Three NYU faculty, Robert Froemke, Pierre Germain, and Virgiliu Midrigan, have been awarded Sloan Foundation fellowships to support their groundbreaking research in neuroplasticity, nonlinear dispersive equations, and economics. The two-year $50,000 awards aim to foster the next generation of scientific leaders and advance their work.
Researchers at Lawrence Berkeley National Laboratory presented advancements in artificial photosynthesis, CAT scans for biological cells, and diagnostic microscopy with a cell phone. These discoveries aim to improve our understanding of quantum mechanics, analyze cellular structures, and develop new diagnostic tools for cancer patients.
Quantum computing is transforming computing, communications and other technologies with its groundbreaking capabilities. Researchers at the Institute for Quantum Computing are harnessing the forces of quantum mechanics to build incredible new technologies that will revolutionize information processing, storage, sharing and understanding.
Physicists at Rice University mimic the orbit of Jupiter's Trojan asteroids within an atom, confirming Niels Bohr's 1920 prediction on quantum mechanics and Newtonian physics. The research demonstrates control over atomic behavior using radio frequency waves.
Researchers have realized a new way to cool synthetic materials using a quantum algorithm, removing excess energy from ultra-cold atomic gases. This breakthrough enables the manipulation of individual particles at unprecedented temperatures, revealing a mysterious world that has never been seen before.
Researchers at NIST have developed a new device that can perform neutron interferometry in a much smaller space, increasing its sensitivity and speed. This innovation could enable the technique to be used in industries such as materials science and manufacturing.
Researchers demonstrate why quantum mechanics' physical effects are rarely seen in daily life. They found that precisely counting photons becomes increasingly difficult as the number of photons increases.
Researchers at Stowers Institute for Medical Research confirm the molecular mechanics of a key regulatory complex implicated in human leukemia are conserved from yeast to humans. They also identify the common molecular shape at the center of the complex, which regulates gene expression through histone methylation.
Penn and Brown researchers discovered an aspect of friction on the nanoscale that may lead to a better understanding of earthquakes. The team used atomic force microscopy to simulate rock-on-rock contact with different materials, revealing stark differences in frictional aging.
Researchers have developed a system to measure the mechanical properties of living cells, which could lead to new ways to diagnose diseases and understand biological processes. The technique uses an atomic force microscope to study three types of cells, including bacteria, human red blood cells, and rat fibroblasts.
Scientists at Chalmers University of Technology have succeeded in creating light from vacuum by capturing photons that appear and disappear in the vacuum. The experiment confirms a fundamental principle in quantum mechanics, demonstrating the existence of virtual particles that can become real photons.
Researchers Hu et al. developed a new detonation model named the least-action detonation model (LADM) that takes into account complex movement and transport effects, differing from the classical ZND model. The LADM model predicts detonation product particles to be in a stationary state, which has been observed in experiments.
A University of Houston physicist is part of a multi-institution team that has received an $18.5 million grant to develop new solar power technologies. The center aims to accelerate the US's commercialization of solar energy through cutting-edge research and partnerships with industry.
A new method visualizes mechanical forces on cell surfaces in real-time, providing detailed view of forces as they occur. The technique has potential to diagnose and treat diseases related to cellular mechanics.
Electrons in graphene exhibit Klein tunneling, allowing them to pass through energy barriers regardless of width and height. This phenomenon has been observed experimentally in graphene.
A team of researchers has elucidated the mechanics of the endocycle, a novel cell cycle that plays a crucial role in plant and animal growth. By studying genetic transcription factors and enzymes driving endocycling, the team discovered a molecular oscillator that controls cell growth rates.
Researchers propose using single photons and metamaterials for more powerful computers. The technology could harness the principles of quantum mechanics, allowing for more efficient data processing.
Researchers investigated how initial free volume distribution impacts plasticity in metallic glasses (MGs). They found that a large amount of randomly distributed free volume leads to more potential sites for shear band initiation and branching, resulting in increased plasticity. However, too much free volume can also cause failure by ...
Researchers at the University of Vienna aim to measure general relativistic time on a quantum scale by exploiting quantum interference and complementarity. They consider a single clock in a superposition of two locations, one closer and one further away from Earth, where gravity's effects are different.
Researchers found that fault surfaces in earthquake zones come into contact only at microscopic points between scattered bumps called asperities. This creates intense heating, known as flash heating, which can reach temperatures of up to 2,700 degrees Fahrenheit.
Researchers at MIT and Carnegie Mellon used molecular modeling and simulation to study the behavior of lamin A protein tails, finding that mutant protein tails are actually more stable than healthy counterparts. The discovery validates the application of civil engineering methodology to studying diseased cells.
Three Penn State-led projects have received more than $1.6 million in combined research and development grants to improve nuclear fuel safety and develop new alloys for extended service. The projects focus on understanding corrosion protectiveness, detecting damage before fatigue cracks, and developing advanced monitoring methods.
New research by University of York scientists proposes that quantum mechanics could be the key to understanding how black holes work, potentially allowing information to escape. The study's findings suggest a possible breakthrough in our understanding of gravity and its relationship with space and time.
A new in vitro study reveals that dilating the tricuspid valve opening or displacing its papillary muscles can cause leakage, with combination of both increasing severity. The study's findings suggest improved diagnosis and treatment for tricuspid regurgitation, a condition affecting millions of Americans.
Physicist Olivier Pfister and his team create 60 measurable Qmodes, a multilevel variant of entangled qubits, in a major step towards building a quantum computer. This achievement has significant implications for quantum computing, potentially revolutionizing fields such as data encryption and complex system simulations.
A team of researchers led by University of Toronto physicist Aephraim Steinberg successfully reconstructed the full trajectories of light particles moving through a two-slit interferometer, a historic experiment that has puzzled physicists for decades. This achievement provides new insights into quantum mechanics and its interpretations.
Researchers found that hip strengthening exercises reduced patellofemoral pain in female runners and improved their gaits. The study involved four runners who performed single-leg squats and resistance band exercises, which were then repeated for six weeks.
A new article by Douglas Gentile highlights the complexities of video game effects on children and adolescents, citing at least five dimensions: amount of play, content, game context, structure, and mechanics. The research suggests that games can have both positive and negative effects depending on these factors
Researchers at Northwestern University have developed a model that simulates how rats use their whiskers to sense objects around them. The model enables further research on the human sense of touch and may provide insights into new technologies that could utilize the whisker system.
Dr. Chin-Teh Sun has made significant contributions to the fundamental understanding of impact damage and composite structure failure. He is being honored with the AIAA Chichlow Prize for his groundbreaking research on damage-tolerant design in aerospace materials.
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.
Researchers at Northwestern University are studying the rat whisker system to gain a better understanding of how animals perceive touch. By developing models and simulating the rat's behavior, they aim to unlock the secrets of neural processing and potentially create new technologies that can mimic the senses of mammals.
A new method has been developed to estimate uncertainty in particle image velocimetry, a widely used technique in fluid mechanics. The approach allows for more accurate results and increased reliability in flow measurements, with potential applications in fields such as aerodynamics, hydrodynamics, and biomedical research.
Researchers discover nematodes stick together like Cheerios in milk, but surprisingly don't gain mechanical advantage by grouping. This phenomenon sheds light on capillary forces in colloidal particles.
Researchers at Tel Aviv University have discovered a new way to melt glass by cooling it to near Absolute Zero, using quantum mechanics to defy classical physics. This breakthrough could pave the way for future materials science discoveries.
Researchers at JILA disprove the popular theory that DNA's backbone needs a small gap or loose ends to extend by 70% when subjected to 65 picoNewtons of force. The new study uses a novel test structure to demonstrate that the mechanism behind overstretching is the same for both nicked and intact DNA molecules.
Hassan Aref, a Virginia Tech professor, has been awarded the G.I. Taylor Medal for his outstanding contributions to fluid mechanics research. His work includes shedding new light on chaotic motion and its applications.
A mechanical device that operates in the quantum realm has been developed by researchers from the University of California at Santa Barbara. This innovation extends quantum mechanics into a whole new realm and opens up possibilities for controlling light, electrical currents, and motion.
A study by Indiana University found that runners who continue despite exhaustion change their form, increasing the risk of injury. The study showed that at the end of a normal run, runners' mechanics start to change when they reach fatigue levels, typically indicated by RPEs between 13-15.
Physicists at Ohio State University have developed a technique to tune the properties of key atoms in computer chips by rearranging tiny defects. This could lead to faster computing speeds and new computing paradigms based on quantum mechanics.
A decade of research on the Soufriere Hills Volcano has provided new understanding of magma activity, explosive dynamics, and volcano mechanics. The CALIPSO and SEA-CALIPSO projects have generated high-resolution images of the volcano's center and adjacent crust.
A fundamental link between the uncertainty principle and non-locality has been discovered, revealing a quantitative relationship between the two phenomena. This breakthrough sheds new light on the foundations of quantum mechanics and its ability to allow for 'spooky action at a distance'.
Researchers studied the mechanical properties of explosive seed dispersal in Cardamine parviflora, finding that the catapulting mechanism can transfer up to 20% of stored energy to kinetic energy. However, the process is unreliable, with most seeds falling to the ground.
The National Science Foundation has recognized three projects with Breakthrough Awards: an artificial retina restoring sight to the blind; a system using controlled rocking to help buildings withstand earthquakes; and a low-cost medical microscope for detecting malaria-infected blood cells.
A computational model of a swimming fish has been developed to simulate the interaction of both internal and external forces on locomotion. The study reveals that body stiffness is crucial in determining how well a fish swims, with stiffer bodies accelerating faster but expending more energy.
A Yale team has achieved the entanglement of three solid-state qubits for the first time, paving the way for quantum error correction and future quantum computing. The accomplishment builds on their previous development of a rudimentary solid-state quantum processor.
The ICIAM Collatz Prize recognizes individual scientists under 42 worldwide for outstanding research in industrial and applied mathematics, while the Lagrange Prize honors career-long contributions. Other notable prizes include the Maxwell, Pioneer, and Su Buchin Prizes.
The Office of Naval Research has awarded a $7.5M grant to Boston University to develop unmanned aircraft inspired by the flight mechanics of bats, birds, and insects. The project will investigate biological capabilities for agile flight and integrate engineering design with biological studies.
Researchers have developed a model that confirms correlation between on and off periods in blinking phenomena, providing insights into the physical mechanism behind the vast range of emission times. The finding has potential applications in quantum dot imaging, cancer cell detection, and display screen development.
Researchers from Tel Aviv University have developed improved microelectromechanical systems (MEMS) devices that can measure acceleration and impact with increased sensitivity. These advancements have the potential to transform industries such as sports, transportation, and defense.
Using gauge/gravity duality, researchers identified a system with unusual properties similar to strange metals, which can be explained by gravitational mechanics. This approach may shed light on other materials and predict their behavior.
Researchers at Penn State have developed a method to create macroscale molds or dies that retain nanoscale features, mimicking biological tissues. The team used blowfly eyes as a template to produce high-quality polymer replicas with precise dimensions.
A research group at UCLA has devised a new method for securing location-sensitive data by leveraging quantum mechanics. This approach eliminates the need for distributing and storing keys, making it more secure than classical methods.
Researchers have confirmed an axiom in quantum physics by ruling out the existence of higher-order interferences experimentally. This confirms the accuracy of Born's law, a key principle in quantum mechanics that proposes interference occurs in pairs of possibilities.
Researchers bridge the gap between classical and quantum physics by exploring how the rules of quantum mechanics apply to macroscopic objects. They discovered that vibrations in a crystal can cause electrons to tunnel through barriers, leading to random quantum fluctuations.
Researchers tested the spin-statistics theorem, which dictates whether particles are fermions or bosons. They found no evidence of forbidden transitions, strengthening the theory and ruling out photons behaving like fermions.
Researchers at Harvard University have tracked individual atoms as they reorganized into a crystal, driven by quantum mechanics. This achievement opens possibilities for particle-by-particle study and engineering of artificial quantum materials.
Two studies by Indiana University researchers found little influence of compression garments on running mechanics and economy in highly trained distance runners. While some subjects experienced improvement in their oxygen consumption, it was largely attributed to a psychological component rather than the garment itself.
Underhill will investigate how interactions between bacteria lead to collective responses, developing a theoretical framework and computer simulation methods. The award includes educational tools for exploring the role of fluid mechanics in bacterial systems.
Scientists used quantum mechanics to simulate silica behavior under high-temperature and pressure conditions, revealing the mineral's structure changes dramatically with depth. The study suggests the lower mantle may be devoid of silica, except in localized areas where oceanic plates have subducted.