An Effective Acoustic-Magnetic Metric Framework for Plasma Stabilization and Transport Barrier Formation in Tokamaks

Controlling micro-turbulence and plasma collapse in magnetic confinement fu- sion devices typically relies on high-power heating and massive confinement mag- netic fields (brute-force approach). As an independent extension of our foundational cosmological framework, this research translates the geometric principles into an ef- fective Analogue/Acoustic Metric concerning plasma dynamics and the formation of Internal Transport Barriers (ITB). By mapping the Shteim curvature density tensor to plasma-native quantities, we derive a dimensionless instability boundary termed the Braking Wall Parameter (KShteim). This parameter quantitatively pre- dicts ITB formation and provides a direct numerical threshold matching operational discharge data from the EAST tokamak.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-08
DOI
https://doi.org/10.5281/zenodo.24050191
Primary Topic
Magnetic confinement fusion research
Type
preprint
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preprint

An Effective Acoustic-Magnetic Metric Framework for Plasma Stabilization and Transport Barrier Formation in Tokamaks

Hassan Mhammed Shteim
Zenodo (CERN European Organization for Nuclear Research)
Magnetic confinement fusion research
preprint

An Effective Acoustic-Magnetic Metric Framework for Plasma Stabilization and Transport Barrier Formation in Tokamaks

Hassan Mhammed Shteim
preprint en

Abstract

Controlling micro-turbulence and plasma collapse in magnetic confinement fu- sion devices typically relies on high-power heating and massive confinement mag- netic fields (brute-force approach). As an independent extension of our foundational cosmological framework, this research translates the geometric principles into an ef- fective Analogue/Acoustic Metric concerning plasma dynamics and the formation of Internal Transport Barriers (ITB). By mapping the Shteim curvature density tensor to plasma-native quantities, we derive a dimensionless instability boundary termed the Braking Wall Parameter (KShteim). This parameter quantitatively pre- dicts ITB formation and provides a direct numerical threshold matching operational discharge data from the EAST tokamak.

Zenodo (CERN European Organization for Nuclear Research)
Magnetic confinement fusion research
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