NRI: FND: Foundations for Physical Co-Manipulation with Mixed Teams of Humans and Soft Robots

NRI：FND：人类和软机器人混合团队物理协同操作的基础

• 批准号: 2024670
• 负责人: Rebecca Kramer-Bottiglio
• 金额: $ 3.19万
• 依托单位: Yale University
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 2021
• 资助国家: 美国
• 起止时间: 2021-01-01 至 2023-12-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=2024670&HistoricalAwards=false
• 关键词: NRI; FND; Foundations; Physical; Co

The goal of this National Robotics Initiative (NRI) project is to enable mixed teams of humans and robots to work together to accomplish physically demanding object manipulation tasks in complex environments. For this project, soft robots are exclusively considered, because traditional robots are too heavy and potentially dangerous to work closely with people. Humans can effectively work together to move a bulky, heavy object because they are able to use their understanding of group goals and individual capabilities to interpret physical cues and quickly infer each other's intention. Thus, the first step in extending this ability to robots is to understand how groups of people recognize and react to pushing and pulling from other team members. The project also emphasizes the necessity of managing uncertainty when working with soft robots and with people -- soft robots because they deform significantly under typical task loads, and people because their movements may be difficult for robots to predict. Potential applications of the research can range from expediting logistics and material handling, to improving human safety in dangerous and/or hard-to-reach environments such as mining, oil rigs, logging, and search and rescue. To this end, a collaboration with a local search and rescue team will solicit feedback on human-robot co-manipulation throughout the project. Underrepresented undergraduate students will be trained with a STEM education tool leveraging soft robotics, and the students will then work to disseminate this training to local K-12 classrooms. Co-manipulation can be defined as the actions taken and the signals sent by many collaborating agents while moving a single large object. This research will enable co-manipulation between humans and robots, and is focused on the following three main thrusts: 1) modeling, controlling, and planning effective stiffness trajectories for soft robots to deal with task uncertainty, 2) quantifying and modeling human intention and consensus during manipulation, and 3) developing algorithms that incorporate intention, consensus, and uncertainty to execute co-manipulation tasks. Building on prior work on model predictive control algorithms for large-degree-of-freedom soft robots, stiffness trajectories will be generated as part of the soft robot control based on estimates of task uncertainty. Trials with human collaborators moving large objects in real life and in virtual reality will allow the development of algorithms that predict consensus and motion of the group. Finally, given a reasonable estimate of the short-term motion goal of a group, the resulting algorithms will also generate robot motion and stiffness trajectories to help a group reach consensus more efficiently by reducing uncertainty. This research will pioneer the novel combination of natural physical interaction, control for safe robots, multi-agent coordination, and planning/acting in a distributed manner.This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.

这个国家机器人倡议(NRI)项目的目标是使人类和机器人的混合团队能够在复杂的环境中共同完成对身体要求很高的物体操纵任务。在这个项目中，软体机器人是专门考虑的，因为传统的机器人太重了，而且有潜在的危险，不能与人密切合作。人类可以有效地合作来移动一个笨重的物体，因为他们能够利用他们对群体目标的理解和个人能力来解释物理线索，并快速推断对方的意图。因此，将这种能力扩展到机器人的第一步是了解团队成员对来自其他团队成员的推拉是如何识别和反应的。该项目还强调了在与软机器人和人合作时管理不确定性的必要性--软机器人是因为它们在典型的任务负荷下会显著变形，人是因为它们的动作可能难以被机器人预测。这项研究的潜在应用范围从加快物流和材料处理，到在危险和/或难以到达的环境中改善人类安全，如采矿、石油钻井、伐木和搜救。为此，与当地搜救队的合作将在整个项目中征求关于人-机器人合作的反馈。未被充分代表的本科生将接受利用软机器人的STEM教育工具的培训，然后学生将努力将这种培训传播到当地的K-12课堂。协同操纵可以被定义为多个协作主体在移动单个大对象时所采取的动作和发出的信号。这项研究将实现人与机器人之间的协同操作，主要集中在以下三个方面：1)为处理任务不确定性的软机器人建模、控制和规划有效的刚性轨迹；2)对操作过程中人类的意图和共识进行量化和建模；3)开发包含意图、共识和不确定性的算法来执行协同操作任务。在前人对大自由度软机器人模型预测控制算法研究的基础上，基于对任务不确定性的估计，将产生刚度轨迹作为软机器人控制的一部分。在现实生活和虚拟现实中，人类合作者移动大型物体的试验将允许开发预测群体共识和运动的算法。最后，给出一个群体的短期运动目标的合理估计，由此产生的算法还将生成机器人的运动和刚度轨迹，通过减少不确定性来帮助一个群体更有效地达成共识。这项研究将开创自然物理互动、安全机器人控制、多智能体协调以及分布式计划/行动的新组合。这一奖项反映了NSF的法定使命，并通过使用基金会的智力优势和更广泛的影响审查标准进行评估，被认为值得支持。