CAREER: Exploring Robust Robot Manipulation through Compliance- and Motion-based Manipulation Funnels
CAREER: Exploring Robust Robot Manipulation through Compliance- and Motion-based Manipulation Funnels
批准号:
2240040
负责人:
Kaiyu Hang
金额:
$60.0万
依托单位国家:
美国
项目类别:
Standard Grant
财政年份:
2023
资助国家:
美国
项目状态:
未结题
起止时间:
2023-06-01 至 2028-05-31
中文摘要
该学院早期职业发展(CAREER)奖支持非结构化环境中通用机器人操作的研究。大多数现实世界的操作任务涉及不确定性,不可建模的物理和未知参数,传统的精确规划和控制方法已经达到了很大的限制。该奖项支持旨在建立一种新范式的研究,使机器人能够通过“操纵漏斗”的透镜处理不确定性和未知性。操纵漏斗的概念与普通使用漏斗的概念相同,其中想法是通过由机器人顺应性或运动策略定义的限制性颈部将大的任务可能性集合过滤到较小的集合,以确保后续机器人动作对不确定性是鲁棒的。这种新的模式将改善现实世界的机器人应用,例如工业生产、家庭服务和医疗保健中使用的机器人。该奖项还将支持多项STEM计划,重点是扩大代表性不足的群体的参与,包括动手机器人操作教程和配套书籍,研究成果的课程增强,以及本科生和K-12学生的研究机会。和控制的机器人操作的概念推广的几何操作漏斗在任务空间中的新类别的漏斗的基础上的机器人的顺应性和运动策略的鲁棒性和灵巧的操作对环境的不确定性。在这种情况下,重点是识别入口,塑造颈部,并找到这些新类别的操纵漏斗的出口。例如,通过利用主动或被动顺应性,最初被阻挡的漏斗可以被主动地“打开”,以通过自稳定任务形成来精确地操纵对象,并且促进具有扩大的规划空间和简化的控制的接触丰富的操纵。类似地,通过利用运动和任务约束,可以主动创建漏斗以及时地捕获状态转换,从而有效地减少不确定性,甚至直接计算出从不确定的操纵输入到其可能输出的映射。此外,通过通过任务传输漏斗并通过漏斗连接组成多模态操作解决方案,所提出的基于漏斗的框架将实现复杂的操作任务,同时确保鲁棒性。因此,该项目将使机器人能够通过一个非传统但更可靠的框架进行操作,使它们能够在高度不确定的情况下工作,而这些情况在传统上是不可行的。由工程局(ENG)和计算机与信息科学与工程局(CISE)共同管理和资助该奖项反映了NSF的法定使命,并通过使用基金会的知识价值和更广泛的影响审查标准进行评估,被认为值得支持。
英文摘要
This Faculty Early Career Development (CAREER) award supports research in general-purpose robotic manipulation in unstructured environments. Most real-world manipulation tasks involve uncertainties, un-modellable physics, and unknown parameters, where traditional approaches for precise planning and control have been hitting a hard limit. This award supports research that seeks to establish a novel paradigm that enables robots to handle uncertainties and unknowns through the lens of “manipulation funnels.” The concept of manipulation funnel is the same as that of an ordinary use funnel, wherein the idea is to filter a large set of task possibilities through a restrictive neck, defined by robot compliance or motion strategy, to a smaller set ensuring that the subsequent robot actions are robust against uncertainties. This new paradigm will improve real-world robot applications, such as those used in industrial production, household services, and healthcare. The award will also support several STEM initiatives, with focus on broadening participation to underrepresented groups, including hands-on robotic manipulation tutorials and an accompanying book, curriculum enhancement with research outcomes, and research opportunities for undergraduate and K-12 students.The objective of this project is to depart from the traditional pipeline of perception, planning, and control for robotic manipulation by generalizing the idea of geometric manipulation funnels in task space to new classes of funnels based on robot compliance and motion strategy for robust and dexterous manipulation against environmental uncertainties. Within this context, the focus is on identifying the entries, shaping the necks, and finding the exits in these new classes of manipulation funnels. For example, by leveraging active or passive compliance, funnels that are initially blocked can be can actively “opened” to precisely manipulate objects through self-stabilizing task formations and facilitate contact-rich manipulation with enlarged planning spaces and simplified control. Similarly, by leveraging motions and task constraints, funnels can be actively created to cage the state transitions in time to effectively reduce uncertainties or even directly figure out the mapping from uncertain manipulation inputs to their possible outputs. Furthermore, by transferring funnels through tasks and composing multi-modal manipulation solutions via funnel concatenations, the proposed funnel-based framework will enable complex manipulation tasks while firmly guaranteeing robustness. As a result, this project will enable robots to manipulate through a non-traditional but more reliable framework, allowing them to work in highly uncertain scenarios that were traditionally infeasible.This project is supported by the cross-directorate Foundational Research in Robotics program, jointly managed and funded by the Directorates for Engineering (ENG) and Computer and Information Science and Engineering (CISE).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.
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Collaborative Research: Self-Identification for Robot Manipulation under Uncertainty Aided by Passive Adaptability
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