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Effect of Impactor Mass on CFRP in Arctic Condition under Low-Velocity Impact



This study investigates the impact response and damage characterization of carbon fiber reinforced polymer (CFRP) under low-velocity impact by impactors of different masses and velocities at 62J. Low-velocity impacts are conducted at room temperature (23ºC) as well as low temperature (-70ºC) conditions in the thermal chamber of the drop tower testing machine, Instron CEAST 9350. The aim is to observe composite behavior in the cold Arctic environment due to equal energy impacts. Moreover, a 3mm thickness of ice is created on the CFRP samples at -12ºC after 24 hours of freezing and impacted at -70ºC. The goal is to elucidate the contribution of surface ice on the overall impact damage of composites. X-ray micro-computed tomography is utilized to reveal the inner damages of the composite structures. Intralaminar damage in the form of fiber breakage is found as the dominant failure mode on the CFRP samples from 62J impacts. But differences in the delamination and matrix crack formation are identified for different mass-velocity configurations and environmental conditions. Results show that low mass impactors produce a larger damage initiation force on the composites at all temperatures, whereas no specific trend is observed in the peak force values due to severe fiber failure. Although higher mass impactors show longer impact duration, lower mass impactors develop greater damage on the CFRP, as seen by a greater reduction in specimen stiffness. Furthermore, the presence of ice is observed to have a minimal effect on the damage behavior of composites. But ice layer assists to reduce the amplitude of initial load drop by the low mass impactor and as such, less permanent displacement is identified in the CFRP specimens than both room temperature and low-temperature conditions. This study explores the understanding of the dynamic behavior of composites under low-temperature icy conditions.


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Vihma, T. 2014. “Effects of Arctic Sea Ice Decline on Weather and Climate: A Review,†Surv.

Geophys., 35(5):1175-1214.

Elamin, M., B. Li, and K.T. Tan. 2018. “Impact Performance of Stitched and Unstitched

Composites in Extreme Low Temperature Arctic Conditions,†J. Dyn. Behav. Mater., 4:317–

Pernas-Sánchez, J., D.A. Pedroche, D. Varas, J. López-Puente, and R. Zaera. 2012. “Numerical

Modeling of Ice Behavior under High Velocity Impacts,†Int. J. Solids Struct., 49(14):1919-

Pernas-Sanchez J, J.A. Artero-Guerrero, and D. Varas, J. Lopez-Puente J. 2015. “Analysis of

Ice Impact Process at High Velocity,†Exp. Mech., 55:1669–1679.

Kim, H., D.A. Welch, and K.T. Kedward. 2003. “Experimental Investigation of High Velocity

Ice Impacts on Woven Carbon/Epoxy Composite Panels,†Compos. Part A Appl. Sci. Manuf.,


Coles, L.A., A. Roya, N. Sazhenkovb, L. Voronovb, M. Nikhamkinb and V.V. Silberschmidt.

“Ice vs. Steel: Ballistic Impact of Woven Carbon/Epoxy Composites. Part I –

Deformation and Damage Behaviour,†Eng. Fract. Mech., 225:106270.

Cantwell, W.J. and J. Morton. 1991. “The Impact Resistance of Composite Materials-A

Review,†Composites, 22(5):347-362.

Elamin, M., B. Li, and K.T. Tan. 2018. “Impact Damage of Composite Sandwich Structures in

Arctic Condition,†Compos. Struct., 192:422-433.

Im, K.H., C.S. Cha, S.K. Kim, and I.Y. Yang. 2001. “Eff ects of Temperature on Impact

Damages in CFRP Composite Laminates,†Compos. B. Eng., 32(8):669–682.

Go´mez-del, R., R. Zaera, E. Barbero, and C. Navarro. 2005. “Damage in CFRPs due to low

Velocity Impact at Low Temperature,†Compos. B. Eng., 36:41–50.

Jia, Z., T. Li, F.P. Chiang, and L. Wang. 2018. “An Experimental Investigation of the

Temperature Effect on the Mechanics of Carbon Fiber Reinforced Polymer Composites,â€

Compos. Sci. Technol., 154:53–63.

Castellanos, A.G., K. Cinar, I. Guven, and P. Prabhakar. 2018. “Low-Velocity Impact Response

of Woven Carbon Composites in Arctic Conditions,†J. Dyn. Behav. Mater., 4:308–316.

Benli, S., and O. Sayman. 2011. “The Effects of Temperature and Thermal Stresses on Impact

Damage in Laminated Composites,†Math. Comput. Appl., 16:392–403.

Shah, S.Z.H., S. Karuppanan, P.S.M. Megat-Yusoff, and Z. Sajid. 2019. “Impact Resistance and

Damage Tolerance of Fiber Reinforced Composites: A Review,†Compos. Struct., 217:100–121.

Zabala, H., L. Aretxabaleta, G. Castillo, J. Urien, and J. Aurrekoetxea. 2014. “Impact Velocity

Effect on the Delamination of Woven Carbon–Epoxy Plates Subjected to Low-Velocity

Equienergetic Impact Loads,†Compos. Sci. Technol., 94:48–53.

Artero-Guerrero, J.A., J. Pernas-Sánchez, J. López-Puente and D. Varas. 2015. “Experimental

Study of the Impactor Mass Effect on the Low Velocity Impact of Carbon/epoxy Woven

Laminates,†Compos. Struct., 133:774–781.

Yang, B., Y. Chen, J. Lee, K. Fu, and Y. Li. 2021. “In-Plane Compression Response of Woven

CFRP Composite after Low-velocity Impact: Modelling and Experiment,†Thin-Walled Struct.,


Feraboli, P., and K.T. Kedward. 2006. “A New Composite Structure Impact Performance

Assessment Program,†Compos. Sci. Technol., 66:1336–1347.

Prasad, C.B., D.R. Ambur, and J.H. Starnes. 1994. Response of Laminated Composite Plates to

Low Speed Impact by Different Impactors. AIAA J, 32(6):1270–1277.

Banik,A. and K.T. Tan. 2020. “Low Velocity Impact Testing of Ice on Steel and Composite

Specimen,†presented at ASC 35th Technical (Virtual) Conference, September 14 –17,

Schoeppner, G.A., and S. Abrate. 2000. “Delamination Threshold Loads for Low Velocity

Impact on Composite Laminates,†Compos. Part A Appl. Sci. Manuf., 31:903–915.

Vaidya, U.K. 2011. “Impact Response of Laminated and Sandwich Composites,†in Impact

Engineering of Composite Structures, CISM International Centre for Mechanical Sciences,

S. Abrate, eds. Vienna: Springer, pp. 97-191.

Zsombor, S.Z, and B. Richard. 2020. “Properties of Cryogenic and Low Temperature

Composite Materials – A review,†Cryogenics, 111:103190.


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