Abstract

The magnetoplasma compressor, a quasi stationary plasma accelerator, is a source of supersonic compression plasma flow. High plasma parameters of compression flow, large flow velocity and discharge duration enable their efficient usage for development of new plasma technologies, including material surface modification, creation of sub microstructures and nanostructures. In this paper spatial and temporal distribution of emissivity was studied using inverse Abel transform. This has been realized in LabVIEW environment. The plasma flow generated by quasi stationary plasma accelerators can be used for simulation of high energy plasma interaction with different materials of interest for fusion experiments. Surface phenomena are results of specific conditions during plasma flow interaction with target surface. As the next step in our research, spectral analysis of the plasma area around targets surface, after interaction between target and plasma, generated by magnetoplasma compressor, is planned. The first material which will be subjected to interaction with plasma will be a carbon fiber - material of big importance for divertor region in fusion devices.

Highlights

  • The plasma flow generated by quasi stationary plasma accelerators can be used for simulation of high energy plasma interaction with different materials of interest for fusion experiments

  • The magnetoplasma compressor is a source of supersonic compression plasma flow (CPF) [1,2,3,4]

  • Third phase is quasi-stationary state of compression plasma flow and in fourth part the compression plasma flow is in decay which is followed by after-glow effects

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Summary

INTRODUCTION

The magnetoplasma compressor is a source of supersonic compression plasma flow (CPF) [1,2,3,4]. High plasma parameters of compression flows (electron density and temperature close to 1023 m–3 and 20 000 K, respectively) together with large flow velocity (close to 100 kms–1 in hydrogen and 40 kms–1 in nitrogen) and discharge duration (stable CPF close to 50 μs) enable their efficient usage for development of new plasma technologies, including material surface modification [5, 6], creation of sub microstructures and nanostructures, etc. The plasma flow generated by quasi stationary plasma accelerators can be used for simulation of high energy plasma interaction with different materials of interest for fusion experiments. Such systems are the new generation quasi-stationary plasma accelerators. This article contains an overview of the research activity on the Belgrade MPC device, some of our new experimental data as well as plans for future steps

EXPERIMENTAL SETUP
RECENT EXPERIMENTAL RESULTS
Findings
CONCLUSIONS
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