Summary report of the 4th IAEA Technical Meeting on Fusion Data Processing, Validation and Analysis (FDPVA)
暂无分享,去创建一个
J. Vega | D. Mazon | A. Dinklage | J. Stillerman | S. Pinches | A. Murari | G. Verdoolaege | S. M. Gonzalez de Vicente | M. Xu | P. Rodriguez-Fernandez | M. Churchill | R. Fischer
[1] V. Moncada,et al. Deep learning and image processing for the automated analysis of thermal events on the first wall and divertor of fusion reactors , 2022, Plasma Physics and Controlled Fusion.
[2] M. Endler,et al. Anisotropic diffusion as a proxy model for the estimation of heat-loads on plasma-facing components , 2022, Plasma Physics and Controlled Fusion.
[3] Hao Wu,et al. Integrated Data Analysis on the Electron Temperature profile of HL-2A with Bayesian probability inference Method , 2022, Plasma Science and Technology.
[4] S. Murakami,et al. ASTI: Data assimilation system for particle and heat transport in toroidal plasmas , 2022, Comput. Phys. Commun..
[5] M. Hron,et al. Tomotok: python package for tomography of tokamak plasma radiation , 2021, Journal of Instrumentation.
[6] S. Brunton,et al. Alfvén eigenmode classification based on ECE diagnostics at DIII-D using deep recurrent neural networks , 2021, Nuclear Fusion.
[7] A. Polevoi,et al. Simulation of heating and current drive sources for scenarios of the ITER research plan , 2021, Nuclear Fusion.
[8] Shuo Wang,et al. In-depth research on the interpretable disruption predictor in HL-2A , 2021, Nuclear Fusion.
[9] Jet Contributors,et al. PHAD: a phase-oriented disruption prediction strategy for avoidance, prevention, and mitigation in JET , 2021, Nuclear Fusion.
[10] Yuanlai Xie,et al. Breakdown prediction of ion source at EAST-NBI using neural network , 2021, Plasma Physics and Controlled Fusion.
[11] J. Rice,et al. Experimental inference of neutral and impurity transport in Alcator C-Mod using high-resolution x-ray and ultra-violet spectra , 2021, Nuclear Fusion.
[12] Riccardo Rossi,et al. Stacking of predictors for the automatic classification of disruption types to optimize the control logic , 2020 .
[13] A. Murari,et al. Investigating the Physics of Tokamak Global Stability with Interpretable Machine Learning Tools , 2020 .
[14] M. Yokoyama,et al. Progress of statistical modelling of thermal transport of fusion plasmas , 2020, Nuclear Fusion.
[15] J. Juul Rasmussen,et al. ECRad: An electron cyclotron radiation transport solver for advanced data analysis in thermal and non-thermal fusion plasmas , 2020, Comput. Phys. Commun..
[16] Michela Gelfusa,et al. Image-Based Methods to Investigate Synchronization between Time Series Relevant for Plasma Fusion Diagnostics , 2020, Entropy.
[17] Sebastián Dormido-Canto,et al. Automatic recognition of plasma relevant events: Implications for ITER , 2020, Fusion Engineering and Design.
[18] Y. Marzouk,et al. Inference of experimental radial impurity transport on Alcator C-Mod: Bayesian parameter estimation and model selection , 2020, Nuclear Fusion.
[19] Pasqualino Gaudio,et al. On the transfer of adaptive predictors between different devices for both mitigation and prevention of disruptions , 2020, Nuclear Fusion.
[20] Gilles Louppe,et al. The frontier of simulation-based inference , 2019, Proceedings of the National Academy of Sciences.
[21] Sebastián Dormido-Canto,et al. A linear equation based on signal increments to predict disruptive behaviours and the time to disruption on JET , 2019, Nuclear Fusion.
[22] A. Murari,et al. Adaptive learning for disruption prediction in non-stationary conditions , 2019, Nuclear Fusion.
[23] S. Voskoboynikov,et al. Speed-up of SOLPS-ITER code for tokamak edge modeling , 2018, Nuclear Fusion.
[24] P. Stangeby. Basic physical processes and reduced models for plasma detachment , 2018 .
[25] J. Vega,et al. Adaptive predictors based on probabilistic SVM for real time disruption mitigation on JET , 2018 .
[26] Emmanuele Peluso,et al. On efficiency and interpretation of sawteeth pacing with on-axis ICRH modulation in JET , 2017 .
[27] Michela Gelfusa,et al. Detection of Causal Relations in Time Series Affected by Noise in Tokamaks Using Geodesic Distance on Gaussian Manifolds , 2017, Entropy.
[28] Michela Gelfusa,et al. How to assess the efficiency of synchronization experiments in tokamaks , 2016 .
[29] S. Brunton,et al. Discovering governing equations from data by sparse identification of nonlinear dynamical systems , 2015, Proceedings of the National Academy of Sciences.
[30] S. Voskoboynikov,et al. Presentation of the new SOLPS-ITER code package for tokamak plasma edge modelling , 2016 .
[31] B. P. Duval,et al. Design and first applications of the ITER integrated modelling & analysis suite , 2015 .
[32] Martine Baelmans,et al. The new SOLPS-ITER code package , 2015 .
[33] J. Vega,et al. Adaptive high learning rate probabilistic disruption predictors from scratch for the next generation of tokamaks , 2014 .
[34] G. Corrigan,et al. JINTRAC: A System of Codes for Integrated Simulation of Tokamak Scenarios , 2014 .
[35] Jet Efda Contributors,et al. Development of an efficient real-time disruption predictor from scratch on JET and implications for ITER , 2013 .
[36] Michela Gelfusa,et al. Clustering based on the geodesic distance on Gaussian manifolds for the automatic classification of disruptions , 2013 .
[37] C. Fuchs,et al. Integrated Data Analysis of Profile Diagnostics at ASDEX Upgrade , 2010 .
[38] Luigi Fortuna,et al. Prototype of an adaptive disruption predictor for JET based on fuzzy logic and regression trees , 2008 .
[39] A. Murari,et al. The JET programme in support of ITER , 2007 .
[40] S. Pinches,et al. Kinetic properties of shear Alfven eigenmodes in tokamak plasmas , 2005 .
[41] J. P. Goedbloed,et al. Isoparametric Bicubic Hermite Elements for Solution of the Grad-Shafranov Equation , 1991 .
[42] H. T. Kim,et al. An overview of JET results , 1989 .