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Ultra-Sparse Memory Network
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It is widely acknowledged that the performance of Transformer models is logarithmically related to their number of parameters and computational complexity. While approaches like Mixture of Experts (MoE) decouple parameter count from computational complexity, they still face challenges in inference due to high memory access costs. This work introduces UltraMem, incorporating large-scale, ultra-sparse memory layer to address these limitations. Our approach significantly reduces inference latency while maintaining model performance. We also investigate the scaling laws of this new architecture, demonstrating that it not only exhibits favorable scaling properties but outperforms MoE. In experiments, the largest UltraMem we train has 20 million memory slots. The results show that our method achieves state-of-the-art inference speed and model performance within a given computational budget, paving the way for billions of slots or experts.
Forward citations
Cited by 3 Pith papers
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Train Smarter, Not Longer: Memorization-Guided Data Reuse for Efficient LLM Training
Properly spaced multi-epoch reuse of high-quality data, guided by a measured memorization window, continues to improve LLM performance far beyond the common four-epoch heuristic.
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UltraMemV2: Memory Networks Scaling to 120B Parameters with Superior Long-Context Learning
A redesigned memory-layer architecture with five engineering improvements reaches performance parity with 8-expert MoE at similar compute, with lower memory access and stronger long-context memorization.
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Unveiling Instruction-Specific Neurons & Experts: An Analytical Framework for LLM's Instruction-Following Capabilities
Activation-frequency analysis identifies sparse units in LLMs that respond to instructions; same-category instructions share more of these units than different-category ones, and fine-tuning measurably changes the sets.
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