PPPL unveils new laboratory space to advance quantum information science

On March 11, PPPL opened its new Quantum Diamond Lab, a space devoted to studying and refining the processes involved in using plasma, the electrically charged fourth state of matter, to create high-quality diamond material for quantum information science applications.

Debra Callahan Receives 2023 Ronald C. Davidson Award for Plasma Physics

Physics of Plasmas has bestowed the 2023 Davidson Award to Debra Callahan for her paper “Exploring the limits of case-to-capsule ratio, pulse length, and picket energy for symmetric hohlraum drive on the National Ignition Facility Laser.” The annual award of $5,000 is presented in collaboration with the APS Division of Plasma Physics to recognize outstanding plasma physics research by a Physics of Plasmas author.

The Mechanism Of Cosmic Magnetic Fields Explored in the Laboratory

Recent research shows that magnetic fields can spontaneously emerge in a plasma if the plasma has a temperature anisotropy. This mechanism is known as the Weibel instability. This new research is the first to unambiguously observe the Weibel instability in the laboratory. It offers a possible solution to the problem of the origin of the microgauss-level magnetic fields that permeate the galaxies.

2022 Ronald C. Davidson Award for Plasma Physics Goes to Ian H. Hutchinson

AIP Publishing has selected Ian H. Hutchinson, a professor of nuclear science and engineering at MIT, as the recipient of its 2022 Ronald C. Davidson Award for Plasma Physics for his paper, “Electron holes in phase space: What they are and why they matter.” The annual award of $5,000 is presented in collaboration with the APS Division of Plasma Physics to recognize outstanding plasma physics research by a Physics of Plasmas author.

Smaller, stronger magnets could improve devices that harness the fusion power of the sun and stars

PPPL researchers have found a way to build powerful magnets smaller than before, aiding the design and construction of machines that could help the world harness the power of the sun to create electricity without producing greenhouse gases that contribute to climate change.

Physicist Greg Hammett honored for his work advancing understanding of fusion plasmas

Theoretical and computational physicist Greg Hammett, a leader in advancing understanding of the complex turbulence that controls the performance of fusion plasmas and a dedicated educator, has been named a 2021 Distinguished Scientist Fellow by the DOE’s Office of Science.

New national facility at PPPL and Princeton University explores low temperature plasma for innovative uses

New Princeton Princeton Collaborative Low Temperature Plasma Research Facility at PPPL provides access to world-class diagnostics, computational tools, and expertise in plasma physics for characterizing low temperature plasmas (LTP) — a rapidly expanding source of innovation in fields ranging from electronics to health care to space exploration.

PPPL physicist Hutch Neilson receives award for decades of leadership on national and international fusion experiments

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.

Next-Gen Laser Facilities Look to Usher in New Era of Relativistic Plasmas Research

Chirped pulse amplification increases the strength of laser pulses in many of today’s highest-powered research lasers, and as next-generation laser facilities look to push beam power, physicists expect a new era for studying plasmas. Researchers have released a study in Physics of Plasmas taking stock of what upcoming high-power laser capabilities are poised to teach us about relativistic plasmas subjected to strong-field quantum electrodynamics processes and introducing the physics of relativistic plasma in supercritical fields.

Preparing for exascale: Eliminating disruptions on the path to sustainable fusion energy

With the world’s most powerful path-to-exascale supercomputing resources at their disposal, William Tang and colleagues are combining computer muscle and AI to eliminate disruption of fusion reactions in the production of sustainable clean energy.