An Experimental Study Regarding the Vibratory Behaviour for Some Textile Composites

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The paper presents the results of our research in the elaboration and characterization of composites type epoxy - textile fiber and vibration behaviour. These were made by pressing, and the textile fibers we tested were cotton, flax, hemp and wool. Starting from the dynamic response of composite beam with damping (which is in free vibration), there is established a way to determine the damping factor. There has been experimentally determined the damping factors for some samples: sample 1 – built from cotton; sample 2 – built from hemp; sample 3 – built from flax; sample 4 – built from whool.

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267-272

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March 2018

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© 2018 Trans Tech Publications Ltd. All Rights Reserved

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[1] Roşca, V., Ilincioiu, D., et. al., Strength of Materials. Materials Testings, Universitaria Publishing House (2007), Craiova.

Google Scholar

[2] YANG, P.C., NORRIS, C.H., STAVSKY, Y., Elastic Wave Propagation in Heterogeneous Plates, Int. Jour. Solids. Struct., 2 (1965), 664-684.

Google Scholar

[3] WHITNEY, J.M., PAGANO, N.Y., Shear Deformation in Heterogeneous Anisotropic Plates, Jour. Appl. Mech., 37 (1970), 1031-1036.

DOI: 10.1115/1.3408654

Google Scholar

[4] REDDY, J.N., A Review of Refined Theories of Laminated Composites Plates, Shock and Vibration, 22 (1990), 3-17.

Google Scholar

[5] LIBRESCU, L., Formulation of an Elastodynamic Theory of Laminated Shear Deformable Flat Panels, Journ. Sound and Vibr., 147 (1989), 1-12.

DOI: 10.1016/0022-460x(91)90680-i

Google Scholar

[6] LIBRESCU, L., KHDEIR, A.A., Analysis of Symmetric Crass-Ply Laminated Elastic Plates Using a High-Order Theory, Part. I: State of Stress and Displacement, Composites Structures, 79 (1990), 189-213.

DOI: 10.1016/0263-8223(88)90014-1

Google Scholar

[7] KAO, J., RASS, R.J., Bending of multilayer sandwich beams, American Institute of Aeronautic and Astronautics Journal, 6 (1968), 1583-1585.

Google Scholar

[8] SWIFT, G.W., HELLER, R.A., Layered beams analysis, ASCE Journal of Engineering Mechanics Division, 101 (1974), 267-282.

Google Scholar

[9] SEIDE, P., An approximate theory for the bending of laminated plates, Mechanics Today, 5 (1980), 451-466.

DOI: 10.1016/b978-0-08-024249-1.50039-x

Google Scholar

[10] REDDY, J.N., A generalization of two-dimensional theories of laminated composites plates, Communication in Applied Numerical Methods, 3 (1987), 173-180.

DOI: 10.1002/cnm.1630030303

Google Scholar

[11] NOSIER, A., KAPANIA, R.K., REDDY, J.N., Free vibration analysis of laminated plates using a Lay-Wise Theory, American Institute of Aeronautic and Astronautics Journal, 31 (1993), 2335-2346.

DOI: 10.2514/3.11933

Google Scholar

[12] Zhuk, Y., A., Guz, I., A., Active damping of the forced vibration of a hinged beam with piezoelectric layers, geometrical and physical nonlinearities taken into account, International Applied Mechanics, 45 (2009), 94-108.

DOI: 10.1007/s10778-009-0162-2

Google Scholar

[13] Avramov, K., V., Gendelman, O., V., Forced oscillations of beam with essentially nonlinear absorber, Strength of Materials, 41 (2009), 310-317.

DOI: 10.1007/s11223-009-9125-4

Google Scholar

[14] Chengju, F., et. al., Damping property of epoxy-based composite embedded with sol–gel-derived Pb(Zr0. 53Ti0. 47)O3 thin film, Journal of Materials Science: Materials in Electronics, 22 (2011), 911-914.

DOI: 10.1007/s10854-010-0235-3

Google Scholar

[15] Lopez, G., A., et. al., Cu-Al-Ni-SMA-Based High-Damping Composites, Journal of Materials Engineering and Performance, 18 (2009), 459-462.

Google Scholar

[16] Lugovskoi, Y., F., Chernyshev, L., I., Damping Properties of Sintered High-porosity Materials Based on Powders and Discrete Copper Fibers, Powder Metalurgy and Metal Ceramics, 45 (2006), 599-604.

DOI: 10.1007/s11106-006-0125-7

Google Scholar

[17] Massenzio, M., s. a., Natural Frequency Evaluation of a cracked RC Beam With or Without Composite Strengthening for a Damage Assesment, Materials and Structures, 36 (2005), 865-873.

DOI: 10.1617/14235

Google Scholar

[18] Mohapatra, A., R., Damping of Beams With Inserts, Disseration Thesis, National Institute of Technology (2010), Rourkela.

Google Scholar

[19] Őz, H., R., Calculation of the Natural Frequencies of a Beam-Mass System Using Finite Element Method, Mathematical and Computational Applications, 5 (2000), 67-75.

DOI: 10.3390/mca5020067

Google Scholar

[20] Bolcu D., Stanescu M.M., Ciuca I., et al., The Non-uniformity from the composite materials reinforced with fiber glass fabric, Materiale Plastice, 51(2014), 97-100.

DOI: 10.37358/mp.22.2.5589

Google Scholar

[21] Papagiannopoulos, G., A., Beskos, D., E., On a modal damping identification model of building structures, Archive of Applied Mechanics, 76 (2006), 443-463.

DOI: 10.1007/s00419-006-0046-4

Google Scholar

[22] Stănescu M.M., Study regarding the mechanical behaviour of Dammar based composite materials, reinforced with natural fiber fabrics, Materiale Plastice, 52(2015), 596-600.

Google Scholar

[23] Park, T., H., Vibration and Damping Characteristics of a Beam with a Partially Sandwiched Viscoelastic Layer, Journal of Adhesion, 61 (2006), 97-122.

DOI: 10.1080/00218469708010518

Google Scholar

[24] Mihalcu, M., Reinforced Plastic materials, Technical Publishing House (1973), Bucharest.

Google Scholar

[25] Tărâţă, Daniela., Mangra, Mihai, Special Materials, University of Craiova Publishing House (1996), Craiova.

Google Scholar

[26] Ispas S., Composite materials, Technical Publishing House (1987), Bucharest.

Google Scholar

[27] Tărâţă, D.F., Stănescu, G., Contribution to the elaboration and characterization of the certain epoxi- textile fiber composites, International conference of Scientifically Communications Iaşi (2000), 157-160.

Google Scholar

[28] Miriţoiu, C., M., et. al., Determination of Damping Coefficients for Sandwich Bars with Polypropylene Honeycomb Core and the Exterior Layers Reinforced with Metal Fabric, Materiale Plastice, 49 (2012), 118-123.

Google Scholar