Meetings/Workshops on Plasma and Gas-discharge Physics, Nuclear Fusion in the United States (USA)

The goal of controlled thermonuclear fusion research is to develop a safe, environmentally benign, and essentially inexhaustible source of energy for the future. The Annual Conference is organized for educational and scientific purposes. Specifically, the objective of the Annual Conference shall be the communication of recent results in the physics of controlled fusion energy. This conference is conducted in accordance with the International Council of Scientific Unions guidelines on free circulation of scientists.

Colocated with the Transport Task Force Workshop in Santa Rosa, CA – USA.

Plasma Properties, Equilibrium, Stability, and Transport - Physics of Plasma Edge and Divertor Region - Plasma Production and Heating - Computer Simulation of Plasmas

The ultimate goal of the US-EU Transport Task Force (TTF) is to develop a physics-based understanding of particle, momentum and heat transport in magnetic fusion devices. This understanding should be of sufficient depth that it allows the development of predictive models of plasma transport that can be validated against experiment, and then used to simulate the future performance of burning plasmas in ITER, and next-step fusion energy reactors.

The 2020 U.S. TTF Workshop will be co-located with the 2020 Sherwood Fusion Theory Conference and coordinated with the 2020 Asia-Pacific Transport Working Group.

Scientific Computing ,    Modeling and Simulation

The Midwest Magnetic Fields (MMF) series of meetings initially started as local Midwest event that has grown to become an international one. The event usually hosts 50 participants from the USA and abroad. It features invited and contributed talks as well as posters. Discussion is an important part of the meetings.

Measuring magnetic fields , MHD turbulence , Magnetized processes , Cosmic ray acceleration , Dynamo and reconnection

Astronomy, Astrophysics and Cosmology,    Magnetism and Magnetic Materials

High-temperature plasma diagnostics and instrumentation is a growingly interdisciplinary field. The hardware couplings to software and data science are stronger than ever, driven in part by some of the most challenging problems in the laboratory and natural plasma environment. This biennial conference extends a long tradition in plasma instrumentation, provides an international forum to showcase the latest advances and new possibilities that include but are not limited to plasma instrumentation hardware, software, and data science. A broad spectrum of contributions are expected with impact on magnetic confinement fusion, inertial confinement fusion, space plasmas, astrophysics, industrial applications, and data science. The conference contributions will be peer-reviewed before archiving in a special issue of Review of Scientific Instruments.

Metrology and Instrumentation,    Atomic and Molecular Physics

ASC is the foremost gathering point for the electronics, large scale, and materials fields within the applied superconductivity community. We expect program content to include original work in digital electronics, quantum information, astronomy, accelerators, fusion, energy, transportation, medicine, conductors, and properties and testing. The 2020 theme, “Bringing Horizons into Clear View,” acknowledges the excitement of superconductivity and the predictions made in the past, the long journey many applications have taken to come to fruition, and the promising opportunities yet to come.

Quantum materials, Low Temperature Physics,    Magnetism and Magnetic Materials

American Physical Society (APS)

Condensed Matter Physics and Materials,    Atomic and Molecular Physics

American Physical Society

Kavli Institute for Theoretical Physics (KITP)

A fascinating and surprising phenomenon that can occur in fluid and plasma turbulence is the spontaneous formation of arrays of layers in which material properties such as density adopt a so-called “staircase” structure. The most striking examples are potential vorticity staircases in planetary atmospheres, and thermohaline staircases in the oceans. Theoretical considerations suggest that layering also plays an important role in stellar interiors (particularly through various double-diffusive processes) and in fusion confinement devices (the so-called E x B staircase). Understanding the phenomenon of layering is, therefore, not only of intrinsic scientific interest (e.g., is there a common thread to layering in these very different contexts?), but is also crucial for an accurate description of turbulent transport in, for example, models of large-scale ocean flow, the evolution of stellar interiors and confinement in tokamaks.

Thermodynamics, Fluid Dynamics and Statistical Physics,    Mathematical Physics

American Physical Society (APS)