用铰接对象的分析本体模板发现概念知识

Jianhua Sun, Yuxuan Li, Longfei Xu, Jiude Wei, Liang Chai, Cewu Lu
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引用次数: 0

摘要

人类认知可以利用基本概念知识(如几何和运动学知识)来恰当地感知、理解新物体并与之交互。受这一发现的启发,我们希望通过在概念层面上的表现,赋予机器智能类似的能力,从而理解并与铰接物体,尤其是新类别的铰接物体进行交互,由于铰接物体的几何结构错综复杂,关节类型多种多样,这一点极具挑战性。为了实现这一目标,我们提出了分析本体模板(AOT),这是一种对通用概念本体进行参数化和可区分的程序描述。我们设计了由 AOT 驱动的基准方法 AOTNet,旨在为智能代理配备这些广义概念,然后使代理能够有效地发现有关衔接对象的结构和匹配性的概念知识。AOT 驱动的方法在三个关键方面产生了益处:i) 无需依赖任何真实的训练数据,即可实现对衔接对象的概念级理解;ii) 提供分析结构信息;iii) 引入丰富的负担能力信息,指出正确的交互方式。我们进行了详尽的实验,结果证明了我们的方法在理解衔接对象并与之交互方面的优越性。
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Discovering Conceptual Knowledge with Analytic Ontology Templates for Articulated Objects
Human cognition can leverage fundamental conceptual knowledge, like geometric and kinematic ones, to appropriately perceive, comprehend and interact with novel objects. Motivated by this finding, we aim to endow machine intelligence with an analogous capability through performing at the conceptual level, in order to understand and then interact with articulated objects, especially for those in novel categories, which is challenging due to the intricate geometric structures and diverse joint types of articulated objects. To achieve this goal, we propose Analytic Ontology Template (AOT), a parameterized and differentiable program description of generalized conceptual ontologies. A baseline approach called AOTNet driven by AOTs is designed accordingly to equip intelligent agents with these generalized concepts, and then empower the agents to effectively discover the conceptual knowledge on the structure and affordance of articulated objects. The AOT-driven approach yields benefits in three key perspectives: i) enabling concept-level understanding of articulated objects without relying on any real training data, ii) providing analytic structure information, and iii) introducing rich affordance information indicating proper ways of interaction. We conduct exhaustive experiments and the results demonstrate the superiority of our approach in understanding and then interacting with articulated objects.
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