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This paper introduces the Global State Model (GSM), a novel architecture designed to optimize long-context handling in language models by consolidating historical information into a fixed-size shared state during the encoding phase. By decoupling cache growth from history length, GSM significantly reduces computational overhead and KV cache usage without sacrificing performance or depth. The approach represents a meaningful architectural shift for scaling efficient large language models to extended contexts.
GSM: Efficient Language Modeling with Shared Global State
arXiv:2609.33465v1 Announce Type: new Abstract: Efficient language models must reduce not only the cost of individual accesses to past context but also the overhead of repeatedly selecting and processing historical information across layers. We introduce the Global State Model (GSM), a causal encoder--decoder architecture that concentrates the selection and aggregation of long-range information in the encoding stage. Through multiple stages of history retrieval, the encoder progressively incorporates long-range information into representations at recent positions, forming a shared state with a fixed window size. Each decoder layer accesses this same state using queries updated from the preceding layer, preserving computational depth while avoiding repeated construction of historical key--value (KV) representations and long-range indexing. As a result, neither the decoder's per-step attention cost nor its KV cache size grows with the history length. Experiments show that GSM improves computational efficiency and reduces cache overhead while maintaining model performance and the ability to use long-range information, offering a shared-state architecture for efficient language modeling.
Abstract:Efficient language models must reduce not only the cost of individual accesses to past context but also the overhead of repeatedly selecting and processing historical information across layers. We introduce the Global State Model (GSM), a causal encoder--decoder architecture that concentrates the selection and aggregation of long-range information in the encoding stage. Through multiple stages of history retrieval, the encoder progressively incorporates long-range information into representations at recent positions, forming a shared state with a fixed window size. Each decoder layer accesses this same state using queries updated from the preceding layer, preserving computational depth while avoiding repeated construction of historical key--value (KV) representations and long-range indexing. As a result, neither the decoder's per-step attention cost nor its KV cache size grows with the history length. Experiments show that GSM improves computational efficiency and reduces cache overhead while maintaining model performance and the ability to use long-range information, offering a shared-state architecture for efficient language modeling.
Computation and Language (cs.CL)
arXiv:2609.33465 [cs.CL]
(or arXiv:2609.33465v1 [cs.CL] for this version)
https://doi.org/10.48550/arXiv.2609.33465 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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