Rigid-link fixed-base parallel robotics is a mature research area and an enabler for developing a diverse range of industrial applications (e.g., pick-and-place manipulation, machine tools, simulators, etc.). Fundamental scientific questions for these robots are now solved, which leads to a decrease in their scientific interest. On the other side, we have seen rising interest of the research community to explore new types of parallel robots, such as aerial parallel robots or parallel continuum or soft robots. Such new parallel robots can be exploited for novel application areas as they are lighter and more flexible while maintaining the high level of precision and dynamics from their traditional counterparts.
This Research Topic aims at highlighting the frontiers of parallel robotics research transcending the traditional definition and at exploring the new contours of parallel robotics. It focuses on emerging types of parallel manipulators which leverage soft or continuum robots, flying robots, cable-driven robots, underactuated robots, multi-finger hands, micro scale parallel robots, etc. These novel closed-chain mechanisms, with no rigid links, no fixed base, or no traditional end-effector raise major scientific challenges. We encourage researchers from various robotics communities with common interest in parallel robotics, to contribute their ideas and methods and discuss scientific challenges in robot design, modelling, and control.
We welcome submissions from the traditional parallel robotics community as well as from new communities exploiting the frontiers of parallel manipulators. Topics of interest include, but are not limited to:
- New trends in parallel robotics
- Novel closed-chain mechanisms such as parallel soft or continuum robots, compliant mechanisms, cable-driven robots, multi-fingered hands, aerial parallel robots, underactuated robots, tensegrity structures etc.
- Reconfigurable parallel robots
- Kinematic, kinetostatic, and dynamics modelling of parallel robots
- Singularity analysis of parallel mechanisms
- Control strategies for parallel manipulators
- State estimation for parallel robots
- Dexterous manipulation and physical human robot interaction
Rigid-link fixed-base parallel robotics is a mature research area and an enabler for developing a diverse range of industrial applications (e.g., pick-and-place manipulation, machine tools, simulators, etc.). Fundamental scientific questions for these robots are now solved, which leads to a decrease in their scientific interest. On the other side, we have seen rising interest of the research community to explore new types of parallel robots, such as aerial parallel robots or parallel continuum or soft robots. Such new parallel robots can be exploited for novel application areas as they are lighter and more flexible while maintaining the high level of precision and dynamics from their traditional counterparts.
This Research Topic aims at highlighting the frontiers of parallel robotics research transcending the traditional definition and at exploring the new contours of parallel robotics. It focuses on emerging types of parallel manipulators which leverage soft or continuum robots, flying robots, cable-driven robots, underactuated robots, multi-finger hands, micro scale parallel robots, etc. These novel closed-chain mechanisms, with no rigid links, no fixed base, or no traditional end-effector raise major scientific challenges. We encourage researchers from various robotics communities with common interest in parallel robotics, to contribute their ideas and methods and discuss scientific challenges in robot design, modelling, and control.
We welcome submissions from the traditional parallel robotics community as well as from new communities exploiting the frontiers of parallel manipulators. Topics of interest include, but are not limited to:
- New trends in parallel robotics
- Novel closed-chain mechanisms such as parallel soft or continuum robots, compliant mechanisms, cable-driven robots, multi-fingered hands, aerial parallel robots, underactuated robots, tensegrity structures etc.
- Reconfigurable parallel robots
- Kinematic, kinetostatic, and dynamics modelling of parallel robots
- Singularity analysis of parallel mechanisms
- Control strategies for parallel manipulators
- State estimation for parallel robots
- Dexterous manipulation and physical human robot interaction
