A simple convolutional autoencoder reconstructs planetary images with up to 99% pixel loss, and the author argues its latent space could be a more efficient data product than raw imagery.
Using Pre-Training Can Improve Model Robustness and Uncertainty
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abstract
He et al. (2018) have called into question the utility of pre-training by showing that training from scratch can often yield similar performance to pre-training. We show that although pre-training may not improve performance on traditional classification metrics, it improves model robustness and uncertainty estimates. Through extensive experiments on adversarial examples, label corruption, class imbalance, out-of-distribution detection, and confidence calibration, we demonstrate large gains from pre-training and complementary effects with task-specific methods. We introduce adversarial pre-training and show approximately a 10% absolute improvement over the previous state-of-the-art in adversarial robustness. In some cases, using pre-training without task-specific methods also surpasses the state-of-the-art, highlighting the need for pre-training when evaluating future methods on robustness and uncertainty tasks.
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astro-ph.EP 1years
2025 1verdicts
CONDITIONAL 1representative citing papers
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The model is the message: Lightweight convolutional autoencoders applied to noisy imaging data for planetary science and astrobiology
A simple convolutional autoencoder reconstructs planetary images with up to 99% pixel loss, and the author argues its latent space could be a more efficient data product than raw imagery.