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A new technique for tokamak edge density measurement based on microwave interferometer
by
Heuraux, Stéphane
, Khabibullin, Ildar
, Faugel, Helmut
, Usoltceva, Mariia
in
Data processing
/ Density measurement
/ Emitters
/ Genetic algorithms
/ Microwave interferometers
/ Propagation
/ Three dimensional models
/ Tokamak devices
/ Wave propagation
2021
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A new technique for tokamak edge density measurement based on microwave interferometer
by
Heuraux, Stéphane
, Khabibullin, Ildar
, Faugel, Helmut
, Usoltceva, Mariia
in
Data processing
/ Density measurement
/ Emitters
/ Genetic algorithms
/ Microwave interferometers
/ Propagation
/ Three dimensional models
/ Tokamak devices
/ Wave propagation
2021
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Do you wish to request the book?
A new technique for tokamak edge density measurement based on microwave interferometer
by
Heuraux, Stéphane
, Khabibullin, Ildar
, Faugel, Helmut
, Usoltceva, Mariia
in
Data processing
/ Density measurement
/ Emitters
/ Genetic algorithms
/ Microwave interferometers
/ Propagation
/ Three dimensional models
/ Tokamak devices
/ Wave propagation
2021
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A new technique for tokamak edge density measurement based on microwave interferometer
Paper
A new technique for tokamak edge density measurement based on microwave interferometer
2021
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Overview
Novel approach for density measurements at the edge of a hot plasma device is presented - Microwave Interferometer in the Limiter Shadow (MILS). The diagnostic technique is based on measuring the change in phase and power of a microwave beam passing tangentially through the edge plasma. The wave propagation involves varying combinations of refraction, phase change and further interference of the beam fractions. A 3D model is constructed as a synthetic diagnostic for MILS and allows exploring this broad range of wave propagation regimes. The diagnostic parameters, such as its dimensions, frequency and configuration of the emitter and receiver antennas, should be balanced to meet the target range and location of measurements. It can be therefore adjusted for various conditions and here the diagnostic concept is evaluated on a chosen example, which was taken as suitable to cover densities of ~10^15-10^19 m^-3 on the edge of the ASDEX Upgrade tokamak. Based on a density profile with fixed radial shape, appropriate for experimental density approximation, a database of syntethic diagnostic measurements is built. The developed genetic algorithm genMILS of density profile reconstruction using the constructed database results in quite low numerical error. It is estimated as ~ 5-15 % for density >10^17 m^-3. Therefore, the new diagnostic technique (with dedicated data processing algorithm) has a large potential in practical applications in a wide range of densities, with low numerical error, so the total error and the density estimation accuracy is expected to be defined by experimental uncertainties.
Publisher
Cornell University Library, arXiv.org
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