The purpose of the paper is the estimation of the polyvinyl chloride – polyester-coated fabric (Precontraint 1202 S2) mechanical properties under uniaxial tensile tests as well as short- and long-time creep tests. The uniaxial tests are the basis of non-linear elastic description while the creep tests are used for the evaluation of the stiffness parameters in time and for the identification of the standard viscoelastic model. The paper also includes a short survey of literature concerning the coated woven fabric description.
Houtman R and Orpara M. Materials for membrane structures. Bauen mit Textilien 2000; 4: 27–32.
2.
Zagubień A. Textile constructions [in Polish]. In: General construction of buildings. Warsaw: Arkady, 2009, pp.575–594.
3.
MattinsonEH. The coating of fabrics with P.V.C. J Text Inst Proc1960; 51: 690–698.
4.
Sebring RE, Schoppee MW, Freeston WD, et al. Biaxial tensile tests of coated fabrics. Technical Report 69-75-GP of the General Equipment & Packing laboratory, US Army Natick Laboratories, 1969.
5.
Deaton JW. Air permeability studies of a light coated fabric subjected to uniaxial tensile loads with and without prior cycling. NASA Technical Note D-5931, 1970, p.1–22.
6.
Faoro RA. A test method for measuring the stiffness of coated fabrics at low temperatures. Technical Report R-TR-76-001, 1975.
7.
ReinhardtHW. On the biaxial testing and strength of coated fabrics. Exp Mech1976; 16: 71–74.
8.
StubbsNThomasS. A nonlinear elastic constitutive model for coated fabrics. Mech Mater1984; 3: 157–168.
9.
Day AS. Stress–strain equations for non-linear behaviour of coated woven fabrics. In: Heki K (ed.) IASS symposium proceedings: shells, membranes and space frames, Osaka, Japan, 15–19 September 1986, pp.17–24. Amsterdam: Elsevier.
10.
FilipkowskiJJacoszekJ. Mechanical properties of covered textile material [in Polish]. Arch Civil Eng1988; 2: 243–259.
11.
ArgyrisJDoltsinisIStSilvaVD. Constitutive modelling and computation on non-linear viscoelastic solid. Part I: rheological models and numerical integration techniques. Comput Methods Appl Mech Eng1991; 88: 135–163.
12.
SaxeKKürtenR. Investigation about the temperature-depending stress–strain behaviour of PTFE-coated glass fabrics at usual treatment temperatures. Bauingenieur1992; 67: 291–296.
13.
ChenYLloydDWHarlockSC. Mechanical characterisation of coated fabrics. J Text Inst1995; 86: 690–700.
14.
Szostkiewicz-ChatainCHamelinP. Numerical and experimental stiffness characterisations applied to soft textile composites for tensile structures. Mater Struct1998; 31: 118–125.
15.
KatoSYoshinoTMinamiH. Formulation of constitutive equations for fabric membranes based on the concept of fabric lattice model. Eng Struct1999; 21: 691–708.
16.
BassettRJPostleRPanN. Experimental methods for measuring fabric mechanical properties: a review and analysis. Text Res J1999; 69: 866–875.
17.
WeiDWangCXiangY. Experimental study on material properties of structural fabric. Spatial Struct2002; 8: 37–43.
18.
BigaudDSzostkiewiczCHamelinP. Tearing analysis for textile reinforced soft composites under mono-axial and bi-axial tensile stresses. Compos Struct2003; 62: 129–137.
19.
BridgensBNGoslingPD. Direct stress–strain representation for coated woven fabric. Comput Struct2004; 82: 1913–1927.
20.
KłosowskiPZagubieńAWoźnicaK. Investigation on rheological properties of technical fabric “Panama”. Arch Appl Mech2004; 73: 661–681.
21.
NingYChenN. A study on the tensile properties of polyester multiaxial warp knitted flexible composites. Tech Text Prod2005; 8: 19–22.
22.
ParganaJBLloyd-SmithDIzzuddinBA. Advanced material model for coated fabrics used in tensioned fabric structures. Eng Struct2007; 29: 1323–1336.
23.
PadleckieneIPetrulisD. The change of air permeability and structure of breathable-coated textile materials after cyclic stretching. Medziagotyra2008; 14: 162–165.
24.
LuoYHongHFangueiroR. Tensile and tearing properties of PVC coated biaxial warp knitted fabrics under biaxial loads. Indian J Fibre Text Res2008; 33: 146–150.
25.
ChenSDingXFangueiroR. Tensile behavior of PVC-coated woven membrane materials under uni- and bi-axial loads. J Appl Polym Sci2008; 107: 2038–2044.
26.
NiJLuoR-AChenY-L. Characteristics of architectural membrane materials under biaxial tensile loads. Gongcheng Lixue/Eng Mech2009; 26: 100–104.
27.
LuoYHuH. Mechanical properties of PVC coated bi-axial warp knitted fabric with and without initial crack under multi-axial tensile loads. Compos Struct2009; 89: 536–542.
28.
GalliotCLuchsingerRH. A simple model describing the non-linear biaxial tensile behaviour of PVC-coated polyester fabrics for use in finite element analysis. Compos Struct2009; 90: 438–447.
29.
KłosowskiPKomarWWoznicaK. Finite element description of nonlinear viscoelastic behaviour of technical fabric. Constr Build Mater2009; 23: 1133–1140.
30.
GalliotCLuchsingerRH. The shear ramp: a new test method for the investigation of coated fabric shear behaviour – part II: experimental validation. Compos Part A2010; 41: 1750–1759.
31.
ZhangYZhangQZhouC. The visco-elastic behaviors of PVC coated fabrics under different stress and temperatures. Adv Mater Res2011; 168–170: 1476–1479.
AmbroziakAKłosowskiP. Review of constitutive models for technical woven fabrics in finite element analysis. AATCC Rev2011; 5–6: 58–67.
34.
LubowieckaI. Mathematical modelling of implant in an operated hernia for estimation of the repair persistence. Comput Methods Biomech Biomed Eng2015; 18: 438–445.
35.
LubowieckaI. Behaviour of orthotropic surgical implant in hernia repair due to the material orientation and abdomen surface deformation. Comput Method Biomech Biomed Eng2015; 18: 223–232.
36.
ZhangYZhangQLvH. Mechanical properties of polyvinylchloride-coated fabrics processed with Precontraint® technology. J Reinf Plast Compos2012; 31: 1670–1684.
37.
BridgensBGoslingPJouG-T. Inter-laboratory comparison of biaxial tests for architectural textiles. J Text Inst2012; 103: 706–718.
38.
ChenJHouHChenW. Study on deformation performance of PVC membrane materials under biaxial cyclic tensile loads. Adv Mater Res2012; 479–481: 36–40.
GlaserRCacceseV. Experimental methods to determine in-plane material properties of polyurethane-coated nylon fabric. J Text Inst2013; 104: 682–698.
41.
AmbroziakAKłosowskiP. Mechanical properties of polyvinyl chloride-coated fabrics under cyclic tests. J Reinf Plast Compos2014; 33: 225–234.
42.
AmbroziakAKłosowskiP. Influence of thermal effects on mechanical properties of PVDF-coated fabrics. J Reinf Plast Compos2014; 33: 663–673.
43.
Ż erdzickiKKłosowskiPWoźnicaKApplication of the Bodner-Partom constitutive equations for modelling the technical fabric Valmex used for the hanging roof of the Forest Opera in Sopot. In: PietraszkiewiczWGorskiJ (eds). Shell structures: Theory and Applications, vol. 3. London: Taylor & Francis, 2014, pp. 579–582.
44.
AmbroziakAKłosowskiP. Mechanical properties for preliminary design of structures made from PVC coated fabric. Constr Build Mater2014; 50: 74–81.
45.
ChenJChenWZhangD. Experimental study on uniaxial and biaxial tensile properties of coated fabric for airship envelopes. J Reinf Plast Compos2014; 33: 630–647.
46.
ChenWHaoHIrawanP. Experimental investigations of fabric material against projectile impacts. Constr Build Mater2016; 104: 142–153.
47.
ChenJChenWZhaoB. Mechanical responses and damage morphology of laminated fabrics with a central slit under uniaxial tension: a comparison between analytical and experimental results. Constr Build Mater2015; 101: 488–502.
Chen J and Chen W. Central crack tearing testing of laminated fabric Uretek3216LV under uniaxial and biaxial static tensile loads. J Mater Civil Eng 2016; 28. Article ID: 04016028.
50.
Wu M, Li Y and Shang Y. Statistical characteristics of ethylene tetrafluoroethylene foil’s mechanical properties and its partial safety factors. J Mater Civil Eng 2016; 28. Article ID: 04016004.
51.
MengLWuM. Study on stress relaxation of membrane structures in the prestress state by considering viscoelastic properties of coated fabrics. Thin-Walled Struct2016; 106: 18–27.
52.
Zhang L. Off-axial tensile properties of precontraint PVDF coated polyester fabric under different tensile rates. Adv Mater Sci Eng 2016; Article ID 9856474.
53.
Meng J, Cao S, Qu Z, et al. Thermoelasticity of a fabric membrane composite for the stratospheric airship envelope based on multiscale models. Appl Compos Mater. Epub ahead of print 2016. DOI: 10.1007/s10443-016-9522-3.
54.
Meng J, Lv M, Tan D, et al. Mechanical properties of woven fabric composite for stratospheric airship envelope based on stochastic simulation. J Reinf Plast Compos 2016; 35: 1434–1443.
55.
Ż erdzickiKKłosowskiPWoznicaKModelling of the viscoelastic properties of the technical fabric VALMEX. In: KleiberMBurczyńskiTWildeK (eds). Advances in mechanics: Theoretical, computational and interdisciplinary issues, London: CRC Press, 2016, pp. 611–614.