The scope, usability, limitations and predictive power of four modeling methodologies are analyzed in this paper: mathematical models, empirical models, computer simulation models, and artificial neural network models. The predictive power of each of the four is estimated by comparing predicted yarn strength with experimentally obtained strengths for yarns spun using different process conditions and material parameters.
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References
1.
ChasmawalaR. J.HansenS. M.JayaramanS., Structure and Properties of Air-Jet Spun Yarns, Textile Res. J.60, 61 (1990).
2.
KrauseH. W.SolimanH. A., Theoretical Study of the Strength of Single Jet False Twist Spun Yarns, Textile Res. J.60, 309 (1990).
3.
LawrenceC. A.BaquiM. A., Effects of Machine Variables on the Structure and Properties of Air-Jet Fasciated Yarns, Textile Res. J.61, 123 (1991).
4.
RajamanickamR., Studies on Fiber-Structure-Process-Property Relationships in Air-Jet Spinning, Doctoral dissertation, School of Textile and Fiber Engineering, Georgia Institute of Technology, Atlanta, GA, December 1995.
5.
RajamanickamR.HansenS. M.JayaramanS., A Computer Simulation Approach for Engineering Air-Jet Spun Yarns, Textile Res. J..
6.
RajamanickamR.HansenS. M.JayaramanS., Studies on Fiber-Structure-Process-Property Relationships in Air-Jet Spinning, Part I: Effect of Process and Material Parameters on the Structure of Microdenier Polyester/Cotton Blended Yarns, J. Textile Inst. (in press).
7.
RajamanickamR.HansenS. M.JayaramanS., Studies on Fiber-Structure-Process-Property Relationships in Air-Jet Spinning, Part II: Effect of Process and Material Parameters on the Properties of Microdenier Polyester/Cotton Blended Yarns, J. Textile Inst. (in press).
8.
RameshM. C.RajamanickamR.JayaramanS., Prediction of Yarn Tensile Properties using Artificial Neural Networks, J. Textile Inst.3, 459 (1995).