A dual-process vision system improves segmentation accuracy by spending more inference-time compute, using a fast predictor and a slow self-play refiner, reporting gains on cancer localisation with only 8-16 labels.
Towards Sustainable Self-supervised Learning
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abstract
Although increasingly training-expensive, most self-supervised learning (SSL) models have repeatedly been trained from scratch but not fully utilized, since only a few SOTAs are employed for downstream tasks. In this work, we explore a sustainable SSL framework with two major challenges: i) learning a stronger new SSL model based on the existing pretrained SSL model, also called as "base" model, in a cost-friendly manner, ii) allowing the training of the new model to be compatible with various base models. We propose a Target-Enhanced Conditional (TEC) scheme which introduces two components to the existing mask-reconstruction based SSL. Firstly, we propose patch-relation enhanced targets which enhances the target given by base model and encourages the new model to learn semantic-relation knowledge from the base model by using incomplete inputs. This hardening and target-enhancing help the new model surpass the base model, since they enforce additional patch relation modeling to handle incomplete input. Secondly, we introduce a conditional adapter that adaptively adjusts new model prediction to align with the target of different base models. Extensive experimental results show that our TEC scheme can accelerate the learning speed, and also improve SOTA SSL base models, e.g., MAE and iBOT, taking an explorative step towards sustainable SSL.
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Reasoning in machine vision by learning fast and slow thinking
A dual-process vision system improves segmentation accuracy by spending more inference-time compute, using a fast predictor and a slow self-play refiner, reporting gains on cancer localisation with only 8-16 labels.