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YANchor-4B introduces a novel recurrent architecture that achieves long-horizon reasoning with constant memory and linear time complexity, addressing key scalability bottlenecks in standard Transformer models. By utilizing an anchor-based retrieval mechanism, it significantly outperforms existing baselines on complex mathematical benchmarks like AIME while maintaining high throughput on H100 hardware. This advancement represents a critical step toward efficient, scalable models capable of handling extended context windows without quadratic computational costs.
YANchor-4B: Effective Long-Horizon Reasoning in O(N) Time with O(1) Memory
arXiv:2610.10118v1 Announce Type: cross Abstract: Long-horizon reasoning demands access to earlier information at a manageable generation cost. Full-history attention incurs growing storage and computation, while recurrent compression can lose precise details. Therefore, we present YANchor-4B, a general-purpose recurrent model that preserves crucial memory as ANchors for retrieval during subsequent reasoning. Beyond $O(N)$-time generation and $O(1)$ memory, YANchor enables effective long-horizon reasoning through its multidimensional memory mechanism. For example, on challenging math problems, it achieves 82.93% mean pass@1 on AIME 2024--2026 and 63.64% on HMMT, substantially outperforming linear-time, constant-state counterparts, including larger models. It also delivers several-fold higher batched long-generation throughput than Transformer and hybrid baselines on H100. Furthermore, evaluations across dozens of benchmarks demonstrate YANchor's superiority in general-purpose capabilities.
Abstract:Long-horizon reasoning demands access to earlier information at a manageable generation cost. Full-history attention incurs growing storage and computation, while recurrent compression can lose precise details. Therefore, we present YANchor-4B, a general-purpose recurrent model that preserves crucial memory as ANchors for retrieval during subsequent reasoning. Beyond $O(N)$-time generation and $O(1)$ memory, YANchor enables effective long-horizon reasoning through its multidimensional memory mechanism. For example, on challenging math problems, it achieves 82.93% mean pass@1 on AIME 2024--2026 and 63.64% on HMMT, substantially outperforming linear-time, constant-state counterparts, including larger models. It also delivers several-fold higher batched long-generation throughput than Transformer and hybrid baselines on H100. Furthermore, evaluations across dozens of benchmarks demonstrate YANchor's superiority in general-purpose capabilities.
24 pages, 8 figures. Code: this https URL ; Model: this https URL
Machine Learning (cs.LG); Computation and Language (cs.CL)
arXiv:2610.10118 [cs.LG]
(or arXiv:2610.10118v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2610.10118 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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