Coresets are More Than Replay: A Data-Centric View of Continual Learning
Shows that coreset selection can be applied to the whole training set, not just a small replay buffer, substantially cutting the amount of data needed for continual learning.
Shows that coreset selection can be applied to the whole training set, not just a small replay buffer, substantially cutting the amount of data needed for continual learning.
Keeps a pre-trained backbone frozen and adds small sparse task-specific adapters, giving a lightweight yet strong baseline for continual learning with foundation models.
Introduces TOSCA, a sparse adapter-calibrator module on the classification token that lets foundation models keep learning new tasks without losing prior knowledge.
Explores dynamic sparse training algorithms as an efficient way to update models continually without full retraining.
Uses Bayesian optimization to automatically tune each new task's hyperparameters, improving accuracy and reducing forgetting in class-incremental learning.
Applies automated machine learning to discover new hole-selective layer materials for perovskite solar cells.
Uses machine learning models to predict perovskite bandgap and solar cell performance from materials data.
Applies machine learning to evaluate metal-oxide polymer composites as charge-selective layers in perovskite solar cells.
Combines SMOTE-NC oversampling and gradient boosting imputation with a random forest classifier to predict COVID-19 severity from blood sample data.
Compares several machine learning models for predicting the performance of single- and dual-type electrochromic devices.