Is That a Chair? Imagining Affordances Using Simulations of an Articulated Human Body
Hongtao Wu, Deven Misra, Gregory S. Chirikjian
- 发表年份
- 2019
- 访问权限
- 开放获取
摘要
For robots to exhibit a high level of intelligence in the real world, they must be able to assess objects for which they have no prior knowledge. Therefore, it is crucial for robots to perceive object affordances by reasoning about physical interactions with the object. In this paper, we propose a novel method to provide robots with an ability to imagine object affordances using physical simulations. The class of chair is chosen here as an initial category of objects to illustrate a more general paradigm. In our method, the robot "imagines" the affordance of an arbitrarily oriented object as a chair by simulating a physical sitting interaction between an articulated human body and the object. This object affordance reasoning is used as a cue for object classification (chair vs non-chair). Moreover, if an object is classified as a chair, the affordance reasoning can also predict the upright pose of the object which allows the sitting interaction to take place. We call this type of poses the functional pose. We demonstrate our method in chair classification on synthetic 3D CAD models. Although our method uses only 30 models for training, it outperforms appearance-based deep learning methods, which require a large amount of training data, when the upright orientation is not assumed to be known a priori. In addition, we showcase that the functional pose predictions of our method align well with human judgments on both synthetic models and real objects scanned by a depth camera.
关键词
相关论文
面向学习与规划的并行可微可达性:具有认证神经动力学与控制器的系统
Keyi Shen, Glen Chou
2026
人工智能增强的智能焊接岛:基础模型革新制造业
Xiwei Wu, Wei Wu, Qiqi Chen 等 9 位作者
Robotics and Computer-Integrated Manufacturing · 2026
基于深度强化学习和动态图神经网络的多任务机器人调度代理
Hedi Boukamcha, Anas Neumann, Monia Rekik 等 6 位作者
Robotics and Computer-Integrated Manufacturing · 2026
基于微调与AAS增强检索的LLM驱动自动化DFA评估
Jiaxin Liu, Xiaofeng Zhou, Suyang Yu 等 8 位作者
Robotics and Computer-Integrated Manufacturing · 2026