Journal of The Royal Society Interface · 2015 · 95 citations · 16 references
EngineeringBioengineeringRobotics EngineeringInsect BehaviorRobot DesignRoboticsBioinspired LocomotionBioinspired Robot DesignCockroach BiologyLocomotion ControlLocomotor ControlRobot SensorsAnimal LocomotionElectrical StimulationHybrid LocomotionHybrid Locomotion ControlInsect Locomotor ControlInsect-inspired RobotsLocomotionRechargeable Batteries
Natural systems retain significant advantages over engineered systems in many aspects, including size and versatility. In this research, we develop a hybrid robotic system using American (Periplaneta americana) and discoid (Blaberus discoidalis) cockroaches that uses the natural locomotion and robustness of the insect. A tethered control system was firstly characterized using American cockroaches, wherein implanted electrodes were used to apply an electrical stimulus to the prothoracic ganglia. Using this approach, larger discoid cockroaches were engineered into a remotely controlled hybrid robotic system. Locomotion control was achieved through electrical stimulation of the prothoracic ganglia, via a remotely operated backpack system and implanted electrodes. The backpack consisted of a microcontroller with integrated transceiver protocol, and a rechargeable battery. The hybrid discoid roach was able to walk, and turn in response to an electrical stimulus to its nervous system with high repeatability of 60%.
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Ronald Melzack, Patrick D. Wall · Pain Forum · 1996 · 2.8K citations
Marc H. Raibert · Communications of the ACM · 1986 · 223 citations · Full text
Remote radio control of insect flight
Hirotaka Sato · Frontiers in Integrative Neuroscience · 2009 · 150 citations · Full text