The Effect of Clamping Restrain on the Prediction of Drape Simulation Software Tool
To investigates the effect of fiberglass clamping
process improvement on drape simulation prediction. This has
great effect on the mould and the fiber during manufacturing
process. This also, improves the fiber strain, the quality of the
fiber orientation in the area of folding and wrinkles formation
during the press-forming process. Drape simulation software
tool was used to digitalize the process, noting the formation
problems on the contour sensitive part. This was compared
with the real life clamping processes using single and double
frame set-ups to observe the effects. Also, restrains are
introduced by using clips, and the G-clamps with predetermine
revolution to; restrain the fabric deformation during the
forming process.The incorporation of clamping and fabric
restrain deformation improved on the prediction of the
simulation tool. Therefore, for effective forming process,
incorporation of clamping process into the drape simulation
process will assist in the development of fiberglass application
in manufacturing process.
[1] J. Wang, R. Paton, J.R. Page, 1999, The draping of woven fabric
preforms and prepregs for production of polymer composite
components, Composites: Part A: 30 (1999) 757-765.
[2] Wang J, Page JR, Paton R.1998, Experimental investigation into the
draping properties of reinforcement fabrics. Journal of Composite
Science and Technology 1998; 58(2):229-237.
[3] Page JR, Wang J, Simpson G. Prediction of shear force and an analysis
of yarn slippage for a plain weave carbon fabric in biaxial extension
state, (submitted to ICCM-12 Conference).
[4] A.Willems, S.V.Lomov, I.Verpoest, D.Vandepitte, 2009, Drape-ability
characterization of textile composite reinforcements using digital image
correlation, Optics and Lasers in Engineering journal 47 (2009) 343-
35.
[5] A.C. Long, P. Harrison, M.J. Clifford, C.D. Rudd, 2004, A constituentbased
predictive approach to modeling the rheology of viscous textile
composites. Composites: Part A 35 (2004) 915-931.
[6] A.A. Skordos, C. Monroy Aceves, M.P.F. Sutcliffe, 2007, a simplified
rate dependent model of forming and wrinkling, of pre-impregnated
woven composites, Composites: Part A 38 (2007) 1318-1330.
[7] S.V. Lomov , Ph. Boisse , E. Deluycker , F. Morestin , K. Vanclooster,
D. Vandepitte , I. Verpoest a, A. Willems, 2008 Full-field strain
measurements in textile deformability studies Composites: Part A 39
(2008) 1232-1244.
[8] S. Savci, J.I. Curiskis and M.T. Pailthorpe, 2000 A study of the
deformation of weft-knit preforms for advanced composite structures
Part 1: Dry perform properties, Composites Science and Technology 60
(2000) 1931-1942.
[9] H. Lin, J. Wang, A.C. Long, M.J. Clifford, P. Harrison,2007 Predictive
modeling for optimization of textile composite forming, Composites
Science and Technology 67 (2007) 3242-3252.
[1] J. Wang, R. Paton, J.R. Page, 1999, The draping of woven fabric
preforms and prepregs for production of polymer composite
components, Composites: Part A: 30 (1999) 757-765.
[2] Wang J, Page JR, Paton R.1998, Experimental investigation into the
draping properties of reinforcement fabrics. Journal of Composite
Science and Technology 1998; 58(2):229-237.
[3] Page JR, Wang J, Simpson G. Prediction of shear force and an analysis
of yarn slippage for a plain weave carbon fabric in biaxial extension
state, (submitted to ICCM-12 Conference).
[4] A.Willems, S.V.Lomov, I.Verpoest, D.Vandepitte, 2009, Drape-ability
characterization of textile composite reinforcements using digital image
correlation, Optics and Lasers in Engineering journal 47 (2009) 343-
35.
[5] A.C. Long, P. Harrison, M.J. Clifford, C.D. Rudd, 2004, A constituentbased
predictive approach to modeling the rheology of viscous textile
composites. Composites: Part A 35 (2004) 915-931.
[6] A.A. Skordos, C. Monroy Aceves, M.P.F. Sutcliffe, 2007, a simplified
rate dependent model of forming and wrinkling, of pre-impregnated
woven composites, Composites: Part A 38 (2007) 1318-1330.
[7] S.V. Lomov , Ph. Boisse , E. Deluycker , F. Morestin , K. Vanclooster,
D. Vandepitte , I. Verpoest a, A. Willems, 2008 Full-field strain
measurements in textile deformability studies Composites: Part A 39
(2008) 1232-1244.
[8] S. Savci, J.I. Curiskis and M.T. Pailthorpe, 2000 A study of the
deformation of weft-knit preforms for advanced composite structures
Part 1: Dry perform properties, Composites Science and Technology 60
(2000) 1931-1942.
[9] H. Lin, J. Wang, A.C. Long, M.J. Clifford, P. Harrison,2007 Predictive
modeling for optimization of textile composite forming, Composites
Science and Technology 67 (2007) 3242-3252.
@article{"International Journal of Chemical, Materials and Biomolecular Sciences:58864", author = "T.A. Adegbola and IEA Aghachi and E.R. Sadiku", title = "The Effect of Clamping Restrain on the Prediction of Drape Simulation Software Tool", abstract = "To investigates the effect of fiberglass clamping
process improvement on drape simulation prediction. This has
great effect on the mould and the fiber during manufacturing
process. This also, improves the fiber strain, the quality of the
fiber orientation in the area of folding and wrinkles formation
during the press-forming process. Drape simulation software
tool was used to digitalize the process, noting the formation
problems on the contour sensitive part. This was compared
with the real life clamping processes using single and double
frame set-ups to observe the effects. Also, restrains are
introduced by using clips, and the G-clamps with predetermine
revolution to; restrain the fabric deformation during the
forming process.The incorporation of clamping and fabric
restrain deformation improved on the prediction of the
simulation tool. Therefore, for effective forming process,
incorporation of clamping process into the drape simulation
process will assist in the development of fiberglass application
in manufacturing process.", keywords = "clamping, fiberglass, drape simulation, pressforming.", volume = "4", number = "6", pages = "427-4", }