Analysis on Interlacing Behavior of Multifilament Yarn Using High Speed Camera

고속카메라를 이용한 멀티필라멘트사의 인터레이싱 거동 분석

  • 조대환 ((주)효성 생산기술연구소) ;
  • 정영진 (숭실대학교 공과대학 섬유공학과)
  • Published : 2006.04.01

Abstract

An attempt is carried out to make the knots in multifilament yarns with conventional interlacer that is controlled to investigate the relationship between the interlacing results and processing conditions. In order to analyze the multifilament movements in interlacer, images of multifilament yams in real time using high speed camera are captured. The physical properties of interlaced yarn are measured to evaluate the influences of two processing conditions, namely, air pressure and yarn tension. Interlacing properties that are caused by the changes of process conditions based on the captured images are analyzed. The mechanism of interlacing in interlacer with the captured images of consecutive multifilament movements were inferred. The movements are classified into several stages according to the status of knot formation which is mainly dependent on the process conditions. Experimental results can be utilized in producing the optimum interlaced yarns for end-use application.

Keywords

References

  1. M. Acar and H. K. Versteeg, 'Air-jet Texturing and Intermingling Nozzle Designs: Easy to Manufacture and Maintain', Chem Fibers International, 2000, 50, 502-505
  2. K. Burkhard, 'Flat Multifilament Yarn Having Low Opening Tendency and Good Compaction', U.S Patent, 5,518,814 (1996)
  3. F. Franz, 'Synthetic Fibers', Hanser/Gardner Publications Inc., USA, 1998, pp. 744-748
  4. D. S. Manoj, 'Filament Intermingling', Synthetic Fibers, 2002, 31, 15-20
  5. H. K. Versteeg, M. Acar, and S. Bilgin, 'Effect of Geometry on the Performance of Intermingling Nozzles', Text Res J, 1999, 69, 545-551 https://doi.org/10.1177/004051759906900801
  6. S. P. Rwei, H. Pai, and I. C. Wang, 'Fluid Simulation of the Airflow in Interlaced Nozzles', Text Res J, 2001, 71, 630-634 https://doi.org/10.1177/004051750107100711
  7. I. Yoshiyuki, C. Shigeomi, and S. Kichidayu, 'Study on Interlaced Yarn, Part 1: Effects of Air Pressure, Air Flow Rate, Yarn Speed and Feed Ratio on Tangling Number, and Production Limits of Interlaced Yarn', Text Mach Soc Japan, 1986, 39, 35-42
  8. I. Yoshiyuki, C. Shigeomi, and S. Kichidayu, 'Study on Interlaced Yarn, Part 2: Variation of Yarn Tension, and Relation between Tangling Number and Yarn Tension', Text Mach Soc Japan, 1986, 39, 43-48 https://doi.org/10.4188/transjtmsj.39.3_T43
  9. I. Yoshiyuki, C. Shigeomi, and T. Takayuki, 'Study on Interlaced Yarn, Part 6: Yarn Motion in Interlacer', Text Mach Soc Japan, 1990, 43, 43-48
  10. C. M. Park, S. R. Kim, and S. H. Jeong, 'Development of Real-Time System for Structural Analysis of Interlaced Yarns', J Korean Fiber Soc, 2003, 40, 106-115
  11. M. Miao and M. C. Soong, 'Air Interlaced Yarn Structure and Properties', Text Res J, 1995, 65, 433-440 https://doi.org/10.1177/004051759506500801
  12. H. Weinsdorfer, 'Important Quality Characteristics for Intermingled Elastane Yarns', Chem Fibers International, 1999, 49, 418-420
  13. M. A. Zenses, 'Y and CI Air Jets-air Interlacing Technology for Different Textile Processes', Chem Fibers International, 2003, 53, 46-50
  14. D. H. Cho and D. S. Shim, 'A Weakly Interlaced Polyester Multifilament Yarn', Korea Patent, 10-0476878-0000 (2005)
  15. ASTM D 4724-99, Standard Test Method for Entanglement in Filament Yarns by Needle Insertion, Annual Book of ASTM Standards, Vol. 07.01