable, allowing for painless treatment with lidocaine cream, reducing wait time from one hour to five minutes. The technology has potential applications in various medical procedures and may lead to further innovations like glucose-sensing devices.
A recent study published in the Journal of Air Transport Management found that domestic airline ticket taxes add approximately 15% to average fares, contradicting airline executives' claims. The research analyzed millions of tickets and provides a definitive answer to questions about ticket tax burdens on air travel costs.
Researchers developed a new technique to test hundreds of different biomaterials at once, improving the growth and differentiation of human embryonic stem cells. This breakthrough allows for more efficient screening of materials and could lead to breakthroughs in tissue engineering and synthetic skin production.
Scientists discovered that the Sirt1 mammalian gene promotes fat mobilization in mice, revealing a potential molecular link between calorie restriction and longevity. The study suggests that mimicking this effect with a drug could lead to health benefits without dieting.
A recent MIT study explores the effects of terrorism on global supply chains, highlighting the importance of vulnerability maps and flexible supply chains in minimizing disruption. The research also emphasizes the need for corporate cultures to prioritize communication and security.
Researchers at MIT have developed a technique that uses focused microwave energy to kill early-stage breast cancer cells, reducing the need for additional surgery. The treatment has shown promising results, with women experiencing a 43% reduction in cancer cells found close to surgical margins.
Researchers at MIT have discovered that the human brain can recognize faces in blurry images when surrounded by contextual clues, such as a body. This finding has significant implications for the development of better machine vision systems and may also shed light on neurological conditions like autism.
The MIT 'Weird Fields' contest utilizes creative visuals to help students grasp abstract electromagnetism concepts. By exploring vector fields through interactive software, students can better comprehend the physics behind electromagnetic forces.
Scientists have confirmed that baker's yeast underwent complete genome duplication, resulting in the creation of thousands of new genes. This phenomenon allowed for rapid adaptation to new environments and evolution of new functions.
Researchers at MIT discovered that memories with emotional arousal are remembered by the amygdala, whereas calm memories are processed by the prefrontal cortex. This finding has important implications for understanding how the brain makes memories and may lead to treatments for memory loss and learning impairments.
The study reveals a direct activational signal from the synapse to the protein synthesis machinery, enabling neurons to boost protein production rapidly during long-term memory formation and synaptic strengthening. This discovery has significant implications for understanding psychiatric and neurologic diseases, potentially leading to ...
Graduate student Sommer Gentry investigates haptic communication in swing dancing and its potential applications in robotic surgery, human-robot collaboration, and urban warfare. Her research has shown that pure haptic communication is sufficient for humans and robots to move in coordination.
The Nanoruler can pattern gratings with lines and spaces separated by a few hundred nanometers across large surfaces. This precision enables the analysis of light and decoding cosmic bar codes for space telescopes like NASA's Chandra X-ray Observatory.
The MIT team uses data mining to search for patterns in a large dataset, reducing the number of structures the computer needs to explore. This allows for more efficient discovery of new materials with desired properties.
Researchers at MIT developed a device that reduces nitrogen oxide emissions by up to 90% and halves the fuel needed for removal. The plasmatron reformer could lead to increased gasoline engine efficiency and significant oil consumption savings.
Researchers at MIT have developed a new method for creating tissues from human embryonic stem cells by seeding them onto biodegradable polymer scaffolds. The resulting tissues showed characteristics of developing human cartilage, liver, nerves, and blood vessels.
The MIT team has developed a promising catalytic converter that controls emissions and can withstand excess oxygen. By understanding the atomic-level reaction process of sulfur trioxide formation, they aim to improve fuel efficiency and reduce pollution.
The MIT team has achieved a record-low temperature of 500 picokelvin, six times lower than the previous record of 3 nanokelvin. This breakthrough could lead to vast improvements in precision measurements and new insights into atomic physics.
Researchers sequenced the genomes of three Prochlorococcus and one Synechococcus strains, revealing insights into their metabolic machinery and ecological niches. The discoveries may aid studies on global climate change and sustainable energy production.
Researchers are conducting clinical trials at a new MIT facility dedicated to neutron capture therapy (NCT), which has shown promise in reducing damage to healthy tissues. The treatment involves administering a compound containing boron-10, followed by irradiation with epithermal neutrons, killing tumor cells while sparing healthy ones.
Researchers found that stock markets follow distinct power law patterns, which can be used to partially predict market crashes. The patterns are also seen in natural systems such as earthquakes and human language, and are generated by the actions of large market participants.
MIT researchers aim to replicate the properties of spider silk for use in high-strength fibers, specialty textiles, and bullet-proof gear. By understanding the structure-property relationships of spider silk, they hope to create materials with similar properties.
Scientists at MIT found that vegetation growth and decay are crucial for accurate climate models. The Sahara desert's transformation from fertile to arid was only explained when including vegetation as a variable.
Researchers at MIT's Parsons Lab in Hawaii developed a technique to calculate the amount and distribution of groundwater flowing into coastal waters. The data will contribute to Kaeo Duarte's research on groundwater usage on Hawaii's dry western coast.
The MIT study concludes that hydrogen fuel cell vehicles are not an environmentally friendly solution due to energy consumption and emissions. Hybrid vehicles, on the other hand, offer a more efficient approach, reducing energy use and emissions by a third compared to current vehicles.
Researchers at MIT create a switchable surface that can change from water-attracting to water-repelling by applying an electric field, with potential applications in drug delivery and biomedical engineering. The surface's properties are controlled using conformational transitions, allowing for reversible modification.
A team led by Professor Ram Sasisekharan at MIT has created designer drugs for preventing blood clots that can cause strokes and heart disease during surgery. The new formulations are more potent and effective than conventional forms of the drug, offering a potential alternative to existing treatments.
Researchers have found that traditional Chinese approaches combined with modern techniques can provide the same living conditions as high-rise structures while reducing energy consumption. The design incorporates natural ventilation, solar heating, and green spaces to create a comfortable and sustainable living environment.
A recent MIT study suggests that irrigation pumping may increase or decrease arsenic levels in Bangladesh's drinking wells, with complex effects on groundwater chemistry. The researchers found that degradation of organic carbon by microbes mobilizes arsenic, but deeper wells may reduce arsenic concentrations in some areas.
Researchers successfully transmitted haptic (touch) feedback across the Atlantic, enabling collaborative tasks like lifting a virtual box. The demonstration uses a robotic arm to simulate touch, allowing users to feel each other's manipulations in real-time.
A focused microwave heat therapy technique shows promise in killing tumor cells before surgery and radiation, with a majority of patients experiencing significant tumor kill. The technology was invented by MIT researchers and is being developed into a clinical thermotherapy system by Celsion Corporation.
The MIT model provides predictive capabilities for understanding defect nucleation and growth, crucial for nanotechnology. It explains how defects like cracks or dislocations develop from waves in four stages, providing a key finding for materials science.
A 150-ton magnet in Japan is a testbed for the 925-ton magnet needed for ITER, which aims to demonstrate nuclear fusion as an energy source. The team has made progress in understanding the magnet's performance and reducing costs.
A study by MIT researchers found that nitrate pollution has a mitigating effect on arsenic release in polluted lakes. The discovery sheds light on the complex dynamics of water quality management and has implications for other pollutants, including phosphate and toxic metals.
A new MIT technique involves growing cartilage cells within a novel gel, which is then delivered to damaged joints. The engineered tissue has mechanical and biochemical properties similar to native cartilage.
The study provides direct measurements of nanoscale forces between cartilage molecules and a tiny probe tip, shedding light on the complex biocomposite material's behavior. The results reveal a mix of electrical repulsive and steric forces contributing to its unique properties.
Researchers at MIT have created a biodegradable polymer called biorubber that can stretch and snap back into shape, mimicking the elasticity of human organs. This breakthrough material has potential applications in tissue engineering, including heart tissue, blood vessels, and whole organs for transplantation.
Researchers at MIT have developed a biodegradable smart suture that can change shape in response to temperature changes, potentially solving medical implant challenges. The new material has shown promise for creating temporary shapes in confined spaces, such as those associated with minimally invasive surgery.
MIT scientists develop polymer fibers with a 'perfect mirror' structure, enabling reflection of light across various wavelengths and potential applications in optical textiles. The breakthrough utilizes dielectric materials to control the fiber's optical properties.
A new MIT model proposes that cosmic explosions may be triggered by a cosmic tango between a black hole and its companion, a spinning torus of stellar material. The model suggests that the energy released during this dance could explain recent observations of gamma-ray bursts.
The MIT team's X-Cell 60 model rotorcraft performed a 360-degree aileron roll autonomously, marking the first-ever achievement in its kind. The helicopter's small size and low cost make it an attractive option for military reconnaissance or aerial filming.
Researchers used molecular scissors to alter the sugar coats of cancer cells, promoting tumor growth with one fragment and inhibiting it with another. This discovery could lead to targeted cancer treatments by exploiting the biological balancing act between different sugar fragments and signaling molecules.
A team of MIT researchers led by Susan Murcott aims to provide clean drinking water for people in developing countries. They have developed a system that can remove particles and microorganisms from water, which is crucial for preventing waterborne diseases in rural areas like Nepal.
Researchers have developed a semiconductor technology that converts waste heat into electricity with unprecedented efficiency. The new device, called 'thermal diodes,' operates at high temperatures and has the potential to revolutionize power generation and recovery of waste heat from power plants and automobiles.
The MIT worldwide mobility study highlights the need to reinvent public transport and create a portfolio of mobility options to address chronic gridlock, pollution and environmental damage. The study also warns of the growing impact of air and freight transportation on carbon emissions.
The MilliWave Viscometer measures viscosity in molten materials, indicating chemistry and quality. It enables feedback control, maximizing waste loading and improving efficiency in glass production, with significant economic impact on environmental clean-up efforts.
Ocean fertilization could remove carbon from the atmosphere but poses risks to global oceans. MIT prof Sallie Chisholm argues that large-scale implementation is not a solution to climate change.
The Phase II trial treating women with early-stage breast cancer has shown significant cell kill without damage to the skin. The technology uses adaptively focused microwave radiation that selectively heats and kills cancer cells, potentially reducing or eliminating breast surgery.