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Hybrid Control for Agility and Efficiency in Bipedal Robots with Compliance

Hybrid Control for Agility and Efficiency in Bipedal Robots with Compliance
混合控制可提高双足机器人的灵活性和效率并具有合规性
批准号:
0600869
负责人:
Jessy Grizzle
金额:
$0.0万
依托单位国家:
美国
项目类别:
Standard Grant
财政年份:
2006
资助国家:
美国
项目状态:
已结题
起止时间:
2006-06-01 至 2010-05-31

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中文摘要
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英文摘要
Proposal Number: 0600869PI - GrizzleIntellectual Merit: The objective of this research is to create a theory of hybrid systems that is rich enough to control a bipedal machine so that it can walk, run, and adapt its gait to varying terrain, like a human. A feedback design method will be developed that is systematic, provably correct, permits tradeoff analysis, and has effective symbolic and numerical tools for computations. The approach will be illustrated on legged machines with series compliant actuation. The hybrid zero dynamics of robots with compliant actuators will be studied and applied to specific motion control problems, such as energetically efficient running on a flat surface, and walking on uneven surfaces. Broader Impacts: There are important medical applications of bipedal locomotion research, including prostheses for the lower limbs and rehabilitation of walking and balance. Understanding stable dynamic motion in a machine is far simpler than in a human body, but it is a good place to start. Now that research is yielding an understanding of what it takes to achieve stable locomotion in machines capable of anthropomorphic gaits, it is possible to use this knowledge as a springboard in the search to recover locomotion ability in people who have suffered injuries. The PI is also cooperating with Thurston High School in S.E. Michigan to develop education material related to this research proposal that is appropriate for use in high school science courses.
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会议论文
Learning-Aided Integrated Control and Semantic Perception Architecture for Legged Robot Locomotion and Navigation in the Wild
Combining Optimization, Machine Learning, and Model Structure to Improve the Robustness and Agility of Modern Bipedal Machines
NRI: Collaborative Research: Unified Feedback Control and Mechanical Design for Robotic, Prosthetic, and Exoskeleton Locomotion
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