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  • Wiley  (3)
  • Li, Jing  (3)
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  • Wiley  (3)
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  • 1
    Online Resource
    Online Resource
    Wiley ; 2021
    In:  Advanced Intelligent Systems Vol. 3, No. 8 ( 2021-08)
    In: Advanced Intelligent Systems, Wiley, Vol. 3, No. 8 ( 2021-08)
    Abstract: Miniaturization, fast motion, high resolution, high agility, and good adaptability are relatively contradictory characteristics in mobile robot design. It is indeed a challenge to satisfy these performances at the same time. Inspired by the arthropod metamerism in nature, herein, a millirobot composed of three piezoelectric segments is proposed. The millirobot is tethered for power, and the whole size of the millirobot is 58 × 44 × 12 mm; it uses several principles of arthropod locomotion, can carry loads and cross obstacles, and also has the rapidity and agility like a centipede through the coordination of multiple piezoelectric segments. Fast motion with a maximum speed of 516 mm s −1 is realized by operating at resonant mode, and stepping motion with a resolution of 0.44 μm is achieved by the pulsed sinusoidal mode. The widest speed range among published reports of millirobots is achieved (from 4.5e −3 to 9 BL s −1 ). Its agility surpasses other piezoelectric millirobots; the linear, steering, and rotational motions are performed and switched flexibly. The results show that fast motion, high resolution, wide speed range, high agility, large load capacity, good adaptability, and miniaturization are successfully achieved by the millirobot.
    Type of Medium: Online Resource
    ISSN: 2640-4567 , 2640-4567
    URL: Issue
    Language: English
    Publisher: Wiley
    Publication Date: 2021
    detail.hit.zdb_id: 2975566-9
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  • 2
    In: Advanced Intelligent Systems, Wiley, Vol. 4, No. 3 ( 2022-03)
    Abstract: Micromanipulation robots are powerful tools to explore and reform the microscope world, but it is difficult to integrate high precision, long stroke, strong carrying capability, and multi‐degree of freedom (DOF) motions in a single robot. To address this challenge, herein a bioinspired hexapod piezoelectric robot (PER‐hexapod) aiming at high‐performance micromanipulation is presented. Specifically, two piezoelectric elements are integrated in a functional module to provide 3‐DOF precise motions, the collaboration of six functional modules generates the multi‐DOF motions, and the multimode fusion of three gaits facilitates the cross‐scale motion. The robot outputs 6‐DOF motions with resolutions higher than 4 nm or 0.2 μrad, and unlimited traveling ranges of in‐plane motions are accomplished. PER‐hexapod, whose weight is 0.45 kg, can stably drive a carrying load of 10 kg. In addition, PER‐hexapod realizes the accurate positioning with the root‐mean‐square error less than 5 nm. Thus, it has potential applications in the precise positioning in a large range, such as the batch injection of multiple cells and micromachining on large surfaces. Not only PER‐hexapod, but many other robots can be also designed with the same philosophy to construct micromanipulation systems for various requirements.
    Type of Medium: Online Resource
    ISSN: 2640-4567 , 2640-4567
    URL: Issue
    Language: English
    Publisher: Wiley
    Publication Date: 2022
    detail.hit.zdb_id: 2975566-9
    Location Call Number Limitation Availability
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  • 3
    In: Advanced Science, Wiley, Vol. 9, No. 29 ( 2022-10)
    Abstract: Amphibious robots can undertake various tasks in terrestrial and aquatic environments for their superior environmental compatibility. However, the existing amphibious robots usually utilize multi‐locomotion systems with transmission mechanisms, leading to complex and bulky structures. Here, a miniature amphibious robot based on vibration‐driven locomotion mechanism is developed. The robot has two unique rigid‐flexible hybrid modules (RFH‐modules), in which a soft foot and a flexible fin are arranged on a rigid leg to conduct vibrations from an eccentric motor to the environment. Then, it can run on ground with the soft foot adopting the friction locomotion mechanism and swim on water with the flexible fin utilizing the vibration‐induced flow mechanism. The robot is untethered with a compact size of 75 × 95 × 21 mm 3 and a small weight of 35 g owing to no transmission mechanism or joints. It realizes the maximum speed of 815 mm s –1 on ground and 171 mm s –1 on water. The robot, actuated by the RFH‐modules based on vibration‐driven locomotion mechanism, exhibits the merits of miniature structure and fast movements, indicating its great potential for applications in narrow amphibious environments.
    Type of Medium: Online Resource
    ISSN: 2198-3844 , 2198-3844
    URL: Issue
    Language: English
    Publisher: Wiley
    Publication Date: 2022
    detail.hit.zdb_id: 2808093-2
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