3260 papers • 126 benchmarks • 313 datasets
Solar flare prediction in heliophysics
(Image credit: Papersgraph)
These leaderboards are used to track progress in solar-flare-prediction
No benchmarks available.
Use these libraries to find solar-flare-prediction models and implementations
No datasets available.
No subtasks available.
A weakly-labeled dataset of spectral data from NASA’s IRIS satellite is leverage for the prediction of solar flares using the Multiple Instance Learning (MIL) paradigm and k-means clustering is used to extract groups of spectral profiles that appear relevant forflare prediction.
This paper presents a machine-learning-as-a-service (MLaaS) framework, called DeepSun, for predicting solar flares on the Web based on HMI's data products, and is the first MLaaS tool capable of predictingSolar flares through the Internet.
A set of new heuristic approaches to train and deploy an operational solar flare prediction system for ≥M1.0-class flares with two prediction modes: full-disk and active region-based using deep learning models.
This work takes advantage of the inherent interpretability of shapelets to develop a model agnostic multivariate time series (MTS) counterfactual explanation algorithm that is superior in terms of proximity, sparsity, and plausibility.
It is demonstrated that the full disk model can tangibly locate and predict near-limb solar flares, which is a critical feature for operational flare forecasting, and the evaluation suggests that these models can learn conspicuous features corresponding to active regions from full-disk magnetograms.
An attention-based deep learning model is developed as an improvement over the standard convolutional neural network pipeline to perform full-disk binary flare predictions for the occurrence of full-disk line-of-sight M1.0-class flares within the next 24 hours.
A long short-term memory (LSTM) network for predicting whether an active region (AR) would produce a ϒ-class flare within the next 24 hr is presented, the first time that LSTMs have been used for solar-flare prediction.
It is revealed that full-disk prediction of solar flares aligns with characteristics related to active regions (ARs) even at near-limb areas, which is a novel and critical capability with significant implications for operational forecasting.
This study progresses solar flare prediction research by presenting a full-disk deep-learning model to forecast $\geq\mathrm{M}$-class solar flares and evaluating its efficacy on both central (within ±70°) and near-limb beyond ±70°) events, showcasing qualitative assessment of post hoc explanations for the model’s predictions, and providing empirical findings fro human-centered quantitative assessments of these explanations. Our model is trained using hourly full-disk line-of-sight magnetogram images to predict $\geq{\mathrm{M}}$-class solar flares within the subsequent 24-hour prediction window. Additionally, we apply the Guided Gradient-weighted Class Activation Mapping (Guided Grad-CAM) attribution method to interpret our model’s predictions and evaluate the explanations. Our analysis unveils that full-disk solar flare predictions correspond with active region characteristics. The following points represent the most important findings of our study: ❨1❩ Our deep learning models achieved an average true skill statistic (TSS) of $\sim 0.51$ and a Heidke skill score (HSS) of $\sim.38$, exhibiting skill to predict solar flares where for central locations the average recall is $\sim 0.75$ (recall values for X- and M-class are 0.95 and 0.73 respectively) and for the near-limb flares the average recall is $\sim 0.52$ (recall values for X- and M- class are 0.74 and 0.50 respectively); ❨2❩ qualitative examination of the model’s explanations reveals that it discerns and leverages features linked to active regions in both central and near-limb locations within full-disk magnetograms to produce respective predictions. In essence, our models grasp the shape and texture-based properties of flaring active regions, even in proximity to limb areas—a novel and essential capability with considerable significance for operational forecasting systems.
Adding a benchmark result helps the community track progress.