most citedMeasuring the Electron Temperature and Identifying Plasma Detachment using Machine Learning and Spectroscopy

38 citations · 63 across the 5 of their papers we have counts for

collaborators

5 papers

physics.plasm-ph2022★ 12 cited

Deep or Not Deep: Supervised Learning Approaches to Modeling the Pedestal Density

Adam Kit, Aaro Jaervinen, Lorenzo Frassinetti +2

Pedestal is the key to conventional high performance plasma scenarios in tokamaks. However, high fidelity simulations of pedestal plasmas are extremely challenging due to the multi…

physics.plasm-ph2022★ 7 cited

Parametric scaling of power exhaust in EU-DEMO alternative divertor simulations

A. E. Järvinen, L. Aho-Mantila, T. Lunt +3

Investigations of parametric scaling of power exhaust in the alternative divertor configuration (ADC) SOLPS-ITER simulation database of the EU-DEMO are conducted and compared to pr…

physics.plasm-ph2022

Bayesian approach for validation of runaway electron simulations

Aaro Järvinen, Tünde Fülöp, Eero Hirvijoki +3

Plasma-terminating disruptions in future fusion reactors may result in conversion of the initial current to a relativistic runaway electron beam. Validated predictive tools are req…

physics.plasm-ph2022★ 6 cited

Developing Deep Learning Algorithms for Inferring Upstream Separatrix Density at JET

A. Kit, A. Jaervinen, S. Wiesen +2

Predictive and real-time inference capability for the upstream separatrix electron density, , is essential for design and control of core-edge integrated plasma sc…

physics.plasm-ph2020★ 38 cited

Measuring the Electron Temperature and Identifying Plasma Detachment using Machine Learning and Spectroscopy

C. M. Samuell, A. G. Mclean, C. A. Johnson +2

A machine learning approach has been implemented to measure the electron temperature directly from the emission spectra of a tokamak plasma. This approach utilized a neural network…