具身认知
仿人机器人
人机交互
机器人
计算机科学
认知机器人学
认知建筑学
认知
功能(生物学)
人类智力
人机交互
运动(物理)
控制(管理)
手势
人工智能
建筑
机器人控制
运动控制
信息物理系统
社交机器人
模拟
组分(热力学)
机器人学
作者
Carlotta Sartore,Mohamed Elobaid,Lorenzo Rapetti,Giulio Romualdi,Stefano Dafarra,Nicola A. Piga,Ines Sorrentino,Paolo Maria Viceconte,Silvio Traversaro,Ugo Pattacini,Luca Fiorio,Francesco Draicchio,Giovanna Tranfo,Lorenzo Natale,Marco Maggiali,Daniele Pucci
标识
DOI:10.1038/s42256-026-01272-2
摘要
Abstract Collaboration is an inherent aspect of human behavior, enabling tasks that are otherwise impossible for individuals alone. This collaborative ability stems from the capacity of individuals to coordinate their actions by leveraging internal representations of their companions—a concept known as shared intelligence. Additionally, humans are characterized by physical bodies and cognitive abilities that are optimized in response to their environment, a phenomenon referred to as embodied cognition. In this paper, we propose an architecture that combines shared intelligence and embodied cognition to enable robots to physically collaborate with humans, where robot hardware and control are optimized for human metrics, using representations of the human body and motion intelligence. By doing so, our ultimate aim is to design humanoid robots that possess a degree of shared embodied intelligence. More specifically, the proposed architecture optimizes the robot’s hardware and physical intelligence parameters with respect to human ergonomic metrics. We achieve this by deriving models of human-robot interaction parameterized with respect to the robot’s hardware configurations and by incorporating human models into the robot’s physical intelligence. As a tangible outcome of the proposed architecture, we present the humanoid robot ergoCub, whose body and physical intelligence have been optimized for performing collaborative actions with humans. Our approach yields concrete results in designing humanoid robots that prioritize human ergonomics at both the hardware and physical intelligence levels. The potential applications of this approach span diverse fields, including industrial and assistive robotics.
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