Logo
ArticlesJobsAffiliate ProgramSign InNewsletter
Logo
ArticlesJobsAboutAffiliate ProgramSign InNewsletter

TJ-K

Stellarator

Associated Organization:

Institute of Interfacial Process Engineering and Plasma Technology, University of Stuttgart

Project Status

Operating

Publications

Transport regulation and energy transfer dynamics during zonal flow formation

Nuclear Fusion, 2025

Causal coupling of edge-SOL coherent structures with zonal flows

Plasma Physics and Controlled Fusion, 2025

Interplay of turbulent transport and Reynolds stress in drift-wave turbulence

Physical Review E, 2025

A neural network for the analysis of Langmuir-probe characteristics

Plasma Physics and Controlled Fusion, 2024

Nondiffusive particle transport in the stellarator experiment TJ-K

Physics of Plasmas, 2023

Validation of GBS plasma turbulence simulation of the TJ-K stellarator

Plasma Physics and Controlled Fusion, 2023

Plasma electron acceleration in a non-resonant microwave heating scheme below the electron cyclotron frequency

New Journal of Physics, 2022

Turbulent energy transfer into zonal flows from the weak to the strong flow shear regime in the stellarator TJ-K

Physics of Plasmas, 2021

Experimental observation of resonance manifold shrinking under zonal flow shear

Physical Review E, 2020

The influence of magnetic field curvature on intermittency in drift-wave turbulence in the stellarator TJ-K

Physics of Plasmas, 2020

See all 46 publications →

Years Operated

1999 - Present

The experiment TJ-K is a fusion device of stellarator type. Although TJ-K was originally constructed to be operated with a fusion plasma, at IGVP it is operated with a low-temperature plasma. The reduced temperature enables probe measurements inside the plasma with high temporal and spatial resolution. At the same time, dimensionless plasma parameters, which control the turbulent dynamics, are similar to those in the edge region of fusion plasmas. Three microwave heating sources operating at different frequencies allow for plasma generation at background magnetic fields from 50 mT up to 500 mT. The research topics are on the one hand the investigation of plasma dynamics by multi-probe arrays and a high-speed camera and comparing the results with numerical simulations and on the other hand the experimental and numerical investigation of plasma-microwave interaction.

  • TJ-K image 1

Project Status

Operating

Publications

Transport regulation and energy transfer dynamics during zonal flow formation

Nuclear Fusion, 2025

Causal coupling of edge-SOL coherent structures with zonal flows

Plasma Physics and Controlled Fusion, 2025

Interplay of turbulent transport and Reynolds stress in drift-wave turbulence

Physical Review E, 2025

A neural network for the analysis of Langmuir-probe characteristics

Plasma Physics and Controlled Fusion, 2024

Nondiffusive particle transport in the stellarator experiment TJ-K

Physics of Plasmas, 2023

Validation of GBS plasma turbulence simulation of the TJ-K stellarator

Plasma Physics and Controlled Fusion, 2023

Plasma electron acceleration in a non-resonant microwave heating scheme below the electron cyclotron frequency

New Journal of Physics, 2022

Turbulent energy transfer into zonal flows from the weak to the strong flow shear regime in the stellarator TJ-K

Physics of Plasmas, 2021

Experimental observation of resonance manifold shrinking under zonal flow shear

Physical Review E, 2020

The influence of magnetic field curvature on intermittency in drift-wave turbulence in the stellarator TJ-K

Physics of Plasmas, 2020

See all 46 publications →

Years Operated

1999 - Present

Logo
ArticlesJobsAboutAffiliate ProgramSupply ChainEventsOrganizationsProjectsPublicationsFunding OpportunitiesFusion Power Plant SimulatorFusion FundingArticlesJobsAboutAffiliate Program

© 2019-2026 Triple Product Inc. Content available under CC BY-NC 4.0. Terms of Use

TwitterLinkedin