Articles tagged with Material Properties
Researchers at Kent State University have discovered a method to manipulate colloids and liquid crystals, leading to the creation of ferroelectric nanoparticles that can significantly impact material properties. This breakthrough could result in more efficient liquid crystal displays and new applications for liquid crystals.
Researchers at Bar-Ilan University have identified a class of polyprismane molecules that exhibit auxetic behavior, getting thicker when stretched and thinner when compressed. This discovery has potential applications in bulletproof vests and medical technology.
Georgia Tech researchers develop wavelength-demultipler (WD) that can separate high-resolution wavelengths in tight confines, solving problems with combining delicate optical functions. The WD is integrated into a microchip for signal processing, communications, or sensing applications.
Researchers developed an ultrasonic metamaterial that captures sound wave's fine details and expands instead of compresses like natural materials. This allows for higher modulation of the acoustic wave, enabling better ultrasound image resolution.
Researchers at Ohio University have discovered that gold nanoparticles can heat an area significantly larger than the nanoparticle itself, making them useful for targeting specific cells or objects. The particles' heating properties are precise and can be controlled using bio-linkers to affect specific targets.
Scientists at Berkeley Lab create porous scaffolding-like material that mimics nacre's structure, exhibiting four times greater strength than current materials. The composite could foster bone tissue regeneration and improve artificial joints.
Researchers at Yale University have devised a way to predict the microstructure of crystals as they form in materials. This new method enables the estimation of grain size and subsequent material properties dependent on microstructure, opening up possibilities for tailoring material characteristics.
Researchers at Pacific Northwest National Laboratory have discovered a low-temperature sulfur oxides absorbent, silver hollandite, that maintains its catalytic activity even when aging. This inexpensive catalyst has the potential to reduce diesel emissions.
Researchers have created a family of one-atom-thin materials with unique properties, including strength, insulation, and conductivity. These materials offer vast possibilities for space-age engineers and designers.
Researchers at PNNL have developed a process to convert corn into isosorbide, which can improve the properties of plastic materials. The technology has the potential to reduce the amount of petroleum necessary to make plastics and create new jobs for rural economies.
Researchers from Brown University and Oak Ridge National Laboratory have discovered detailed atomic arrangements in Laves phases, a class of intermetallics that shatter easily. The study reveals the accepted dislocation model does not apply to these complex materials, shedding light on their brittleness.
Researchers at Rice University have discovered that nanoshells can amplify the Raman signature of molecules, allowing for the detection of as little as a few molecules of a target substance. The individual nanoshells act as independent Raman enhancers, creating opportunities for all-optical nanoscale sensors.
Researchers investigate protein structures of plants to understand their role in generating shape changes in natural materials. Successful development aims to create synthetic materials that utilize internal pressure changes for controllable shapes.
Researchers at NIST have developed a new method for studying ultrathin polymers, enabling the visualization of defects and structure. The technique uses near-field scanning optical microscopy to analyze the crystal structure and strain in thin-film crystals of polystyrene.
Researchers at NIST discovered that adding carbon nanotubes to polypropylene eliminates a common manufacturing headache called 'die-swell'. The addition of nanotubes allows the polymer to be processed at high speed through extruders, enabling the controlled manufacture of smaller components.
NIST scientists have developed three new standards to measure microdevice materials more accurately. The standards aim to reduce variations in measurements between laboratories, improving the design and performance of microdevices. The new standards advance measurement of in-plane length, residual strain, and strain gradient.
Scientists have developed a method to measure the blinking behavior of large quantities of quantum dots in just a few minutes, revealing new insights into their properties. The approach uses a mathematical tool to analyze light output patterns, allowing researchers to better understand the behavior of these nanocrystals.
Atom-scale images reveal the preferred location of atoms in silicon nitride ceramic, matching theoretical calculations. This breakthrough enables researchers to predict and manipulate material structure, leading to tougher and stronger ceramic materials for advanced applications.
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 used computer simulations to study the effect of foreign particles on crystal growth patterns. They found that these particles produced unique 'dizzy dendrite' patterns that can be replicated using specific methods.
NASA awards consortium of research institutions $30 million to create self-healing materials inspired by nature. The Institute for Biologically Inspired Materials will investigate repair mechanisms used by plants, animals and other organisms.
T. Don Tilley receives the 2002 Award in Organometallic Chemistry for developing new ways to make chemicals, including flexible semiconductors and reactive building blocks. His research aims to improve semiconductor materials and create new properties through polysilene technology.
Researchers at Cornell University have created a flexible ceramic material with a cubic bicontinuous structure, which conforms to century-old mathematical predictions. The material has properties that are not just the sum of polymers and ceramic, but something new, offering promise for efficient battery electrolytes and fuel cells.
Di Ventra's award will support his work in computer simulations and theoretical models to advance the development of molecular electronics. His research aims to understand electron transport properties at the atomic level, enabling the creation of faster and more efficient electronic devices.
Imamoglu's research focuses on quantum dots and nanostructures, exploring their properties and applications in quantum information processing. He has laid out a multi-step research program to address the feasibility of quantum computing, including work on optical pulses and memory devices.
Sandia researchers successfully created the first controllable 2D nanopatterns, which can be used to fine-tune device characteristics of self-assembling nanostructures. The breakthrough provides insight into how nature creates ordered patterns and enables humans to replicate it for fabricating specialized materials.