Experimental Study of the Deformation Behaviour and Mechanical Properties of Fresh Reinforced Bamboo

Article Preview

Abstract:

A bstract. This paper investigates the deformation behavior of reinforced fresh bamboo subjected to static-compressive loading condition. Crushing strength test was performed using Uniaxial Compression Machine with maximum loading capacity of 1500 kN. The data is plotted as strength to weight ratio versus height, strength to volume ratio versus height, failure stress versus height, load versus time of failure and load to height ratio versus time of failure. Result shows that increase in height of the fresh reinforced bamboo increases the strength and vice versa. The moisture content also has significant influence on the strength of the fresh reinforced bamboo. The moisture content reduced the strength of the fresh reinforced bamboo by 21.8 %. This percentage is really significant in structural analysis since it can cause catastrophic failure to structures. Concrete is significant in reinforcing bamboo structures for a better strength. The crushing stresses for fresh reinforced bamboo of heights 250 , 210 ,170 , 130 and 90 mm were found to be 26.09 , 25.52 , 24.85 , 21.97 , 21.86 MPa respectively. The failure stress of the bamboo is about say 1.26 M times the weight of the bamboo per square meter. The specific compressive strength which explains the bending moment per kilogram of the bamboo specimen also increases with increases in height. Failure stress to weight ratio decreases with increases with the height of the bamboo. Strength to volume ratio also decreases with increases with the height from the bamboo.

You might also be interested in these eBooks

Info:

Periodical:

Pages:

173-182

Citation:

Online since:

May 2015

Export:

Price:

Permissions CCC:

Permissions PLS:

Сopyright:

© 2015 Trans Tech Publications Ltd. All Rights Reserved

Share:

Citation:

* - Corresponding Author

[1] Kishen, J., Ghosh, D.P., and Rehman, M.A. Studies on moisture content, shrinkage, swelling and intersection point of mature (Dendrocalamus strictus) male bamboo,. Indian Forest Rec., Vol. 1: (1956), pp.1-30.

Google Scholar

[2] Liese, W. and G. Weiner., Modifications of bamboo culm structures due to ageing and wounding,. The Linnean Society, London, (1997), pp.313-322.

Google Scholar

[3] L. Gyansah, A.S. Akinwonmi and M. Affam, The Fracture Behaviour of Fresh Bamboo Under Uniaxial Compressive Loading Condition.  Research Journal of Applied Sciences, Engineering and Technology, 2(8): , (2010), 720-726.

Google Scholar

[4] Limaye, V.D., Strength of bamboo (Dendrocalamus strictus),. Ind. For. Rec., Vol. 78, (1952), pp.558-575.

Google Scholar

[5] L. Gyansah and S. Kwofie, Investigation into the Performance of Bamboo Using the Notched and the Un-Notched Specimen,.  Research Journal of Applied Sciences, Engineering and Technology, 3(04): (2011), 245-251.

Google Scholar

[6] Chudley, R., Concrete", Construction Technology, Second SI Edition, ELBS with Longman (Publishers) Ltd, Vol. 1, (1994), pp.20-24.

Google Scholar

[7] Swamy, R.N., Sustainable Concrete for Infrastructure Regeneration and Reconstruction, International Conference on Sustainable Construction into the next Millennium Environmentally friendly and innovative Cement Based Materials, Joao Pessoa, Brazil, (2000).

Google Scholar

[8] Maheshwari, S. and Satpathy, K., Pulp and papermaking characteristics of nodes, internodes and culm of bamboo Dendrocalamus Strictus, IPPTA, Vol. 25, (1988), p.15 – 19.

Google Scholar

[9] Zhou, F.C. Studies on physical and mechanical properties of bamboo woods, Nanjing Technology College Forest Production, Vol. 2, (1981), p.1 – 32.

Google Scholar

[10] Espiloy, Z. B. Physico-Mechanical properties and Anatomical relationships of some Philippine bamboos,. Proceedings of International Bamboo Workshop Hangzhou, China, Singapore, P. R, Vol. 1, (1987), pp.257-264.

Google Scholar

[11] Seema, J. and Kumar, R. Mechanical behaviour of bamboo and bamboo composite, Journal of Material Sci., (1992), p.4598 – 4604.

Google Scholar

[12] Ghavami, K. and Rodrigues, C. S., Engineering Materials and Components with Plants, CIB Symposium, Construction & Environment, Theory into Practice Proc., São Paulo, Brazil, CD-ROM, ISBN 85-88142-01-5, Global Seven Editor, (2000), pp.1-16.

Google Scholar

[13] Lakkad, S.C. and Patel, J.M. Mechanical Properties of bamboo, a natural Composite, Fiber Science Technology, Vol. 14, (1980), pp.319-322.

DOI: 10.1016/0015-0568(81)90023-3

Google Scholar

[14] Gere, J.M. and Timoshenko, S.P. Mechanics of Machines, Third SI Edition, S. Thornes (Publishers) Ltd, Cheltenham, (1998), p.761, ISBN 0-7487-4084-8.

Google Scholar

[15] Head, K.A., Manual of Soil Laboratory Testing", Soil Classification and Compaction Test. 2nd Edn., Pentech Press, London, (1992), , pp: 68-76.

Google Scholar