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Autori principali: Chen, Charles, Yu, Qiming, Gu, Yuhang, Huang, Zhuoye, Li, Hanjing, Liu, Hongyu, Liu, Simin, Liu, Jinhao, Peng, Dengyun, Wang, Jiangyi, Yan, Zheng, Meng, Fanqing, Qin, Ethan, Che, Carl, Hu, Mengkang
Natura: Preprint
Pubblicazione: 2026
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Accesso online:https://arxiv.org/abs/2605.16508
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author Chen, Charles
Yu, Qiming
Gu, Yuhang
Huang, Zhuoye
Li, Hanjing
Liu, Hongyu
Liu, Simin
Liu, Jinhao
Peng, Dengyun
Wang, Jiangyi
Yan, Zheng
Meng, Fanqing
Qin, Ethan
Che, Carl
Hu, Mengkang
author_facet Chen, Charles
Yu, Qiming
Gu, Yuhang
Huang, Zhuoye
Li, Hanjing
Liu, Hongyu
Liu, Simin
Liu, Jinhao
Peng, Dengyun
Wang, Jiangyi
Yan, Zheng
Meng, Fanqing
Qin, Ethan
Che, Carl
Hu, Mengkang
contents As agent systems scale, skills accumulate into large reusable libraries, yet their scaling laws remain poorly understood. Across 15 frontier LLMs, 1,141 real-world skills, and over 3M routing or execution decisions, we identify two coupled laws. Routing law: single-step routing accuracy decays logarithmically with library size ($R^2{>}0.97$ for all models), with errors progressing from local skill competition to cross-family drift and capture by overly general "black-hole skills". Execution law: before state realization, joint routing is approximately multiplicative, whereas correct execution can improve difficult downstream decisions by about $4{\times}$. A single parameter, the routing logarithmic decay slope $b$, couples the two laws: routing-side fits predict execution-side rescue across models, showing that the same library property controls both pre-execution collapse and downstream recoverability. The laws are actionable: law-guided optimization raises held-out routing accuracy from 71.3% to 91.7%, reduces hijack from 22.4% to 4.1%, and transfers directionally to downstream ClawBench and ClawMark execution settings, improving mean pass rate from 49.3% to 61.6% on ClawBench and from 28.4% to 34.5% on ClawMark. These results show that agent performance depends not only on model capability, but also on the structure, granularity, and exposure policy of the skill library.
format Preprint
id arxiv_https___arxiv_org_abs_2605_16508
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle The Scaling Laws of Skills in LLM Agent Systems
Chen, Charles
Yu, Qiming
Gu, Yuhang
Huang, Zhuoye
Li, Hanjing
Liu, Hongyu
Liu, Simin
Liu, Jinhao
Peng, Dengyun
Wang, Jiangyi
Yan, Zheng
Meng, Fanqing
Qin, Ethan
Che, Carl
Hu, Mengkang
Computation and Language
Artificial Intelligence
As agent systems scale, skills accumulate into large reusable libraries, yet their scaling laws remain poorly understood. Across 15 frontier LLMs, 1,141 real-world skills, and over 3M routing or execution decisions, we identify two coupled laws. Routing law: single-step routing accuracy decays logarithmically with library size ($R^2{>}0.97$ for all models), with errors progressing from local skill competition to cross-family drift and capture by overly general "black-hole skills". Execution law: before state realization, joint routing is approximately multiplicative, whereas correct execution can improve difficult downstream decisions by about $4{\times}$. A single parameter, the routing logarithmic decay slope $b$, couples the two laws: routing-side fits predict execution-side rescue across models, showing that the same library property controls both pre-execution collapse and downstream recoverability. The laws are actionable: law-guided optimization raises held-out routing accuracy from 71.3% to 91.7%, reduces hijack from 22.4% to 4.1%, and transfers directionally to downstream ClawBench and ClawMark execution settings, improving mean pass rate from 49.3% to 61.6% on ClawBench and from 28.4% to 34.5% on ClawMark. These results show that agent performance depends not only on model capability, but also on the structure, granularity, and exposure policy of the skill library.
title The Scaling Laws of Skills in LLM Agent Systems
topic Computation and Language
Artificial Intelligence
url https://arxiv.org/abs/2605.16508