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CAMELoT: Towards Large Language Models with Training-Free Consolidated Associative Memory
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Large Language Models (LLMs) struggle to handle long input sequences due to high memory and runtime costs. Memory-augmented models have emerged as a promising solution to this problem, but current methods are hindered by limited memory capacity and require costly re-training to integrate with a new LLM. In this work, we introduce an associative memory module which can be coupled to any pre-trained (frozen) attention-based LLM without re-training, enabling it to handle arbitrarily long input sequences. Unlike previous methods, our associative memory module consolidates representations of individual tokens into a non-parametric distribution model, dynamically managed by properly balancing the novelty and recency of the incoming data. By retrieving information from this consolidated associative memory, the base LLM can achieve significant (up to 29.7% on Arxiv) perplexity reduction in long-context modeling compared to other baselines evaluated on standard benchmarks. This architecture, which we call CAMELoT (Consolidated Associative Memory Enhanced Long Transformer), demonstrates superior performance even with a tiny context window of 128 tokens, and also enables improved in-context learning with a much larger set of demonstrations.
Forward citations
Cited by 3 Pith papers
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Position: Modular Memory is the Key to Continual Learning Agents
A modular memory combining in-context learning and in-weight learning is proposed as the key to continual learning agents.
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Extending LLM Context via Associative Recurrent Memory
ARMT-augmented 1B-class LLMs, trained with continued pretraining, synthetic long data, curriculum, and selective memory layers, keep in-window quality while generalizing past 32k–65k tokens at constant memory and ~30%...
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ATLAS: Learning to Optimally Memorize the Context at Test Time
A new recurrent memory module (Atlas) that optimizes its memory over a window of past tokens and uses Muon-style second-order updates, reporting gains over Transformers and existing linear RNNs on long-context tasks.
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