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arXiv 2602.07075physics.chem-phcs.AIcs.CLcs.LG

LatentChem: 从文本思维链到化学推理中的潜在思考

LatentChem: From Textual CoT to Latent Thinking in Chemical Reasoning

University of Science and Technology of China(中国科学技术大学)
Xinwu Ye, Yicheng Mao, Yuxuan Liao, Jia Zhang, Yimeng Liu, Li Hao, Fang Wu, Zhiwei Li, Zehong Wang, Zhiyuan Liu, Zhenfei Yin, Li Yuan, Philip Torr, Huan Sun, xi… 展开作者

Xinwu Ye, Yicheng Mao, Yuxuan Liao, Jia Zhang, Yimeng Liu, Li Hao, Fang Wu, Zhiwei Li, Zehong Wang, Zhiyuan Liu, Zhenfei Yin, Li Yuan, Philip Torr, Huan Sun, xiangxiang Zeng, Mengdi Wang, Le Cong, Shenghua Gao, Xiangru Tang

AI总结:

针对化学大语言模型依赖显式思维链导致的模态不匹配问题,提出LatentChem推理接口,通过连续思维向量和动态感知解耦化学逻辑与语言生成,在ChemCoTBench上以59.88%非平局胜率超越强CoT基线,并实现平均10.84倍推理步骤开销降低(5.96倍实际加速)。

摘要:

当前的化学大语言模型主要依赖显式的思维链来解决复杂推理问题。然而,将非语言的隐性化学逻辑强制转化为离散的自然语言,造成了根本性的“模态不匹配”,为推理带来了人为瓶颈。我们提出了LatentChem,一种将化学逻辑与语言生成解耦的推理接口,使模型能够通过连续思维向量和动态感知来处理信息。我们的研究揭示了一个关键涌现行为:自发内化,这里定义为在仅结果优化下的自我选择。当为任务成功进行优化时,模型放弃冗长的文本推导,转而采用隐式的潜在计算,这表明模型将连续流形视为化学逻辑更自然的载体。这一范式转变也被证明是一种更优的计算策略:在严格的ChemCoTBench基准上,LatentChem对强CoT基线取得了59.88%的非平局胜率,同时在所有评估基准上实现了平均10.84倍的推理步骤开销降低(5.96倍实际加速)。我们的结果提供了经验证据,表明化学推理更自然、更有效地实现为连续潜在动力学,而非离散的语言轨迹。

英文摘要:

Current chemical large language models (LLMs) predominantly rely on explicit Chain-of-Thought (CoT) to solve complex reasoning problems. However, forcing nonverbal tacit chemical logic into discrete natural language imposes a fundamental ``modality mismatch,'' creating an artificial bottleneck for reasoning. We introduce LatentChem, a reasoning interface that decouples chemical logic from linguistic generation, enabling the model to process information via continuous thought vectors and dynamic perception. Our investigation reveals a pivotal emergent behavior: spontaneous internalization, defined here as self-selected under outcome-only optimization. When optimized for task success, the model abandons verbose textual derivations in favor of implicit latent computation, suggesting that it identifies the continuous manifold as a more native substrate for chemical logic. This paradigm shift also proves to be a superior computational strategy: LatentChem achieves a 59.88\% non-tie win rate against the strong CoT baseline on the rigorous ChemCoTBench, while delivering a broad 10.84$\times$ average reduction in reasoning step overhead (5.96$\times$ wall-clock speedup) across all evaluated benchmarks. Our results provide empirical evidence that chemical reasoning is more naturally and effectively realized as continuous latent dynamics rather than discretized linguistic trajectories.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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