Articles tagged with Nanoparticles
A team of researchers has developed a novel lung cancer treatment using nanoparticle cluster bombs, which have shown promise in treating cancerous lung cells. The new delivery system could potentially be used to target cancer cells while leaving healthy cells alone.
Researchers at the Weizmann Institute developed a novel nanotube composed of nanoparticles, offering tailored properties for various applications. The tubes' unique characteristics enable design of future sensors and catalysts.
Researchers used advanced imaging and modeling techniques to study near-field behavior in metal nanoparticles. They found that arrays of nanoparticles scatter light at much smaller angles, making them suitable for two-dimensional devices such as optical chips.
Researchers at Purdue University have created tiny magnetic rings that can store information at room temperature and are self-assembled, promising a new approach to non-volatile computer memory. The nanorings' magnetic states can be switched by applying a magnetic field, paving the way for faster and more affordable computer memories.
Researchers at Rutgers-Newark are developing new nanoparticle structures that combine organic and inorganic materials. The team's innovative approach may lead to more efficient solar-energy conversion cells and devices capable of detecting pollutants.
Researchers found that zinc sulphide nanoparticles change their crystal structure when wet, becoming more ordered. This effect could help identify extraterrestrial rocks and has implications for sensing technology.
Researchers at the University of Central Florida have discovered that engineered nanoparticles can extend the lifespan of brain cells by three- to four-fold, allowing them to live up to 123 days. The study also suggests that these nanoparticles may preserve function and potentially treat age-related disorders such as Alzheimer's disease.
Germanium nanoclusters can now be coated with polymers, making them stable enough to be processed as plastics. This innovation expands the possible uses of semiconductor nanoparticles, including potential applications in displays and tiny building blocks.
Functional nanoparticles are being developed for molecular imaging, cancer treatment, and tissue engineering. Scientists can engineer nanoparticles to have multiple functions, including tagging proteins or genetic sequences in a process called multiplexing.
Dr. Nie constructs smart nanoparticle probes to recognize DNA sequences and genetic mutations, enabling early cancer diagnosis and personalized medicine. The nanobeacons can profile multiple genes and proteins simultaneously, allowing for individualized cancer treatments based on molecular differences.
Researchers used radiation to activate receptors in tumor blood vessels, enabling targeted delivery of anti-cancer drugs. The approach showed promising results in reducing side effects and delaying tumor growth.
Researchers at UMass developed a method to create robust capsules from nanometer-sized particles and make them water-soluble by shining light on them. The study also found that nanoparticles can be functionalized with tailored properties, such as luminescence, and that larger particles win in assembly competitions.
Researchers develop a novel method to assemble nanoparticles using non-uniform AC electric fields, allowing for the creation of ordered structures with desired properties. This process can be used to manufacture nanoscale tools and devices, including sensors and photonic devices.
A non-invasive imaging technique has been developed to detect plaques beginning to form in blood vessels, according to researchers from WashU Medicine. The technique uses nanoparticles to target growing capillaries and visualize plaque development, with potential applications for early cancer detection as well.
A new nanoparticle coating developed by researchers at Washington University in St. Louis mimics the natural properties of dolphin skin to prevent biofouling on ship hulls. The coating's complex surface features make it difficult for marine organisms to attach, reducing friction and drag.
Researchers have developed nanoparticles that can absorb all visible light but reject invisible light, increasing the efficiency of solar cells. This technology has the potential to make solar energy dirt cheap to produce and competitive with fossil fuels.
Hydrogel nanoparticles provide a foundation for creating self-assembled periodic structures that can transmit specific wavelengths of light. By controlling the de-swelling process, the researchers can tune the colors to one-nanometer steps over a wavelength range of more than 200 nanometers.
Scientists at the University of Illinois have developed a family of fluorescent silicon nanoparticles in various sizes and colors, which can be used for electronic displays, flash memories, and biomedical imaging. The particles are photostable and bright, allowing for non-invasive detection and study of biological phenomena.
Researchers at Northwestern University have developed a method to create triangular nanoprisms in large quantities, which can be used as new diagnostic labels for detecting biological weapons and diseases. The nanoparticles' unique optical properties make them a promising building block for detection science.
A new patented technique uses titanium dioxide nanoparticles to bind and remove mercury from combustion exhausts, trapping the toxic metal with high effectiveness. The process leverages photocatalytic properties of titanium dioxide to oxidize mercury, making it a promising solution for controlling mercury emissions.
Scientists at the University of Illinois have devised a process called nanoparticle haloing that imparts stability to complex fluids, enabling control over phase behavior and structure. This approach allows for the creation of designer colloidal fluids with tailored properties.
Virginia Tech researchers have made advances in creating biocompatible magnetic fluids to treat retinal detachment. The new material, made of silicone magnetic nanoparticles, can be injected into the sclera and used with a magnetized buckle to push the retina back against the underlying choroid.
Scientists at Georgia Tech have developed a recipe book to precisely control the size and magnetic properties of magnetic nanoparticles. This allows for consistent application in drug delivery, MRI contrast enhancement, and cancer detection.
Scientists have developed a method to convert bulk silicon into ultra-small, nano-sized particles with potential uses in low-power electronics, nonvolatile memories, and optical displays. These nanoparticles can also form the basis for novel semiconductor lasers and serve as fluorescent markers for biologically sensitive materials.