Gravity can focus light like a lens, allowing astronomers to see distant galaxies and explore dark matter. Join our host Summer Ash of the National Radio Astronomy Observatory as she talks about how astronomers use gravitational lensing to study the universe..
A pair of theoretical physicists are reporting that the same observations inspiring the hunt for a ninth planet might instead be evidence within the solar system of a modified law of gravity originally developed to understand the rotation of galaxies.
Cornell is spearheading the New York Consortium for Space Technology Innovation and Development, a new initiative aimed at bolstering U.S. space technology research and manufacturing capabilities by uniting industry, academic and government partners across New York.
Using a combination of experimental facilities, researchers directly measured a key reaction that takes place in the explosions on the surfaces of neutron stars. This is the first-ever measurement of this reaction. Contrary to expectation, the experimental data agreed with predictions from a common theoretical model used to calculate reaction rates.
When a muon binds with a deuteron, it forms a system with two neutrons in a process analogous to proton-proton fusion. Nuclear theorists examined this muon capture process to quantify theoretical uncertainty relevant for comparison with experimental data and to test predictions involving proton-proton fusion. The study supports ongoing efforts to enhance the accuracy of muon capture measurements and to apply the same theoretical framework to other processes.
Quantum annealing (QA) is a cutting-edge algorithm that leverages the unique properties of quantum computing to tackle complex combinatorial optimization problems (a class of mathematical problems dealing with discrete-variable functions).
Theorists have successfully calculated the “heavy quark diffusion coefficient,” which describes how quickly a melted soup of quarks and gluons transfers its momentum to heavy quarks. The results show this transfer is very fast—at the limit of what quantum mechanics will allow.
The Virginia Tech College of Engineering has received a $10 million, five-year Department of Defense award to fund groundbreaking research with potential military and commercial implications.
To help journalists and the public understand the context of this year’s Nobel Prize, AIP is compiling a resources page featuring relevant scientific papers and articles, quotes from experts, photos, multimedia, and other resources.
A materials scientist who specializes in superconductors, Sarrao brings a deep background in national lab leadership and the evolution of SLAC science.
Some types of quantum chromodynamics (QCD) calculations are so complex they strain even supercomputers. To speed these calculations, researchers developed MemHC, an optimized memory framework.
The behavior of electrons in liquids plays a big role in many chemical processes that are important for living things and the world in general. For example, slow electrons in liquid have the capacity to cause disruptions in the DNA strand.
Rob Schurko has received the Regitze Vold Prize at the Alpine Conference, an international forum on magnetic resonance in solids. Schurko is director of the MagLab’s Nuclear Magnetic Resonance and Magnetic Resonance Imaging Facility and is a professor in the Department of Chemistry and Biochemistry at Florida State University.
Material used in organic solar cells can also be used as light sensors in electronics. This is shown by researchers at Linköping University, Sweden, who have developed a type of sensor able to detect circularly polarised red light.
Case Western Reserve physics professor Giuseppe Strangi is leading a research group developing new optical coatings, which are as thin as a few atomic layers. They can simultaneously transmit and reflect narrow-banded light with unparalleled vividness and purity of the colors.
The physics behind antimatter is one of the world’s greatest mysteries. Looking as far back as The Big Bang, physics has predicted that when we create matter, we also create antimatter.
A newly discovered nearby supernova whose star ejected up to a full solar mass of material in the year prior to its explosion is challenging the standard theory of stellar evolution.
The Spallation Neutron Source at Oak Ridge National Laboratory — already the world’s most powerful accelerator-based neutron source — will be on a planned hiatus through June 2024 as crews work to upgrade the facility. Much of the work — part of the facility’s Proton Power Upgrade project — will involve building a connector between the accelerator and the planned Second Target Station at SNS.
Researchers are getting a closer look at the behavior of nuclear fuel at the atomic level with the Center for Thermal Energy Transport under Irradiation (TETI) 2.0 technology.
Galaxies from the early Universe are more like our own Milky Way than previously thought, flipping the entire narrative of how scientists think about structure formation in the Universe, according to new research published today.
Many objects in the Universe have magnetic fields. Planets such as Earth and Jupiter, the Sun and other stars, even galaxies billions of light years away.
ROCKVILLE, MD – The Biophysical Society is proud to announce its 2024 Society Fellows. This award honors the Society’s distinguished members who have demonstrated excellence in science and contributed to the expansion of the field of biophysics.
TEAM-UP Together is pleased to announce its second cohort of scholars: 62 students who will each receive $10,000 for the 2023-24 academic year. Among these high-achieving students, 15 are second-time award recipients. By offering financial support to promising undergraduates, TEAM-UP Together encourages more young Black and African American students to follow their passion for science. Scholarship awardees become members of the Society of Physics Students and will also gain access to professional development opportunities, mentoring, training, conference travel funding, and more through the TEAM-UP Together community.
While it has long been known that ultraviolet (UV) light can help kill disease-causing pathogens, the COVID 19 pandemic has put a spotlight on how these technologies can rid environments of germs.
Lanthanide-doped upconversion nanoparticles emerged recently as an attractive material platform for light emission. It underpins various innovative applications such as optical cryptography, luminescent probes, and lasing. An effective strategy for achieving ultrabright and dual-band polarized upconversion photoluminescence is presented.
Oak Ridge National Laboratory is leading two nuclear physics research projects within the Scientific Discovery through Advanced Computing, or SciDAC, program from the Department of Energy Office of Science. One of the projects is called Nuclear Computational Low-Energy Initiative, or NUCLEI. The other is Exascale Nuclear Astrophysics for FRIB, or ENAF.
Electrons can display interference effects like waves in the ocean, but this happens on extremely fast time scales. In this study, scientists observed the quantum mechanical motion of electrons in an excited molecule using an “attoclock,” which measures electron motion with a precision of hundreds of attoseconds. The experiment advances the study of electron dynamics and will improve understanding of molecular physics and quantum chemistry.
Jim Sebek, an electrical engineer and physicist at the Stanford Synchrotron Radiation Lightsource (SSRL) at the Department of Energy’s SLAC National Accelerator Laboratory, will receive this year’s Farrel W. Lytle Award for countless contributions towards building, maintaining and operating the synchrotron for nearly four decades.
This morning, the Breakthrough Foundation announced the winners of the 2024 Breakthrough Prizes and Stony Brook University Distinguished Professor and C.N. Yang/Wei Deng Endowed Chair Alexander Zamolodchikov was named co-recipient of the Prize in Fundamental Physics.
Today, the U.S. Department of Energy (DOE) announced $5.8 million in funding for five projects in nuclear data for basic nuclear science and applications.
Saltwater taffy, a product that contains no actual saltwater, is neither fully solid nor fully liquid. Researchers from Okinawa Institute of Science and Technology Graduate University and Massachusetts Institute of Technology put the sticky, sweet confection to the test to understand the physics behind this unique candy.
Researchers have discovered that applying plastic deformation to the quantum material strontium titanate causes defects (known as dislocations) to organize themselves into repeating structures. These changes lead to improvements of strontium titanate’s superconducting and ferroelectric properties.
Quantum materials’ properties arise from the interaction of their electrons and atomic nuclei. Researchers can observe these interactions as they happen using ultrafast X-ray or electron beam pulses.
Researchers at FAMU-FSU College of Engineering have developed two closely related polymers that respond differently to high and low temperature thresholds, despite their similar design.
New research has revealed the distribution of dark matter in never before seen detail, down to a scale of 30,000 light-years. The observed distribution fluctuations provide better constraints on the nature of dark matter.
Though a cornerstone of thermodynamics, entropy remains one of the most vexing concepts to teach budding physicists in the classroom. In The Physics Teacher, co-published by AIP Publishing and the American Association of Physics Teachers, T. Ryan Rogers designed a hand-held model to demonstrate the concept of entropy for students.
Isotopes — atoms of a particular element that have different numbers of neutrons — can be used for a variety of tasks, from tracking climate change to conducting medical research.Investigating rare isotopes, which have extreme neutron-to-proton imbalances and are often created in accelerator facilities, provides scientists with opportunities to test their theories of nuclear structure and to learn more about isotopes that have yet to be utilized in application.
Neutrino mass, a crucial piece of many unresolved physics puzzles, may one day be revealed through a novel measurement system that has just proven its mettle: Cyclotron Radiation Emission Spectroscopy (CRES).
While studying random algorithms to learn their generic features and to develop new strategies to correct quantum processor errors, Cornell researchers discovered that certain classes of algorithms lead to hidden order called “spin-glass” for its analogy to window glass, which at the micro level has the disorder of liquid and the rigidity of a solid.