U.S. national laboratories and prominent publishers announce a partnership to support name change requests from researchers on past published papers.
News release profiles award-winning physicist Elizabeth Paul, whose work advances the development of fusion devices called stellarators that aim to harvest on Earth fusion energy.
These partnerships facilitate breakthroughs in harvesting on Earth the fusion power that drives the sun and stars.
Zeke Unterberg is a senior research scientist at Oak Ridge National Lab, studying ways to optimize the operations and materials for future nuclear fusion reactors.
PPPL scientists have developed a path-setting way to measure RF waves that could lead to enhanced future experiments aimed at bringing fusion energy to Earth.
Scientists uncover new properties of plasma that have wide potential applications for astrophysical and fusion plasmas.
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The U.S. Department of Energy’s (DOE) Office of Science today announced that 22 million node-hours for 41 scientific projects under the Advanced Scientific Computing Research (ASCR) Leadership Computing Challenge (ALCC) program.
The Department of Energy (DOE) today awarded $2.1 million across 9 collaborative projects between DOE national laboratories and private industry aimed at overcoming challenges in fusion energy development.
Machine learning can improve the ability of scientists to optimize the components of experiments on spherical tokamaks that heat and shape the magnetically confined plasma that fuels fusion reactions.
PPPL forges ahead with development of streaming media to provide rapid analysis of key findings of remote fusion experiments.
PPPL develops novel X-ray crystal spectrometer to measure high energy density plasmas in the National Ignition Facility at Lawrence Livermore National Laboratory.
Today, the U.S. Department of Energy (DOE) announced $6.4 million in funding for U.S. scientists to carry out seven research projects at two major fusion energy facilities located in Germany and Japan.
Dan Boyer of PPPL receives DOE Early Career Award to accelerate predictive models of spherical tokamak plasmas with machine learning methods.
Creating a fusion plasma requires deep understanding of the behavior of various isotopes of hydrogen. But plasma scientists have long been puzzled by a mysterious contradiction– the disconnect between theoretical predictions and experimental observations of how fusion energy confinement varies with the mass of hydrogen isotopes used to fuel the plasma. A new analysis has helped unravel this mystery.
Article details report urging the U.S. to immediately invest in resolving the scientific and technical issues required to design and build a fusion-powered pilot plant
New computer simulation forecasts a surprisingly optimistic heat load for future fusion facilities designed to harvest on Earth the fusion that powers the sun and stars to generate electricity.
A team used two DOE supercomputers to complete simulations of the full-power ITER fusion device and found that the component that removes exhaust heat from ITER may be more likely to maintain its integrity than was predicted by the current trend of fusion devices.
Based on input from the fusion and plasma research community, the Fusion Energy Sciences Advisory Committee has put forth a new vision and goal. Based on decades of advances in fusion research, they propose working to launch an economically-viable pilot fusion power plant by the 2040s.
The U.S. Department of Energy (DOE) Fusion Energy Sciences Advisory Committee (FESAC) has adopted and endorsed a new report that lays out a strategic plan for fusion energy and plasma science research over the next decade. The report has been…
PPPL scientists have created a plan using liquid lithium to keep the full force of extreme and potentially damaging heat from hitting the divertor region that will release heat from future tokamak fusion facilities.
One of the great challenges in fusion tokamaks is how to keep the core of a plasma hot enough that fusion can occur while maintaining a temperature at the edge of the plasma low enough that it doesn’t melt the tokamak’s walls. This requires dissipating the heat and particles flowing towards the wall without reducing the performance of the core. Researchers recently developed a pathway to addressing this core-edge integration challenge.
PPPL names main conference room for physicist Richard J. Hawryluk, a Laboratory guiding light for more than 40 years.
Article displays 12 research and development highlights published by PPPL in 2020.
Article describes PPPL work in coordination with MIT’s Plasma Science and Fusion Center and Commonwealth Fusion Systems, a start-up spun out of MIT that is developing a unique tokamak fusion device called “SPARC.”
Design and construction of start of unique permanent magnet stellarator funded to begin.
In new experiments at the DIII-D National Fusion Facility, researchers separately measured the deposition of particles and turbulent transport in in high-confinement plasmas. The research showed that the increase is the result of electrons being transported by turbulence up a hill of plasma density.
Profile of PPPL physicist Elena Belova, a pioneer in developing hybrid simulation codes in fusion and space plasmas, who has been elected a Fellow of the American Physical Society.
The record-setting PPPL tokamak that laid the foundation for future fusion power plants receives the distinguished landmark designation from the the American Nuclear Society.
Hutch Neilson, a physicist at PPPL who is head of ITER Projects, has received the 2020 Institute of Electrical and Electronics Engineers’ (IEEE) Nuclear & Plasma Sciences Society (NPSS) Merit Award for decades of achievements, including collaborations with fusion experiments around the world from the Wendelstein 7-X (W7-X) stellarator in Germany to the international ITER experiment in the south of France.
Two new fusion companies will work with PPPL to model their development concepts under the INFUSE program.
Egemen Kolemen, Princeton University assistant professor and PPPL physicist, wins prestigious Fusion Power Associates award.
Physicists at PPPL discover a new trigger for edge localized modes (ELMs) — instabilities that can halt fusion reactions and damage the tokamaks that house such reactions.
Researchers discover a technique for widening the windows of plasma current to enhance suppression of edge localized modes (ELMs) that can damage tokamak facilities.
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Researchers at the DOE’s Princeton Plasma Physics Laboratory have developed a pulsed method for stabilizing magnetic islands that can cause disruptions in fusion plasmas.
Profile of Yuan Shi, graduate of the Princeton Program in Plasma Physics based at PPPL and winner of this year’s Outstanding Thesis Award presented by the American Physical Society.
Article describes weekly virtual stellarator conferences held in lieu of annual face-to-face meeting because of COVID-19 travel restrictions.
Article profiles standout doctoral graduate who has developed a unique mathematical means to facilitate the development of stellarator fusion facilities.
Article profiles Vincent Graber, his research interests and thesis plans.
Correlation discovered between magnetic turbulence in fusion plasmas and troublesome blobs at the plasma edge.
PPPL scientists have borrowed a technique from applied mathematics to rapidly predict the behavior of fusion plasma at a much-reduced computational cost.
As a teenager, Kat Royston discovered that physics could give her answers to her questions about the ways the world works. Now, as a researcher in ORNL’s Reactor and Nuclear Systems Division, she works on unraveling the mysteries of fission and fusion around the world – including research for the ITER and JET fusion experiments.
Researchers have demonstrated a new approach for injecting microwaves into a tokamak fusion device. In a fusion electron-cyclotron current drive (ECCD), microwaves help stabilize the plasma while the tokamak heats the plasma on the path to fusion. The new approach to ECCD is twice as efficient as previous approaches.
The ITER fusion reactor being built in the south of France will use rippled magnetic fields to prevent bursts of heat and particles that can damage the walls of the reactor. Now, physicists at the Princeton Plasma Physics Laboratory and the DIII-D national fusion facility have compared computer simulations of the DIII-D plasma with experimental measurements to better understand how controlled magnetic ripples outside the plasma can suppress these bursts.
The techniques Theodore Biewer and his colleagues are using to measure whether plasma has the right conditions to create fusion have been around awhile.
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Researchers from TAE Technologies used the Argonne Leadership Computing Facility to support their fusion research. The company is working to develop the world’s first fusion device that can generate electricity and is commercially viable.
Simulations show that halo currents can serve as a proxy for the total force produced by vertical disruptions.
Brookhaven’s Superconducting Magnet Division will partner with industry to develop and characterize superconducting power cables.