원문정보
초록
영어
Vibrations on the floor in a car are transmitted to the foot, hip, and back from the seat. Human body recognizes these vibrations, but the sensitivity for each vibration is different. To evaluate these vibrations, RMS(root mean square) of accelerations, VDV(vibration does value) are commonly used. The ride comfort evaluation is usually carried out by experiments of real cars which are expensive.
The purpose of this paper is to briefly review the status of several ride vibration standards and criteria having relevance to construction machinery vehicles and to suggest recommendations for the effective use of such criteria in vehicle / component development.
목차
Abstract
1. 서론
2. 인체 진동의 특성
3. 승차진동의 정량적 평가 기준
3.1 Reiher-Meister Criteria
3.2 Jacklin-Liddell Criteria
3.3 Janeway Criteria
3.4 Sperling Criteria
3.5 Mauzin-Sperling Criteria
3.6 Dieckmann Criteria
3.7 ISO 2631 (Evaluation of Human Exposure to Whole-Body Vibration)[
3.8 BS 6841 (Measurement and evaluation of Human exposure to Whole-body Mechanical Vibration and Repeated Shock)
3.9 흡수동력
3.10 Cross Modality Technique
3.11 NASA 승차감 산출모델
4. 승차감 평가
4.1 인체모델
4.2 시트 물성치의 파라미터 해석
4.3 노면조건
4.4 차량 모델링
4.5 승차감 평가
5. 결론 및 고찰
참고문헌
1. 서론
2. 인체 진동의 특성
3. 승차진동의 정량적 평가 기준
3.1 Reiher-Meister Criteria
3.2 Jacklin-Liddell Criteria
3.3 Janeway Criteria
3.4 Sperling Criteria
3.5 Mauzin-Sperling Criteria
3.6 Dieckmann Criteria
3.7 ISO 2631 (Evaluation of Human Exposure to Whole-Body Vibration)[
3.8 BS 6841 (Measurement and evaluation of Human exposure to Whole-body Mechanical Vibration and Repeated Shock)
3.9 흡수동력
3.10 Cross Modality Technique
3.11 NASA 승차감 산출모델
4. 승차감 평가
4.1 인체모델
4.2 시트 물성치의 파라미터 해석
4.3 노면조건
4.4 차량 모델링
4.5 승차감 평가
5. 결론 및 고찰
참고문헌
키워드
저자정보
참고문헌
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