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高效学习机制设计与复合性问题的方法

原文标题 · Efficient Learning of Mechanism Designs and Compositionality

作者:João Pedro Gandarela, Thiago Rios, Stefan Menzel | 要理解机械装置的运作机制,就需要了解各个部件是如何共同制约运动的。我们研究了使用可重复使用的约束组件是否能提升有限数据下的预测能力。Assur-KB通过不可约模块、边界接口以及解决依赖关系来表示平面机械装置的结构,同时保留原始几何形状。我们的理论研究结果揭示了这种转换方式的有效性。

来源:arXiv cs.AI/CL/LG · arxiv.org

正文为英文,可一键机器翻译(仅首次需要等待)

Computer Science > Artificial Intelligence

Title: Efficient Learning of Mechanism Designs and Compositionality

Abstract: Learning mechanism behaviour requires a representation of how connected parts jointly constrain motion. We study whether exposing reusable constraint subassemblies improves prediction from limited data. Assur-KB represents planar mechanisms through irreducible modules, boundary interfaces, and solve dependencies while retaining source geometry. Our theoretical results characterize transfer through module interfaces and establish physical limits arising from missing interface information and accumulated sensitivity. To test the representation claim directly, the experimental design compares matched mechanism-curve pairs across training budgets within the same multilayer-perceptron family. This controlled comparison establishes the utility of the complete representation in the evaluated learning setting. Assur-derived features provide a geometric-mean $1.8\times$ advantage in sample efficiency over flattened adjacency and position inputs across budgets of 50-10,000 mechanisms. Separate experiments establish invariance under tested joint relabelings, higher valid-generation rates under dyadic composition, and a coarser structural index over 10.02 million mechanisms. In summary, the theory and experiments identify how physical constraint structure supports limited-data prediction and which interface conditions govern compositional reuse.

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