• Title/Summary/Keyword: Bio-Memetics

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Implementation of Pipeline Monitoring System Using Bio-memetic Robots (생체 모방 로봇을 이용한 관로 모니터링 시스템의 구현)

  • Shin, Dae-Jung;Na, Seung-You;Kim, Jin-Young;Jung, Joo-Hyun
    • The KIPS Transactions:PartA
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    • v.17A no.1
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    • pp.33-44
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    • 2010
  • We present a pipeline monitoring system based on bio-memetic robot in this paper. A bio-memetic robot exploring pipelines measures temperature, humidity, and vibration. The principal function of pipeline monitoring robot for the exploring pipelines is to recognize the shape of pipelines. We use infrared distance sensor to recognize the shape of pipelines and potentiometer to measure the angle of motor mounting infrared distance sensor. For the shape recognition of pipelines, the number of detected pipelines is used during only one scanning of distance. Three fuzzy classifiers are used for the number of detected pipelines, and the classifying results are presented in this paper.

Implementation of Underwater Entertainment Robots Based on Ubiquitous Sensor Networks (유비쿼터스 센서 네트워크에 기반한 엔터테인먼트용 수중 로봇의 구현)

  • Shin, Dae-Jung;Na, Seung-You;Kim, Jin-Young;Song, Min-Gyu
    • The KIPS Transactions:PartA
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    • v.16A no.4
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    • pp.255-262
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    • 2009
  • We present an autonomous entertainment dolphin robot system based on ubiquitous sensor networks(USN). Generally, It is impossible to apply to USN and GPS in underwater bio-mimetic robots. But An Entertainment dolphin robot which presented in this paper operates on the water not underwater. Navigation of the underwater robot in a given area is based on GPS data and the acquired position information from deployed USN motes with emphasis on user interaction. Body structures, sensors and actuators, governing microcontroller boards, and swimming and interaction features are described for a typical entertainment dolphin robot. Actions of mouth-opening, tail splash or water blow through a spout hole are typical responses of interaction when touch sensors on the body detect users' demand. Dolphin robots should turn towards people who demand to interact with them, while swimming autonomously. The functions that are relevant to human-robot interaction as well as robot movement such as path control, obstacle detection and avoidance are managed by microcontrollers on the robot for autonomy. Distance errors are calibrated periodically by the known position data of the deployed USN motes.