Continuous glass/polypropylene (GF/PP) commingled fiber tapes were employed to produce wrapped pressure gas vessels for domestic applications by using filament winding. The vessel structural-wall was built using a hybrid solution consisting in a very thin steel liner over wrapped by the filament wounded GF/PP commingled fiber tape layers. FEM analysis was used to evaluate if the composite gas pressure vessel based on the hybrid solution (steel liner + glass fiber reinforced thermoplastic) is capable to withstand the following pressure requirements: the metallic liner, alone, a minimum burst pressure of 4MPa and whole hybrid composite vessel minima internal test and burst pressures of 3 MPa and 6.75 MPa, respectively. Finally, gas pressure vessel prototypes manufactured in industrial cycle conditions were submitted to burst pressure tests to prove that they accomplish all European standard strength requirements.
Brandt, J., Drechsler, K. and Richter, H. (1993). The Use of High-Performance Thermoplastic Composites for Structural Aerospace Applications, In: 9th Int. Conference on Composite Materials (ICCM-9), Vol. 6, pp. 143-150, Madrid, Spain.
2.
Newling, D.O. (1968). Filament Winding: A Critical Survey of Materials, Processes and Applications, AWRE Report No. 081/68. United Kingdom Atomic Energy Authority.
3.
Rosato, D.V. and Grove, C.S. (1964). Filament Winding: Its Development, Manufacture, Applications and Design, Polymer Engineering & Technology, Interscience, New York.
4.
Hofeditz, J.T. (1964). Structural Design Considerations for Fibrous Glass Pressure Vessels, Modern Plastics, April, 41: 127-145.
5.
Kitzmiller, A.H., Dehaven, C.C. and Yuong, R.E. (1959). Design Considerations for Spirally Glass-Reinforced Filament-Wound Structures as Rocket Inert Parts. ARS Preprint, November, 983-989.
6.
Johna, R.H. and Kaufman, A. (1966). Filament Overwrapped Metallic Cylindrical Pressure Vessels, AIAA/ASME 7th Structures and Materials Conference, pp. 52-63, Cocoa Beach, FL.
7.
Morris, E.E. and Alfring, R.J. (1967). Cryogenic Boron-Filament-Wound Containment Vessels, NASA CR-72330.
8.
Elliman, D.G., Young, K., Edwards, K.L., Middleton, V. and Owen, M.J. (1986). Computer Aided Design and Manufacture of Filament Wound Components, In: Proceedings Int. Conference on Computer-Aided Production Engineering, pp. 357-361, Edinburgh, Scotland.
9.
Guillermin, O. (2002). Advanced CAD Integrated Software for The Cost-Effective Design and Manufacturing of Composite Structures. In: Proceedings of the 14th Int. Conference on Composite Materials, San Diego, CA, USA.
10.
Mazumdar, S.K. (2002). Composites Manufacturing: Materials, Product, and Process Engineering, Boca Raton, FL: CRC Press.
11.
Johansen, B.S. and Lystrup, A. (1998). CADPATH: A Complete Program for The CAD-, CAE- and CAM-Winding of Advanced Fibre Composites, Journal of Materials Processing Technology, 77: 194-200.
12.
Scholliers, J. and Brussel, H. (1994). Computer-Integrated Filament Winding: Computer-Integrated Design, Robotic Filament Winding and Robotic Filament Winding and Robotic Quality Control, Composites Manufacturing , 5(1): 1103-1112.
13.
Simoes, J.A.O. , Wu, S.T. and Loseries, F. (1993). Visual Simulation of the Geodesic and Non-geodesic Trajectories of the Filament Winding, Proceedings of Workshop on Graphics Modelling and Visualization in Science and Technology, pp. 199-215, Berlin, Germany.
14.
Middleton, V. , Young, K.W., Elliman, D.G. and Owen, M.J. (1986). Software for Filament Winding, Automated Composites, 9.1-9.6. ThePlastics & Rubber Institute, Nottingham, UK.
15.
Owen, M.J., Elliman, D.G., Middleton, V., Young, K. and Weatherby, N. (1986). Advanced Manufacturing Technology for Filament Winding, Polymer Processing. Automation. 22.1-22.13, The Plastics & Rubber Institute, Esher, Surrey , UK.
16.
http://www.material.be (accessed on 28 October 2007).
17.
http://www.entec.com (accessed on 28 October 2007 )
18.
Zickel, J. (1962). Isotensoid Pressure Vessels, ARS Journal, 32: 950-951.
19.
Calius, E.P. and Springer, G.S. (1990). A Model of Filament-Wound Thin Cylinders, Int. Journal of Solids and Structures, 26(3): 271-297.
20.
Calius, E.P. and Springer, G.S. (1988). Filament Winding Process Simulation, In: The Manufacturing Science of Composites, Proceedings of Manufacturing International, Atlanta, USA, pp. 49-56.
21.
Di Vita, G., Grimaldi, M., Marchetti, M. and Moroni, P. (1990). The Filament Winding Manufacturing Technique: Studies on the Determination of the Friction Coefficient and on The Optimization of Feed-Eye Motion, In: Proceedings of the 22nd International SAMPE Technical Conference, pp. 972-979, Boston, MA, USA.
22.
Di Vita, G., Marchetti, M. and Perugini, P. (1992). Designing Complex Shape Filament-Wound Structures, Composites Manufacturing, 3(1): 53-58.
23.
Marchetti, M. , Cutolo, D. and Di Vita , G. (1989). Filament Winding of Composite Structures: Validation of the Manufacturing Process, In: Proceedings of the 7th Int. Conference on Composite Materials, Vol. 7, pp. 135-140.
24.
Perugini, P., Ferraro, F. and Di Vita, G. (1993). Optimisation of Mandrel Coverage for Complex Shape Structures Made by Filament Winding Technology. In: 9th Int. Conference on Composite Materials (ICCM-9), Vol. 3, pp. 455-461, Madrid, Spain.
25.
Marchetti, M. , Cutolo, D. and Di Vita , G. (1989). Design of Domes by Use of The Filament Winding Technique. In: Developments in the Science and Technology of Composite Materials , pp. 401-408, European association for composite materials, March, 1989, Bordeaux, France.
26.
Mazumdar, S.K. and Hoa, S.V. (1995). Analytical Models for Low Cost Manufacturing of Composite Components by Filament Winding, Part I: Direct Kinematics, Journal of Composite Materials, 29(11): 1515-1541.
27.
Mazumdar, S.K. and Hoa, S.V. (1995). Analytical Models for Low Cost Manufacturing of Composite Components by Filament Winding, Part II: Inverse kinematics, Journal of Composite Materials, 29(13): 1762-1789.
28.
Wells, G.M. and Eckold, G.C. (1986). Computer Aided Design and Manufacture of Filament Wound Composite Structures, Proceedings. of the 1st Conference on Automated Composites, Science and Technology, The Plastics & Rubber Institute, 6.1-6.16, Hornchurch , Essex, UK.
29.
Wells, G.M. and McAnulty, K.F. (1987). Computer Aided Filament Winding Using Non-Geodesic Trajectories, In: Proceedings of the 2nd European Conf. on Composite Materials (ICCM/ECCM), Vol. 1, pp. 161-173, London.
30.
Liang, Y.D., Zou, Z.Q. and Zhang, Z.F. (1996). Quasi-Geodesics- A New Class of Simple and Non-Slip Trajectories on Revolutional Surfaces, In: Proceedings of the 28th Int. SAMPE Technical Conference, pp. 1071-1079, Seattle, WA, USA.
31.
Xian-li, L. and Dao-hai, L. (1987). Non-Geodesic Winding Equations on A General Surface of Revolution, In: Proceedings of the 2nd European Conf. on Composite Materials (ICCM/ECCM), Vol. 1, pp. 152-160, London.
32.
Tauchert, T.R. (1981). Optimum Design of A Reinforced Cylindrical Pressure Vessel, Journal of Composite Materials , 15: 390-402.
33.
Adali, S., Sumers, E.B. and Verijenko, V.E. (1993). Optimization of Laminated Cylindrical Pressure Vessels under Strength Criterion, Composite Structures, 25(3): 305-312.
34.
Eckold, G.C. (1985). A Design Method for Filament Wound GRP Vessels and Pipework, Composites, 16: 41-47.
35.
Fukunaga, H. and Chou, T.W. (1988). Simplified Design Techniques for Laminated Cylindrical Pressure Vessels under Stiffness and Strength Constraints , Journal of Composite Materials, 22: 1157-1169.
36.
Chang, R.R. (2000). Experimental and Theoretical Analyses of First-Ply Failure of Laminated Composite Pressure Vessels, Composite Structures, 49: 237-243.
37.
Kabir, M.Z. (2000). Finite Element Analysis of Composite Pressure Vessels with a Load Sharing Metallic Liner, Composite Structures , 49: 247-255.
38.
Vasiliev, V.V. and Krikanov, A.A. (2003). New Generation of Filament-Wound Composite Pressure Vessels for Commercial Applications, Composite Structures, 62: 449-459.
39.
Koussios, S. (2004). Filament Winding: a Unified Approach, PhD thesis , Delft University.
40.
Werdermann, C. , Friedrich, K., Cirino, M. and Pipes, B. (1989). Design and Fabrication of an On-line Consolidation Facility for Thermoplastic CompositesJournal of Thermoplastic Composite Materials, 2: 293-306.
41.
Astrom, B.T. and Pipes, R.B. (1990) . Thermoplastic Filament Winding with On-line Impregnation , Journal of Thermoplastic Composite Materials, 3: 314-324.
42.
Ye, L., Klinkmuller, V. and Friedrich, K. (1992). Impregnation and Consolidation Mechanisms in Processing of GF/PP Composites from Powder Impregnated Fiber Bundles, In: Proceedings of ECCM5, pp. 423-428, Bordeaux , France.
43.
Duvall, M. and Ramani, K. (1995). In-situ Composite Manufacture Using an Electrostatic Spray Process and Filament Winding, In: 10th International Conference on Composite Materials (ICCM 10), Vol. 3, pp. 469-476, Whistler, Canada.
44.
Aivazzadeh, S., Ateba, J.A., Hearn, D. and Vervhery, G. (1995). A Prototype Machine for the Manufacture of Filament-Wound Thermoplastic Matrix Composite Structures , In: 10th International Conference on Composite Materials (ICCM 10), Vol. 3, pp. 389-396, Whistler , Canada.
45.
Haupert, F. and Friedrich, K. (1995). Processing-Related Consolidation of High Speed Filament Wound Continuous Fibre/Thermoplastic Composite Rings , Composites Manufacturing, 6(3/4): 201-210.
46.
Funck, R. and Neitzel, M. (1995). Improved Thermoplastic Tape Winding Using Laser or Direct-flame Heating, Composites Manufacturing, 6(3): 189-192.
47.
Sharp, R., Holmes, S. and Woodall, C. (1995). Material Selection/Fabrication Issues for Thermoplastic Fiber PlacementJournal of Thermoplastic Composite Materials , 8: 2-14.
48.
Romagna, J. , Ziegmann, G. and Flemming, M. (1995). Thermoplastic Filament Winding-an Experimental Investigation of the On-line Consolidation of Poly(ether imide) FIT Preforms, Composites Manufacturing, 6(3-4): 205-210.
49.
Sala, G. and Cutolo, D. (1996). Heated Chamber Winding of Thermoplastic Powder-impregnated Composites Part 1. Technology and Basic Thermochemical Aspects, Composites: Part A, 27A: 387-392.
50.
Duvall, F. (1999). Cost Comparisons of Wet Filament Winding Versus Prepreg Filament Winding for Type II and Type IV CNG Cylinders, In: Proceedings of 12th International Conference on Composite Materials (ICCM 12), Paris, France.
51.
Nunes, J.P. , Silva, J.F., Marques, A.T., Crainic, N. and Cabral-Fonseca , S. (2003). Production of Powder Coated Towpregs and Composites, Journal of Thermoplastic Composite Materials, 16(3): 231-248.
52.
http://www.ragasco.com (accessed on 28 October 2007).
53.
http://www.bp.com (accessed on 28 October 2007).
54.
http://www.kompozit-praha.cz (accessed on 28 October 2007).
55.
http://www.amtrol-alfa.com (accessed on 28 October 2007).
56.
European Standard EN 12245: 2002, Transportable Gas Cylinders. Fully Wrapped Composite Cylinders, 2002.
57.
http://www.galpenergia.com (accessed on 28 October 2007).
58.
http://www.vetrotex.com (accessed on 28 October 2007).
59.
Tsai, S.W. (1987). Composites Design, Think Composites, USA.
60.
Jones, R.M. (1975). Mechanics of Composite Materials, International Student Edition, MacGraw-Hill Kogakusha Ltd, Tokyo.
61.
Saarela, O. (1992). LAMDA-Laminate Design and Analysis, Helsinki University of Technology, Otaniemi, Finland.
62.
Nunes, J.P., Bernardo, C.A., Pouzada, A.S.e. and Edie, D.D. (1997). Formation and Characterisation of Carbon/Polycarbonate Towpregs and Composites, Journal of Composite Materials, 31(17): 1758-1777.
63.
Chamis, C. and Sendeckyj, G. (1968). Critique on Theories Predicting Thermoplastic Properties of Fibrous Composites, Journal of Composites Materials , July, 2: 332-358.
64.
Chamis, C. (1984). Simplified Composite Micromechanics Equations for Strength, Fracture Toughness and Environmental Effects, Proc. of SAMPE Quartely, July, pp. 41-55.
65.
Chamis, C. and Stock, T. (1990). Probabilistic Simulation of Uncertainties in Composite Uniaxial Strengths, Proc. of 45th SPI Annual Conference , pp. 1-7, Session 20F, February.
