드론 기술을 이용한 부력 조형물의 자세 제어
Posture control of buoyancy sculptures using drone technology
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The floating sculptures in the form of ad-ballon commonly used ropes in order to hold on. Relatively air flow is much less indoor than outdoor. Users of buoyancy sculptures hope to be able to maintain their desired posture without being fixed. This study applied drone technology to buoyancy sculptures. The drones can be moved vertically and horizontally, and the posture can be maintained, so buoyancy sculptures are easy to apply. Therefore, we have studied the control system of buoyancy sculpture using drone technology. Also, a control system that can maintain the desired posture at a constant height was studied. The overall shape was a light fiber material and helium gas for zero buoyancy to support the sculpture. The system configuration was STM32F103CB from ARM. In addition, the gyro and acceleration, geomagnetic sensors and motors are composed of small and medium size BLDC motors. The scheduling of the control system in the configuration of the control device was carefully considered. Because the role of the whole component becomes very important. The communication between the components is divided into the sensor fusion and the interface communication with the whole controller. Each communication technology is designed to expand. This study was implemented to actively respond from the viewpoint of posture control using the drone technolog
Abstract
The floating sculptures in the form of ad-ballon commonly used ropes in order to hold on. Relatively air flow is much less indoor than outdoor. Users of buoyancy sculptures hope to be able to maintain their desired posture without being fixed. This study applied drone technology to buoyancy sculptures. The drones can be moved vertically and horizontally, and the posture can be maintained, so buoyancy sculptures are easy to apply. Therefore, we have studied the control system of buoyancy sculpture using drone technology. Also, a control system that can maintain the desired posture at a constant height was studied. The overall shape was a light fiber material and helium gas for zero buoyancy to support the sculpture. The system configuration was STM32F103CB from ARM. In addition, the gyro and acceleration, geomagnetic sensors and motors are composed of small and medium size BLDC motors. The scheduling of the control system in the configuration of the control device was carefully considered. Because the role of the whole component becomes very important. The communication between the components is divided into the sensor fusion and the interface communication with the whole controller. Each communication technology is designed to expand. This study was implemented to actively respond from the viewpoint of posture control using the drone technolog
참고문헌 (8)
- 김준성, "소형 쿼드로터의 자세 제어를 위한 제어기 구현", 석사, pp.2018
- 이충희, "드론 기술개발 최근 동향과 전망", 새물리, 65(12), pp.1141~1158 (2015), 한국물리학회
- 박재훈, "드론기술과 한국물류산업의 발전방향", 한국항공경영학회 추계학술발표 논문집 (2016)
- 강진구, "무 고정 공중부양 조형물의 자세 제어장치 설계 및 성능평가", (사)디지털산업정보학회 논문지, 13(3), pp.11~17 (2017), (사)디지털산업정보학회[DOI]
- 강진구, "ARS를 이용한 2바퀴 로봇의 자세 제어에 관한 연구", (사)디지털산업정보학회 논문지, 9(1), pp.73~78 (2013), (사)디지털산업정보학회
- 마이크로칩 기술지원부, "마이크로칩 마이크로컨트롤러 응용 – 모터컨트롤" (2006), 마이크로칩사
- 강진구, "CCS-C를 이용한 PIC 마이크로컨트롤러 기초 활용" (2013), 문운당
- "Intel Lab mcs-96 8x9x Architectural Overview", ~