PPPL Honors Grierson and Greenough for Distinguished Research and Engineering Achievements
Princeton Plasma Physics LaboratoryArticle describes PPPL's presentation of 2017 Kaul Prize and Distinguished Engineering Fellow awards.
Article describes PPPL's presentation of 2017 Kaul Prize and Distinguished Engineering Fellow awards.
A team of researchers led by PPPL physicist Will Fox recently used lasers to create conditions that mimic astrophysical behavior. The laboratory technique enables the study of outer-space-like plasma in a controlled and reproducible environment.
Article describes international collaboration that has improved stability on KSTAR tokamak in South Korea.
Scientists at PPPL have completed new simulations that could provide insight into how blobs at the plasma edge behave. The simulations, produced by a code called XGC1 developed by a national team based at PPPL, performed kinetic simulations of two different regions of the plasma edge simultaneously.
Article describes proposed design for production of steady-state plasma in future fusion power plants.
Article describes study of cross-correlation of turbulence in tokamaks.
Feature describes coupling of TRANSP and OMFIT codes to expand the TRANSP global
Article describes simulated prediction of heat flux that ITER divertor plates will be able to tolerate.
Article describes new ITER Scientist Fellow.
Recent experiments conducted on the DIII-D National Fusion Facility suggest that up to 40 percent of high-energy particles are lost during tokamak fusion reactions because of Alfvén waves.
Feature describes new application of fluid model to reconnection in space plasmas.
Feature describes PPPL contribution to resumption of research on the Wendelstein 7-X stellarator in Germany.
PPPL physicist Fatima Ebrahimi has for the first time used advanced models to accurately simulate key characteristics of the cyclic behavior of edge-localized modes, a particular type of plasma instability. The findings could help physicists more fully comprehend the behavior of plasma, the hot, charged gas that fuels fusion reactions in doughnut-shaped fusion facilities called tokamaks, and more reliably produce plasmas for fusion reactions.
Article describes use of second neutral beam injector to suppress instabilities on the NSTX-U
Article describes PPPL's design and delivery of pole shields for DIII-D neutral beam injectors.
PPPL research performed with collaborators from Princeton University and the Institute for Advanced Computational Science at the State University of New York at Stony Brook has shown how plasma causes exceptionally strong, microscopic structures known as carbon nanotubes to grow.
A computer code used by physicists around the world to analyze and predict tokamak experiments can now approximate the behavior of highly energetic atomic nuclei, or ions, in fusion plasmas more accurately than ever.
Article describes simulation of impact of recycled atoms on plasma turbulence.
Feature describes first laboratory generation of high-energy shock waves.
A paper by graduate student Matthew Parsons describes the application of machine learning to avoiding plasma disruptions, which will be crucial to ensuring the longevity of future large tokamaks.
Article describes first experimental finding of constant temperature throughout a fusion plasma.
Article describes ALCC allotment of 269.9 million supercomputer hours to study the complex edge region of fusion plasmas.
Feature describes testing different lithium injectors on China's EAST tokamak.
A team of physicists has found that a coating of lithium oxide on the inside of fusion machines known as tokamaks can absorb as much deuterium as pure lithium can.
PPPL physicists have simulated the spontaneous transition of turbulence at the edge of a fusion plasma to the high-confinement mode that sustains fusion reactions. The research was achieved with the extreme-scale plasma turbulence code XGC developed at PPPL in collaboration with a nationwide team.
PPPL physicists have helped develop a new computer model of plasma stability in doughnut-shaped fusion machines known as tokamaks. The model could help scientists predict when a plasma might become unstable and then avoid the underlying conditions.
In the past year, scientists at PPPL have made important advances in the study of secondary electron emissions.
Article describes how pumping heat into the core of plasmas can create sheared rotation that improves the performance of fusion devices.
Feature describes source of acceleration of common type magnetic reconnection.
A physicist has created a new system that will let scientists control the energy and rotation of plasma in real time in a doughnut-shaped machine known as a tokamak.
Description of PPPL-led computer code selected to run on all three new pre-exascale supercomputers.
The U.S. Department of Energy's Princeton Plasma Physics Laboratory has received two awards from national agencies for its green buying practices and its composting and recycling program, the latest in a long list of honors the Lab has received for its environmental programs over the past several years.
PPPL physicist Igor Kaganovich and collaborators have uncovered some of the physics that make possible the etching of silicon computer chips, which power cell phones, computers, and a huge range of electronic devices.
PPPL physicist Fatima Ebrahimi has published a paper showing that magnetic reconnection — the process in which magnetic field lines snap together and release energy — can be triggered by motion in nearby magnetic fields.
PPPL physicists have for the first time directly observed a phenomenon that had previously only been hypothesized to exist. The phenomenon, plasmoid instabilities that occur during collisional magnetic reconnection, had until this year only been observed indirectly using remote-sensing technology.
List of the top 10 laboratory stories in 2016.
Feature describes improved method for simulating collisionless accretion disk around supermassive Sagittarius A* at center of Milky Way.
Article describes new theoretical framework for stabilizing high-energy accelerators.
Article provides perspective on latest research on magnetic reconnection.
Article describes the remarkable fidelity of the magnetic field of the Wendelstein 7-X stellarator to the complex design of the field.
Article describes physics behind fast magnetic reconnection.
Physicists from around the world gathered at the University of California, Irvine this past summer for a symposium in honor of Wei-li Lee, a senior physicist at the U.S. Department of Energy's (DOE) Princeton Plasma Physics Laboratory (PPPL).
Article describes appointment of PPPL Physicist Richard Hawryluk as chair of the Nuclear Fusion editorial board.
Physicists at PPPL have developed a diagnostic that provides crucial real-time information about the ultrahot plasma swirling within doughnut-shaped fusion machines known as tokamaks.
Article roundups several PPPL news releases from the 58th annual APS Division of Plasma Physics conference.
Physicist Egemen Kolemen is sharing a grant from ExxonMobil to research whether plasma could reduce greenhouse gas emissions associated with oil wells.
Piece describes R. Goldstone's 2015 Nuclear Fusion Award.
A proposal from PPPL scientists has been chosen as part of a national initiative to develop the next generation of supercomputers. Known as the Exascale Computing Project, the initiative will include a focus on exascale-related software, applications, and workforce training.
A team of scientists at the U.S. Department of Energy’s (DOE) Princeton Plasma Physics Laboratory (PPPL) has won the 2016 Edison Patent Award for inventing an on-demand method to create a badly needed isotope used routinely in medical imaging devices to diagnose diseases such as cancer and heart disease.
Wrap-up of PPPL and collaborator presentations at 26th IAEA conference in Japan.