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Neural networks for estimation of divertor conditions in DIII-D using C III imaging

M.D. Boyer, F. Scotti, V. Gajaraj2024年10月Nuclear FusionIF 3出版社

Deep learning approaches have been applied to images of C III emission in the lower divertor of DIII-D to develop models for estimating the level of detachment and magnetic configuration (X-point location and strike point radial location). The poloidal distance from the target to the C III emission front is used to represent the level of detachment. The models perform well on a test dataset not used in training, achieving F1 scores as high as 0.99 for detachment state classification and root mean squared error (RMSE) as low as 2 cm for front location regression. Predictions for shots with intermittent reattachment are studied, with class activation mapping used to aid in interpretation of the model predictions. Based on the success of these models, a third model was trained to predict the X-point location and strike point radial position from C III images. Though the dataset covers only a small range of possible magnetic configurations, the model shows promising results, achieving RMSE around 1 cm for the test data.

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diii-d高精度(タイトル一致)

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DivertorDIII-DNeural network

AIによる論文要約

DIII-Dのダイバータ条件推定のためのニューラルネットワーク
JAこの論文は、プラズマ物理、核融合、ダイバータ制御に興味のある研究者や学生に役立つでしょう。特に、ディープラーニングを用いたプラズマ診断の可能性を示しており、関連分野の研究者にとって有益な知見を提供します。#PlasmaPhysics #FusionEnergy #DivertorControl #DeepLearning #PlasmaCharacterization
LLM向け: {'Title': 'Neural networks for estimation of divertor conditions in DIII-D using…

この論文では、DIII-Dの下部ダイバータのC III放射画像を使ってディタッチメントレベルと磁気構造を推定するディープラーニングモデルを開発しました。モデルは高い精度を示し、特に断続的な再付着の場合でも良好な性能を発揮しました。これにより、C III画像からダイバータの状態を推定できるようになりました。

Neural networks for estimating divertor conditions in DIII-D using C III imaging
ENThis paper will be of interest to fusion researchers and engineers working on divertor monitoring and control, as well as those interested in the application of deep learning techniques to fusion plasma diagnostics.#FusionPlasmaImaging #DivertorDetachment #MagneticConfiguration #DeepLearning
LLM向け: {'Title': 'Neural networks for estimating divertor conditions in DIII-D using C …

This paper demonstrates how deep learning models can accurately predict the level of detachment and magnetic configuration in the DIII-D tokamak using C III emission images. The models achieve high performance, even for shots with intermittent reattachment, and can be used to estimate the X-point location and strike point position.

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