Articles tagged with Particle Physics
Researchers at NYU have developed a method to monitor microscopic particles' properties during chemical reactions, enabling improved product design and production. This technique offers benefits for various industries, including food, pharmaceuticals, and cosmetics.
Researchers at City College of New York have discovered a new type of quantum particle that combines light and matter properties. This breakthrough could lead to the development of devices that utilize both light and matter, potentially revolutionizing computing and communication technologies.
Researchers used NASA wind tunnel to study threshold speeds for particle movement on Titan, finding higher speeds than predicted from Earth-based models. The findings can help understand atmospheric forces on icy moons and planets with thin or thick atmospheres.
Physicists in Innsbruck developed a new quantum error-correcting method and tested it experimentally. The topological code arranges qubits on a two-dimensional lattice to detect and correct general errors. This approach could lead to a robust quantum computer performing any number of operations without being impeded by errors.
The team of researchers used innovative simulation methods to gain a deeper understanding of finite-size corrections in interfacial tension calculations. Their work will enable more accurate predictions and help analyze interfacial tension with high precision using simulations.
The CCNY team created a model that predicts how resistance changes in relation to stirring speed, which can help improve the processing of materials in suspension. The model modifies classical fluid mechanics approaches to include forces resulting from friction, allowing for accurate reproduction of experimental observations.
Water in cells slows down in tight spaces between proteins, affecting binding sites for pharmaceuticals and disease progression. The findings provide insights into how proteins aggregate in diseases like Alzheimer's and Parkinson's.
Scientists at DIII-D National Fusion Facility shed light on mechanisms that eject fast ions from plasma, enabling detailed tests of models predicting these effects in future reactors. By analyzing particle interactions with multiple waves, researchers gain unprecedented insight into fundamental wave-particle physics.
French researchers' oil-bath experiments provide evidence of wave-particle duality on a macroscopic scale. However, the phenomenon fails to explain entanglement, a key aspect of quantum theory.
Researchers have developed large area picosecond photodetectors that can measure particle speed with sub-picosecond resolution and spatial precision measured in micrometers. The detectors use Atomic Layer Deposition technique and have potential applications in high-energy physics, medical imaging, and homeland security.
Researchers develop method to classify quantum entanglement states into geometric objects called polytopes, allowing for efficient prediction and characterization of entangled states. This breakthrough enables the development of novel quantum technologies with practical applications.
Kimball Milton, a University of Oklahoma physics professor, has been awarded a grant from the Simons Foundation Fellows Program in Theoretical Physics. He will explore the physics and applications of the quantum vacuum, including the Casimir effect and its potential for practical uses in nanoscale machines.
Physicists at Technical University of Munich develop a method to store information in mechanical vibrations, reducing sensitivity to electrical interference. This innovation could lead to more powerful quantum computers by utilizing carbon nanotubes as quantum bits.
Researchers have developed a method to measure nanoparticles as small as 1 nm in diameter using the Particle Size Magnifier (PSM) instrument. The study reveals that sulphuric acid, amines, and oxygenated organics are necessary for nanoparticle growth.
Researchers found that forces between individual grains are what drives changes in behavior and state of granular materials like sand or dirt, not temperature. This discovery reveals a new understanding of how granular systems equilibrate, challenging the conventional wisdom on thermodynamics.
Researchers at NYU's Center for Soft Matter Research have developed a method to move and assemble microscopic particles using blue light. This innovation has the potential to create new materials and enhance the design of industrial products like electronics.
Researchers found that different particles create smooth or rough deposition profiles at the drop edge depending on their shape. They tested Poisson and KPZ processes, two classes of interfacial growth processes, and discovered elongated particles produced a KPZ class of growth.
Researchers Aparna Baskaran and Cristina Marchetti found that a uniform nematic state can be disturbed by density fluctuations associated with an upward current of active particles. This phenomenon is self-regulating and universal.
Emory researchers capture decoupling of rotation and movement in glass particles as they approach the glass state. The findings provide a key piece to understanding condensed matter physics.
A new study has improved understanding of plasma sources, a state of matter used in plasma display panels. Researchers found that reducing voltage can cause disordered systems to form.
Researchers discovered that pollutant particles accumulate in specific areas of the urban environment, forming coherent structures. This finding can help generate maps to identify high-pollution zones and inform strategies for mitigating pollution.
Scientists Scott Waitukaitis and Heinrich Jaeger report a groundbreaking study on non-Newtonian liquids, revealing the 'impact-activated solidification' process that transforms suspensions into solids under sudden impact. The experiment uses a combination of high-tech instruments to observe the phenomenon in unprecedented detail.
Michael Maroun, a UC Riverside graduate student, is attending the 62nd Lindau Nobel Laureate Meeting to interact with 25 Nobel laureates in physics. He hopes to make mathematical physics more popular and give it international attention.
Researchers observed a split personality in dense suspensions as they formed droplets. Despite high viscosity, the particles' interactions with the liquid led to a non-viscous behavior, challenging conventional understanding of drop formation.
Researchers have successfully captured a quantum interference pattern from single dye molecules using live imaging. The experiment visualizes the dualities of particle and wave, randomness and determinism, locality and delocalization in a tangible way. This study has significant implications for understanding quantum physics and develo...
Scientists at Duke University discovered that shear strain can cause particles like coffee beans and coal chunks to jam sooner than expected. This finding challenges previous theories and has implications for designing new composite materials and countermeasures against weapons of mass destruction.
Studying tiny particles at oil-water interfaces, Harvard researchers found that stabilized emulsions can take months to years to reach physical equilibrium, rather than the assumed instantaneity. This discovery has important implications for pharmaceuticals, cosmetics, and food manufacturing processes.
A new model shows that stochastic resonance occurs when the potential has sufficiently steep walls, but breaks down otherwise. This phenomenon could contribute to improving image resolution and understanding of biological systems.
Researchers at the University of Innsbruck have successfully created a digital quantum simulator that can simulate any physical system efficiently. The simulator uses trapped ions to manipulate and encode states, allowing for the study of phenomena such as Zitterbewegung, which had never been observed directly in nature before.
Researchers at University of Pennsylvania discovered that changing particle shape can disrupt the coffee ring effect, a ring-shaped stain left after coffee drops evaporate. By using non-spherical particles, they found that it's possible to eliminate this phenomenon and achieve uniform coating deposition.
Physicists at the University of Innsbruck have achieved a major breakthrough in quantum computation by entangling 14 calcium atoms. This represents a significant increase from their previous record of eight particles and opens up new possibilities for faster computing, atomic clocks, and quantum simulations.
New York University physicists have developed a method for packing microscopic spheres that can improve various commercial products, such as pharmaceutical lotions and ice cream. The researchers manipulated the properties of emulsions using statistical mechanics and depletion attraction to create materials with desired properties.
The study used an extensional rheometer to measure flow properties of complex fluids, revealing intriguing effects depending on concentration and velocity. At high speeds, the fluid can fracture like a solid, behaving like a jammed system with clusters locking together.
Researchers discover biogenic secondary organic aerosol (SOA) particles formed from vegetation are solid and glass-like, affecting their ability to absorb water and act as cloud nuclei. This finding redirects the atmospheric fine particle research worldwide.
Physicists at NYU have created colloidal dispersions with programmable particle interactions, offering opportunities for engineering smart composite particles and new functional materials. The 'lock and key' mechanism allows specific particles to join together based on shape, marking a next step in understanding self-assembly processes.
Scientists at ESCPI conducted an experiment to focus light through opaque materials and detect objects hidden behind them. They used a numerical model called a transmission matrix to tailor a beam of light specifically to pass through the material and focus on the other side.
Researchers have discovered that heat can aid in low-power data storage by harnessing random thermal motions. This breakthrough could lead to magnetic memory that operates at significantly lower power than conventional devices.
A team of solar physicists has developed a revised model explaining the unexpected 'ribbon' of bright emission observed by NASA's IBEX mission. The new effect, known as the magnetic mirror effect, suggests that charged particles orbiting magnetic field lines can be recycled and detected by IBEX.
Chemists have successfully designed and observed custom-shaped microparticles interacting and self-assembling in a controlled manner within a liquid crystal. The discovery opens up possibilities for the creation of larger-scale assemblies with various applications in photonics, optical communication networks, and other fields.
The Penn team demonstrated a novel method for controlled formation of patchy particles using charged, self-assembling molecules. The positive electrical charges of calcium ions form bridges between negatively-charged polymers, creating patchy structures that can be used as drug-delivery vehicles or in small batteries.
The Richard E. Prange Prize, established by the University of Maryland's Department of Physics and Condensed Matter Theory Center, honors the late Professor Richard Prange's distinguished career. Philip W. Anderson, a pioneering theorist and Nobel laureate, is the inaugural recipient of the prize.
Researchers at New York University have developed a model to accurately count sweets in a jar by studying the geometry of packing from a 'granocentric' view. The model captures the connectivity and density of sphere packings, allowing for the estimation of packing density and subsequently, the number of sweets in the jar.
Physicists at University of Bristol and Imperial College London develop new method using 'spooky action' to identify quantum black boxes, overcoming fundamental limitations. This breakthrough has significant implications for future quantum computing and information science.
Scientists at North Carolina State University have developed Janus particles, microscopic spheres with different material properties on either side, which can move and respond to changes in their environment. The phenomenon, called induced-charge electrophoresis, has potential applications in microactuators, sensors, and drug delivery.
Cosmology@Home allows people worldwide to participate in cutting-edge cosmology research by donating their unused computing cycles. Participating computers calculate the observable predictions of millions of theoretical models with different parameters, which are then compared with actual data.
Researchers have designed and mass-produced billions of fluorescent microscale particles in the shapes of all 26 letters of the alphabet. The 'LithoParticles' can be used to mark individual cells, create tiny pumps, motors or containers with medical and security applications.
Researchers at Washington University in St. Louis analyze comet samples and discover a unique result: the presence of 'real' stardust particles older than the sun. This finding provides key insights into the composition and origin of comets, shedding light on their role in the solar system's formation.
Researchers have created Janus particles with dissimilar sides, enabling the measurement of rotational dynamics and creation of microsensors. These particles can be used to study Brownian motion and manipulate particles using electrical fields and magnetic fields.
Scientists measured how tiny spheres in turbulent water separate based on initial distance, revealing particles obey Batchelor dispersion initially before transitioning to Richardson-Obukhov law behavior. The findings can improve models of pollutant dispersion and help explain crustacean navigation using odors.
Physicists at Rutgers University have rewritten the classical understanding of quantum statistical physics by finding a simpler way to derive a mathematical formula. The discovery, published in Physical Review Letters, could lead to rewrites of tomorrow's physics textbooks.
Researchers at NYU studied the movement of polymer beads in a viscous fluid and found that low concentrations could be reversed, but higher concentrations led to irreversible behavior. This phenomenon is caused by extreme sensitivity to small changes in particle positions, making it a key finding for understanding chaotic systems.
Case researchers Ramani Pilla, Catherine Loader, and Cyrus Taylor discover a method to find needles in haystacks using geometric approaches. They test their technique with computer simulations, demonstrating its ability to significantly increase detection probabilities.
Duke researchers create a mathematically nimble way to follow the transfer of forces through a laboratory version of a granular mass, revealing the existence of long-range force chains. The new technique allows for quantitative analysis of force dynamics in granular materials.
Researchers have devised a thermometer that can measure granular temperature based on the degree of agitation of its component particles. The discovery could lead to better understanding of powders and particulate materials in industries such as pharmaceuticals, food processing, and construction.
Researchers at Washington University have discovered that organic carbon and amorphous silicates in interstellar grains embedded within interplanetary dust particles are the carriers of the astronomical 2175 Å extinction line. This finding solves a 40-year-old mystery, providing evidence for the origins of this feature.
The 'tango array' device can sort particles ranging from bacterial cells to DNA segments in a matter of seconds, distinguishing them by size. This breakthrough technology has the potential to greatly accelerate biological research and replace some centrifuge devices.
Princeton physicists Paul Chaikin and Salvatore Torquato used M&Ms to investigate the physical principles behind particle packing. They found that oblate spheroids can pack up to 68% of the container's space, exceeding the density of perfect spheres.
A team of Cornell physicists and engineers are developing an instrument that can track hundreds of particles simultaneously, allowing for a more comprehensive understanding of turbulent flows. The technology has the potential to improve climate models and predict how pollutants disperse in air or water.
Researchers have discovered that forces within granular materials decrease as they slide, but are then transferred to a network of 'force chains' that increase in strength. This new understanding could improve modeling of geological systems and design of industrial devices such as hoppers.
Researchers have found that highly connected proteins are unlikely to interact with each other, a phenomenon that helps reduce interference and increase stability in protein networks. This discovery was made possible by computer modeling of protein interactions in yeast cells, which revealed an