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논문 기본 정보

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학위논문
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하태욱 (울산대학교, 울산대학교 대학원)

지도교수
안경관
발행연도
2018
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울산대학교 논문은 저작권에 의해 보호받습니다.

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이 논문의 연구 히스토리 (3)

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국내외 4족 로봇, ROV 수중장치, 로봇팔에 유압 매니퓰레이터가 사용되고 있다. 유압 매니퓰레이터 중에서도 유압 로터리 액추에이터의 사용이 필수적이다. 기존의 밸브식 유압 로터리 액추에이터(Valve-Controlled Hydraulic Rotary Actuator)의 경우 배관의 복잡함과 시스템의 크기가 크며, 전기모터 항시구동 및 밸브에서의 작동유의 누유로 인한 에너지 손실이 발생한다.
본 연구는 기존의 밸브식 유압 로터리 액추에이터의 에너지를 향상시키기 위해 전기 정유압 로터리 액추에이터(Electro-Hydrostatic Rotary Actuator)를 제안한다. 전기 정유압 로터리 액추에이터는 모터, 펌프, 밸브, 액추에이터, 배관의 일체화로 인해 소형화할 수 있으며, 필요시 전기모터 구동 및 소형화로 인한 작동유의 누유 최소화로 기존의 밸브식 유압 로터리 액추에이터보다 에너지 효율을 증대시킬 수 있다.
유압시스템의 비선형성, 불확실한 요소의 정밀 제어를 위해 슬라이딩 모드 기반의 적응 PID 제어기를 제안하여 전기 정유압 로터리 액추에이터에 적용하여 3경우의 시험을 통해 제어 성능을 검증하였다

목차

1. 서론 ························································································ 1
1.1. 연구 배경 및 목적 ····················································································· 1
1.2. 연구 현황 ········································································································ 2
1.3. 본문의 구성 ··································································································· 3
2. 전기 정유압 로터리 액추에이터 ·········································· 4
2.1. 유압 매니퓰레이터 ······················································································ 4
2.2. 유압시스템 개요 ·························································································· 6
2.3. 전기 정유압 로터리 액추에이터 ·························································· 7
3. 제어 알고리즘 ······································································ 11
3.1. 제어기 설계 ·································································································· 11
3.2. PID Controller ··························································································· 12
3.3. Sliding Mode Controller ······································································· 13
3.4. Adaptive PID Controller ······································································ 15
3.4.1. Sliding Surface ··························································································· 15
3.4.2. Adaptive PID Controller ······································································· 18
3.4.3. Gain tuning law ·························································································· 18
3.4.4. Stability ·········································································································· 20
4. 시험장치구성 ······································································· 22
5. 시험결과 ··············································································· 25
5.1. Case.1 ············································································································· 25
5.2. Case.2 ············································································································· 30
5.3. Case.3 ············································································································· 33
6. 결론 ······················································································· 36
Reference ····················································································· 37

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