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Learning to (Learn at Test Time)
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We reformulate the problem of supervised learning as learning to learn with two nested loops (i.e. learning problems). The inner loop learns on each individual instance with self-supervision before final prediction. The outer loop learns the self-supervised task used by the inner loop, such that its final prediction improves. Our inner loop turns out to be equivalent to linear attention when the inner-loop learner is only a linear model, and to self-attention when it is a kernel estimator. For practical comparison with linear or self-attention layers, we replace each of them in a transformer with an inner loop, so our outer loop is equivalent to training the architecture. When each inner-loop learner is a neural network, our approach vastly outperforms transformers with linear attention on ImageNet from 224 x 224 raw pixels in both accuracy and FLOPs, while (regular) transformers cannot run.
Forward citations
Cited by 3 Pith papers
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Learning to Remember, Learn, and Forget in Attention-Based Models
Palimpsa adds a per-slot importance/precision state to gated linear attention, letting a fixed-size memory forget stale information and protect important information, and recovers Mamba2 as a high-forgetting limit.
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UrbanMind: Urban Dynamics Prediction with Multifaceted Spatial-Temporal Large Language Models
UrbanMind combines a multifaceted masked autoencoder, semantic prompting, and test-time adaptation in an LLM to forecast traffic speed, inflow, and demand, reporting lower MAE and RMSE than baselines in three cities.
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SLOT: Sample-specific Language Model Optimization at Test-time
SLOT adapts an LLM to each prompt by optimizing a lightweight final-layer vector to minimize prompt loss, boosting benchmark reasoning accuracy by a few points.
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