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논문 기본 정보

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학위논문
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이상길 (창원대학교, 창원대학교 대학원)

지도교수
정윤교
발행연도
2018
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창원대학교 논문은 저작권에 의해 보호받습니다.

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이 논문의 연구 히스토리 (3)

초록· 키워드

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최근 항공, 금형 등 고 정밀 가공분야에서 정밀 가공에 대한 수요가 증가하면서 5축 공작기계의 사용이 증가하고 있다. 그러나 일반적으로 5 축 공작 기계는 3개의 직선 축에 2개의 선회 축이 쌓여 있기 때문에 다양 한 오차가 누적되어 정밀 가공에 영향을 미치고 있다. 장비의 5축 정밀도 를 검사하기 위하여 NAS(National Aerospace Standard)979에 기록되어진 원 추대 가공 시편은 5축 공작기계의 성능 테스트용으로 일반적인 유저에게 널리 알려지고 있다. 그러나 장비의 일반적인 가공 성능은 잘 보여주지만 공작물의 프로파일 오차로부터 기계의 기구학적 오차를 개별적으로 찾아 내는 것은 일반적으로 어렵다. 본 논문에서는 5축 공작기계의 기구학적 오차 요인을 식별하기 위하여 참고 문헌 (1)에서 제시되어진 가공 방법을 기초로 수정 제안된 가공 테 스트를 제안한다. 그리고 완성된 공작물의 기구학적 오류의 식별은 datum ball 과 Probe를 이용한 측정과 비교한다.

목차

Abstract and Key Words ············································································ⅲ
List of table and figures ············································································ⅳ
Nomenclature ·······························································································ⅵ
제 1 장 서론 ············································································································1
1.1 연구배경 ·····································································································1
1.2 연구 동향 ·····································································································2
1.3 연구 목적 ·····································································································3
제 2 장 기초 이론 ··································································································4
2.1 기하 오차(Geometric error)의 요인 ·························································4
2.2 5축 공작기계의 기구학적 오차의 비 절삭 측정 방법 ·······················5
2.3 공작 기계의 가공 정밀도를 평가하기 위한 공작물 ···························7
2.4 공작기계의 기구학적 오차 분류 ·····························································9
2.5 기구학적 오차의 표기 방법 ···································································10
제 3 장 5축 공작 기계의 기구학적 오차 ························································12
3.1 장비 구성 ···································································································12
3.2 참고 문헌 (1)의 절삭 기준 문제점 ······················································15
3.3 수정 제안된 Machining pattern 4의 가공 방법 ··································16
3.4 가공 조건 및 공작물의 공칭 형상 Parameter ····································17
3.5 기구학적 오차의 운동학적 모델링 ·······················································19
제 4 장 Machining Pattern ···················································································20
4.1 Machining Pattern 1-a ···············································································23
4.2 Machining Pattern 1-b ···············································································25
4.3 Machining Pattern 2-a ···············································································27
4.4 Machining Pattern 2-b ···············································································29
4.5 Machining Pattern 3 ··················································································31
4.6 Machining Pattern 4 ··················································································33
4.7 가공 테스트 결과 ···················································································36
4.8 ISO 10791-7-M3 가공 결과 ····································································38
제 5 장 결론 ··········································································································39
참고문헌 ··················································································································40
감사의 글 ················································································································43

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