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Mechanics of Composite Materials
Erschienen in: Mechanics of Composite Materials 6/2023

14.01.2023

Prediction of GFRP Self-Heating Kinetics Under Cyclic Bending

verfasst von: A. V. Ignatova, A. V. Bezmelnitsyn, N. A. Olivenko, O. A. Kudryavtsev, S. B. Sapozhnikov, A. D. Shavshina

Erschienen in: Mechanics of Composite Materials | Ausgabe 6/2023

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Abstract

Self-heating effect caused by internal friction is a meaningful problem in design and operation of cyclically loaded structural elements made of fiber-reinforced plastics. Vibrations of aerospace structures with large amplitudes and high frequencies, as well as accelerated mechanical testing can lead to an increase of the composite temperature, degradation of the mechanical properties and premature failure. This research aimed to study the kinetics of GFRP self-heating under reversed bending. A low-parameter analytical model was developed to describe the kinetics of composite self-heating under normal convective heat transfer. The original wedgeshaped specimen and the experimental setup were developed to verify the simulation results. Cyclic bending tests were carried out at the frequencies from 10 to 20 Hz and displacement amplitudes from 4 to 7 mm. The model proposed enables to predict the dependence of the maximum composite temperature on time, frequency, and amplitude with reasonable accuracy.
Vorheriger Artikel On Determination of the Linear Viscoelastic Compliance and Relaxation Functions for Polymers in One Tensile Test
Nächster Artikel Theoretical-Experimental Approach to Determining the Mechanical Characteristics of Thin Polymer Composite Coatings

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Literatur
1.
E. J. Barbero, Introduction to Composite Materials Design, CRC Press, New York, NY (1998).
2.
G. Voudouris, D. D. Maio, and I. A. Sever, “Experimental fatigue behaviour of CFRP composites under vibration and thermal loading,” Int. J. Fatigue, 140, 105791 (2020).CrossRef
3.
A. K. Shojaei and P. Volgers, “Fatigue damage assessment of unfilled polymers including self-heating effects,” Int. J. Fatigue, 100, 367-376 (2017).CrossRef
4.
A. Katunin, “Thermal fatigue of polymeric composites under repeated loading,” J. Reinf. Plast. and Compos., 31, No. 15, 1037-1044 (2012).CrossRef
5.
A. Goel, K. K. Chawla, U. K. Vaidya, N. Chawla, and M. Koopman, “Characterization of fatigue behavior of long fiber reinforced thermoplastic (LFT) composites,” Mater. Characterization, 60, No. 6, 537-544 (2009).CrossRef
6.
P. P. Oldyrev, “Long-cycle fatigue of a glass-plastic under soft and stiff load,” Mech. Compos. Mater., 17, 142-150 (1981).CrossRef
7.
P. P. Oldyrev, “Self-heating and failure of plastics under cyclic loading,” Mekh. Polimer., 3, No. 3, 483-492 (1967).
8.
V. Bellenger, A. Tcharkhtchi. and Ph. Castaing, “Thermal and mechanical fatigue of a PA66/glass fibers composite material,” Int. J. Fatigue, 28, No. 10, 1348-1352 (2006).CrossRef
9.
J. M. Kenny and M. Marchetti, “Elasto-plastic behavior of thermoplastic composite laminates under cyclic loading,” Composite Structures, 32, 375-382 (1995).CrossRef
10.
F. Lahuerta, R. P. L. Nijssen, F. P. van der Meer and L. J. Sluys, “Experimental–computational study towards heat generation in thick laminates under fatigue loading,” Int. J. Fatigue, 80, 121-127 (2015).CrossRef
11.
A. Katunin and M. Fidali, “Self-heating of polymeric laminated composite plates under the resonant vibrations: Theoretical and experimental study,” Polym. Compos., 33, No. 1, 138-146 (2012).CrossRef
12.
A. Katunin, “Analysis of influence of fibre type and orientation on dynamic properties of polymer laminates for evaluation of their damping and self-heating,” Sci. and Eng. Compos. Mater., 24, No. 3, 387-399 (2017).CrossRef
13.
S. Mortazavian and A. Fatemi, “Fatigue behavior and modeling of short fiber reinforced polymer composites including anisotropy and temperature effects,” Int. J. Fatigue, 77, 12-27 (2015).CrossRef
14.
M. Naderi and M. M. Khonsari, “Thermodynamic analysis of fatigue failure in a composite laminate,” Mech. Mater., 46, 113-122 (2012).CrossRef
15.
S. B. Clay and P. M. Knoth, “Experimental results of fatigue testing for calibration and validation of composite progressive damage analysis methods,” J. Compos. Mater.; 51, No. 15, 2083-2100 (2017).CrossRef
16.
J. Huang, C. Li and W. Liu, “Investigation of internal friction and fracture fatigue entropy of CFRP laminates with various stacking sequences subjected to fatigue loading,” Thin-Walled Struct., 155, 106978 (2020).CrossRef
17.
B. Esmaeillou, P. Ferreira, V. Bellenger, and A. Tcharkhtchi, “Fatigue behavior of polyamide 66/glass fiber under various kinds of applied load,” Polym. Compos., 33, No. 4, 540-547 (2012).CrossRef
18.
Y. Ueki, “High-speed bending-fatigue testing of composite materials,” IOP Conf. Ser.: Mater. Sci. and Eng., 388, No. 1, 012008 (2018).
19.
L. Muller, J.-M. Roche, A. Hurmane, C. Peyrac, and L. Gornet, “Experimental monitoring of the self-heating properties of thermoplastic composite materials during tensile and cyclic tests,” MATEC Web of Conf., 165, 07003 (2018).CrossRef
20.
S. Mortazavian, A. Fatemi, S. R. Mellott, and A. Khosrovaneh, “Effect of cycling frequency and self-heating on fatigue behavior of reinforced and unreinforced thermoplastic polymers,” Polym. Eng. and Sci., 55, No. 10, 2355-2367 (2015).CrossRef
21.
L. Gornet, O. Wesphal, C. Burtin, J.-L. Bailleul, P. Rozycki, and L. Stainier, “Rapid determination of the high cycle fatigue limit curve of carbon fiber epoxy matrix composite laminates by thermography methodology: tests and finite element simulations,” Procedia Eng., 66, 697-704 (2013).CrossRef
22.
T. J. Adam and P. Horst, “Fatigue damage and fatigue limits of a GFRP angle-ply laminate tested under very high cycle fatigue loading,” Int. J. Fatigue, 99, No. 1, 202-214 (2017).CrossRef
23.
W. Harizi, R. Azzouz, A. T. Martins, K. Hamdi, Z. Aboura and K. Khellil, “Electrical resistance variation during tensile and self-heating tests conducted on thermoplastic polymer-matrix composites,” Compos. Struct., 224, 111001 (2019).CrossRef
24.
S. B. Ratner and V. I. Korobov, “Self-heating of plastics during cyclic deformation,” Mekh. Polimer., 1, No. 3, 93-100 (1965).
25.
S. B. Sapozhnikov, A. A. Shabley, and A. V. Ignatova, “Predicting the kinetics of hysteretic self-heating of GFRPs under high-frequency cyclic loading,” Compos. Struct., 226, No. 15, 111214 (2019).
26.
A. Katunin and A. Wronkowicz, “Characterization of failure mechanisms of composite structures subjected to fatigue dominated by the self-heating effect,” Compos. Struct., 180, 1-8 (2017).CrossRef
27.
A. Katunin, “Domination of self-heating effect during fatigue of polymeric composites,” Procedia Struct. Integrity, 5, 93-98 (2017).CrossRef
28.
A. Katunin, “Evaluation of criticality of self-heating of polymer composites by estimating the heat dissipation rate,” Mech. Compos. Mater., 54, No. 1, 53-60 (2018).CrossRef
29.
A. Mahmoudi and B. Mohammadi, “On the evaluation of damage-entropy model in cross-ply laminated composites,” Eng. Fracture Mech., 219, 106626 (2019).CrossRef
30.
F. Lahuerta, T. Westphal, and R. P. L. Nijssen, “Self-heating forecasting for thick laminate specimens in fatigue,” J. Physics: Conf. Ser., 555, 012062 (2014).
31.
A. Katunin, “Finite element simulation of self-heating effect and thermal fatigue of viscoelastic polymer composites,” Computer Methods in Mater. Sci., 12, No. 3, 225-230 (2012).
32.
A. Mahmoudi and B. Mohammadi, “Theoretical-experimental investigation of temperature evolution in laminated composites due to fatigue loading,” Compos. Struct., 225, 110972 (2019).CrossRef
33.
W. Ramberg and W. R. Osgood, “Description of stress-strain curves by three parameters,” Technical Note No. 902, National Advisory Committee for Aeronautics, Washington DC (1943).
34.
A. V. Erpalov and R. A. Peshkov, “Probabilistic-based fatigue damage estimation of switching stationary gaussian random time histories,” // A. A. Radionov and V. R. Gasiyarov (eds), Proc. 6th Int. Conf. on Industrial Eng. (ICIE 2020), Lecture Notes in Mech. Eng., Springer, Cham, Switzerland (2021), pp. 527-536.
35.
36.
H. Kuehling, Physics Handbook [in Russian], Mir, Moscow (1985).
37.
H. Stöcker, Taschenbuch der Physik: Formeln, Tabellen, Übersichten [in Deutsch], Wissenschaftlicher Verlag Harri Deutsch, Frankfurt am Main (2005).
38.
D. Rittel and Y. Rabin, “Investigation of the heat generated during cyclic loading of two glassy polymers. Part II: Thermal analysis,” Mech. Mater., 32, No. 3, 149-159 (2000).CrossRef
Metadaten
Titel
Prediction of GFRP Self-Heating Kinetics Under Cyclic Bending
verfasst von
A. V. Ignatova
A. V. Bezmelnitsyn
N. A. Olivenko
O. A. Kudryavtsev
S. B. Sapozhnikov
A. D. Shavshina
Publikationsdatum
14.01.2023
Verlag
Springer US
Erschienen in
Mechanics of Composite Materials / Ausgabe 6/2023
Print ISSN: 0191-5665
Elektronische ISSN: 1573-8922
DOI
https://doi.org/10.1007/s11029-023-10068-z

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