Abstract
Polymer matrix fibre reinforced composites have been employed in marine applications for over 50 years, and there is considerable experience of their long term behaviour. However, the recent development of systems designed to recover ocean energy, such as tidal turbines and wave energy generators, imposes much more severe constraints on materials than traditional structures. The requirements in terms of sea water aging and fatigue resistance require specific test programmes; this presentation will describe some of these applications and the tests needed to guarantee long term behavior of composites for these structures. Some results from studies performed in this area at Ifremer over the last 5 years will be discussed.
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References
European Science Foundation (2010) Marine Board, Vision Document, Oct 2010
Bahaj AS (2011) Generating electricity from the oceans. Ren Sust Energy Reviews 15:3399–3416
Renewables UK (2013) Wave and tidal energy in the UK, Feb
Fraenkel P (2010).In: Proceedings—Fluid Machinery Group—Ocean Power Fluid Machinery Seminar, Institution of Mechanical Engineers—19th Oct 2010, London
Renewable Energy Focus (2010) OpenHydro tidal turbine recovered—blades missing, Dec 2010http://www.renewableenergyfocus.com
Smith CS (1990) Design of marine structures in composite materials. Elsevier Science, Publishers, London
Davies P, Lemoine L, (1992) Nautical applications of composite materials. Proceedings 3rd IFREMER Conference, Paris, France
Shenoi RA, Wellicome JF (eds) (2008) Composites in maritime structures. Cambridge University Press, Cambridge
Springer GS (ed) (1981) Environmental effects on composite materials, Technomic
Martin R (ed) (2008) Aging of Composites. Woodhead Publishing, Cambridge
Weitsman YJ (1991) Moisture in composites. In: Reifsnider KL (ed) Fatigue of composites. Elsevier, Netherland, pp 385–429
Weitsman YJ (2012) Fluid effects in polymers and polymeric composites. Springer, New York
Davies P, Mazeas F, Casari P et al (2001) Sea water aging of glass reinforced composites: shear behaviour and damage modelling. J Compos Mater 35(15):1343–1372
Charles RJ (1958) Static fatigue of glass I. J Appl Physics 29(11):1549–1560
Price JN, Hull D (1983) Propagation of stress corrosion cracks in aligned glass fibre composite materials. J Mat Sci 18:2798–2810
Pritchard G, Speake SD (1988) Effects of temperature on stress-rupture times in glass/polyester laminates. Composites 19(1):29–35
Gaurier B, Davies P, Deuff A, Germain G (2013) Flume tank characterization of marine current turbine blade behaviour under wave and current loading. Renew Energy 59:1–12
Harris B (ed) (2003) Fatigue in composites. Woodhead Publishers, Cambridge
Echtermeyer AT, Kensche C, Bach P, Poppen M, Lilholt H, Andersen SI et al (1996) Method to predict fatigue lifetimes of GRP wind turbine blades and comparison with experiments. In: Proceedings of European union wind energy conference. Göteborg, Sweden, 20–24 May 1996
Nijssen RPL, vanWingerde AM, vanDelft DRV (2007) Wind turbine rotor blade materials: estimating service lives. SAMPE J 43(2):7–15
Selvarathinam AS, Weitsman YJ (1998) Transverse cracking and delamination in cross-ply Gr/Ep composites under dry, saturated and immersed fatigue. Int J Fract 91(2):103–116
Selvarathinam AS, Weitsman YJ (1999) A shear-lag analysis of transverse cracking and delamination in cross-ply carbon-fibre/epoxy composites under dry, saturated and immersed fatigue conditions. Comp Sci and Technol 59(14):2115–2123
Vauthier E, Abry JC, Bailliez T, Chateauminois A (1998) Interactions between hygrothermal ageing and fatigue damage in unidirectional glass/epoxy composites. Compos Sci Technol 58:687–692
Pauchard V, Chateauminois A, Grosjean F, Odru P (2002) In situ analysis of delayed fibre failure within water-aged GFRP under static fatigue conditions. Int J Fatigue 24:447–454
Kotsikos G, Evans J, Gibson A, Hale J (2000) Environmentally enhanced fatigue damage in glass fibre reinforced composites characterised by acoustic emission. Comp. Part A 31(9):969–977
Poodts E, Minak G, Zucchelli A (2013) Impact of seawater on the quasi static and fatigue flexural properties of GFRP. Compos Struct 97:222–230
McBagonluri F, Garcia K, Hayes M, Verghese KNE, Lesko JJ (2000) Characterization of fatigue and combined environment on durability performance of glass/vinyl ester composite for infrastructure applications. Int J Fatigue 22:53–64
Mandell JF (1978) Fatigue behavior of fiber-resin composites. In: Pritchard G (ed) Developments in reinforced plastics 2. Applied Sciences Publisher, London
Neumann S, Marom G (1987) Prediction of moisture diffusion parameters in composite materials under stress. J Comp Mats 21(1):68–80
Suri C (1995) Study of the coupling of absorption and damage phenomena in a glass-epoxy composite, PhD thesis (in French). University of Franche Comté
Perreux D, Suri C (1997) A study of the coupling between the phenomena of water absorption and damage in glass/epoxy composite pipes. Comp Sci Tech 57(9–10):1403–1413
Davies P, Choqueuse D (2008) Ageing of composites in marine vessels, chapter 12 in Ref. [10]
Choqueuse D, Davies P (2008) Ageing of composites in underwater applications, chapter 18 in Ref. [10]
Boisseau A (2011) Long term durability of composites for ocean energy conversion systems, PhD thesis. Available at: http://archimer.ifremer.fr/doc/00031/14247/
Boisseau A, Davies P, Thiebaud F (2012) Sea water ageing of composites for ocean energy conversion systems: influence of glass fibre type on static behaviour. Appl Compos Mater 19:459–473
Boisseau A, Davies P, Thiebaud F et al (2013) Fatigue behavior, of glass fibre reinforced composites for ocean energy conversion systems. Appl Compos Mater 20(2):145–155
Davies P, Germain G, Gaurier B, Boisseau A, Perreux D (2013) Evaluation of the durability of composite tidal turbine blades. Roy Soc Philos Trans A 371
DNV, Offshore standard on composite components, DNV-OS-C501, Oct 2010
Lloyd G (2012) Guideline for the certification of ocean energy converters, part 1. Ocean Current turbines
Bordes M, Davies P, Cognard J-Y, Sohier L, Sauvant-Moynot V, Galy J (2009) Prediction of long term strength of adhesively bonded steel/epoxy joints in sea water. Int J Adhes Adhes 29(6):595–608
Leger R, Roy A, Grandidier JC (2013) A study of the impact of humid aging on the strength of industrial adhesive joints. Int J Adhes and Adhes 44:66–77
Blommaert C, van Paepegem et al. (2010) Large scale slamming tests on composite buoys for wave energy applications. In: Proceedings of 17th international conference on composite materials, (ICCM17). Edinburgh, 2010
Jean P, Wattez A, Ardoise G, Melis C, van Kessel R, Fourmon A, Barrabino E, Heemskerk J, Queau JP (2012) Standing wave tube electro active polymer wave energy converter. In: Proceedings of SPIE smart structures and materials conference, San Diego, Mar 2012
Weller S, Davies P, Thies P, Johanning L (2012) Durability of synthetic mooring lines for ocean energy devices. In: Proceedings of 4th international conference on ocean energy (ICOE), Dublin, Oct 2012
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Davies, P. (2014). Accelerated Aging Tests for Marine Energy Applications. In: Davies, P., Rajapakse, Y. (eds) Durability of Composites in a Marine Environment. Solid Mechanics and Its Applications, vol 208. Springer, Dordrecht. https://doi.org/10.1007/978-94-007-7417-9_8
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DOI: https://doi.org/10.1007/978-94-007-7417-9_8
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