리드용 와이어의 평탄도 측정 방법에 따른 비교 분석
Comparative Analysis according to The Flatness Measurement Method of Reed wire
1
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
Recently, the demand of wire quality improvement has been increasing due to the development of the textile market, and the demand for round type flat wire having superior performance compared to the existing reed wire is also increasing greatly. The round wire requires equal spacing and precise alignment of the wire at reed knitting. So, there is a need for a method for measuring the flatness of Reed in real time. In this paper, it is shown how the contact and non - contact methods for the flatness of Reed used in a power loom are easy to measure in real - time process. The contact-type method provides excellent measurement accuracy and precision because it directly touches the object. The non-contact type does not touch the object, so it does not scratch the surface, and the result can be obtained faster than the contact type. Contact type measuring device was used as contact type and laser displacement sensor was used as non - contact type. It was confirmed that the measurement method using the laser displacement sensor (non-contact type) is suitable for the real time process.
Abstract
Recently, the demand of wire quality improvement has been increasing due to the development of the textile market, and the demand for round type flat wire having superior performance compared to the existing reed wire is also increasing greatly. The round wire requires equal spacing and precise alignment of the wire at reed knitting. So, there is a need for a method for measuring the flatness of Reed in real time. In this paper, it is shown how the contact and non - contact methods for the flatness of Reed used in a power loom are easy to measure in real - time process. The contact-type method provides excellent measurement accuracy and precision because it directly touches the object. The non-contact type does not touch the object, so it does not scratch the surface, and the result can be obtained faster than the contact type. Contact type measuring device was used as contact type and laser displacement sensor was used as non - contact type. It was confirmed that the measurement method using the laser displacement sensor (non-contact type) is suitable for the real time process.
참고문헌 (11)
- 김세종, "리드용 와이어의 측면곡률 개선을 위한 사이드 압연의 최적설계", 대한기계학회논문집 A, 43(1), pp.23~30 (2019), 대한기계학회
- Y. K. Park, "Comparison of Contacting and non-contacting methods in measuring the surface roughness of texture", Korean Journal of The Science of Emotion & Sensibility, 2(1), pp.105~111 (1999)
- A. Wennerberg, "Characterizing three dimensional topography of engineering and biomaterial surfaces by confocal laser scanning and stylus techniques", Med. Eng. Phys, 18(7), pp.548~556 (1996)
- M. N. Durakbasa, "The factors affecting surface roughness measurements of the machined flat and spherical surface structures - The geometry and the precision of the surface", Measurement, 44, pp.1986~1999 (2011)
- S. Kosarevsky, "Development of an Algorithm to Detect Screw Threads in Planar Point Clouds", Measurement Science Review, 10(4), pp.136~141 (2010)
- K. H. Kwon, "Effects of stylus tip radius on the measuring error in surface topography measurement by contact stylus profilomete", The Korean Society of Manufacturing Technology Engineers, pp.613~617 (2000)
- K. H. Kwon, "Analysis of Measuring Error of Surface Roughness by Contact Stylus Profilometer", Journal of the Korean Society of Precision Engineering, 16(12), pp.174~181 (1999)
- K. H. Kwon, "An Error Compensation in Rough Surface Measurement by Contact Stylus Profilometer", The Korean Society of Manufacturing Technology Engineers, 8(1), pp.126~134 (1999)
- 오연택, "3D 형상 측정용 고속", 고정밀 멀티프로브 측정시스템 개발, 2014, pp.16(6), 2097~2103[DOI]
- Y. C. Tan, "Technique of Measuring Piston Secondary Motion Using Laser Displacement Sensors", Experimental Mechanics, 52(9), pp.1447~1459 (2012)
- Y. Guo, "Calibration for kinematic parameters of industrial robot by a laser displacement sensor", 2018 15th International Conference on Control, Automation, Robotics and Vision (ICARCV), pp.1829~1833 (2018)
