Extraction and processing of Bast fibres from Ficus glomerata- A new source for non- conventional fibres
Article Main
Abstract
The increasing global preference towards the natural products rather than synthetic products has increased the attraction of tourists to the local markets. Ficus glomerata fibres is one of the suitable source as raw material for making natural products like carrier bags, baskets, belts and some handicraft items. Fibres from F. glomerata stems were extracted by using water retting method. After retting, the fibres were scoured using sodium hydroxide (NaOH) for making them suitable to form the different produucts from the processed fibres such as yarn, nonwoven, woven and knitted fabrics. Scouring conditions such as chemical concentration and processing time were evaluated on the basis of physical properties of fibres such as tenacity, elongation and fineness. The optimization results obtained from testing of physical properties of fibres shows that, the 3% concentration of sodium hydroxide (NaOH) and 60 minutes processing time was found promising for the treatment of fibres. The improvement in F. glomerata fibres through proper processing can yield value added fibres and thus can enhance the potential utility of these fibres in diversified sectors. So, the F. glomaerata fibres has a potential to provide an important role in making space for natural fibre products in the outside market.
Article Details
Article Details
Elongation, Ficus glomerata, Fineness, Scouring, Tenacity, Water retting
Benyahia, A., Merrouche, M., Rokbi, M. and Kouadri, Z. (2013). Study the effect of alkali treatment of natural fibers on the mechanical behavior of the composite unsaturated Polyester-fiber Alfa. French Mechanical Congress.
Faulk, J.,Danny, E. and Dodd, B. 2008. Influence of pectinolytic enzymes on retting effectiveness and resultant fibre properties. Bioresources. 3(1): 155-169.
Goswami, K. K., Das N.N. and Mukherjee, A.K. (1995). SEM and IR studies on scouring and bleaching of Linen. Indian Journal of Fiber and Textile Research. 20: 28-33.
Hashim, Y.M., Roslan, N.M., Omar, M., Omar, F.M., Mahzan, Z. M., Shahruddin and Saparuddin , A. (2014). The impact of alkali treatment conditions on tensile strength of Kenaf fiber. Applied Mechanics and Materials. 660: 285-289.
Hashim, Y., Roslan, N., Marwah, O., Mahzan, S., Zin, M. and Ariffin, S. 2016. The effect of alkali treatment conditions on tensile strength of kenaf fiber. Asian Research Publishing Network Journal of Engineering and Applied Sciences. 11(14):8658-8662.
International Jute Study Group.2012. Report on world jute and kenaf statistics:at a glance (Jute, Kenaf other bast and hard fibres : farm and fashion). Dhaka, Bangladesh.13p. Retreived on 13/7/2015from http://jute.20%20%kenaf%20stat%20at%20glance_ijsg.pdf.
Kyung, H.S and Obendorf, K. S. (2006). Chemical and biological retting of Kenaf fibres. Textile Research Journal. 76(10):751-756.
Mahjoub, R., Jamaludin, Y.M., Sam, M.R.A. and Hashemi, S.H. (2014). Tensile properties of kenaf fiber due to various conditions of chemical fiber surface modifications. Construction and Building Materials. 55:103-113.
Nalankalli, G., Saravanan , D., Govindaraj, N. and Harish, P. (2008). Efficacy of solvent, alkali and pectinase on removal of non cellulosics from cotton fibres. Indian Journal of Fiber and Textile Research. 33(4): 438-442.
Negi, S.V., Maikhuri, K.R., Rawat, S.L. and Phondani, C. P. (2010). Current status and future potential of fiber yielding crop Hibiscus cannabinus L. in mountain region of Central Himalaya. International Journal of Science and Technology. 5: 87-96.
Oudiani, E.A., Chaabouni, Y., Msahli, S. and Sakli, F. (2012). Mercerization of Agave americana L. fibers. The Journal of Textile Institute. 103(5):565-574.
Pandey, A. and Gupta, R. (2003). Fibre yielding plants of India: Genetic Resources, perspective for collection and utilisation. Natural Product Radiance. 2(4):194-204.
Parakh, P. 2009. F. racemosa Linn.- Overview. Natural Product Radiance. 8(1):84-90.
Pathak, S. 2014. Extraction, processing and evaluation of physico-chemical properties of semal (Bombax ceiba) fiber and construction of woven and nonwoven structures. Thesis, Ph.D, G.B.Pant University of Agriculture and Technology, Pantngar, 102-106p.
Samanta, A.K., Singhee, D., Basu, G. and Biswas, S.K. 2007. Thermal behaviour
and structural features of chemically and bio-chemically modified jute
substrate. Indian Journal of Fibre and Textile Research. 32(2): 355-365.
Sen, K. K., Saha, C .S and Ray, K.P. (1987). Physical and structural properties of raw and alkali treated bhindi (Hibiscus esculentus L) Fibre. Indian Journal of Fiber and Textile Research. 12:152-153.
Tahir, T., Ahmed, A., Syeed, O.A., Azry,S. and Ahmed, Z. (2011). Retting process of some bast plant fibres and its effect on fibre qulity: A review. BioResources. 6(4): 5260-5281.
Vardhini, R., Vishnu, J.K., Murugan, C., Tamil, S. and Surjit, R. (2016). Optimization of alkali treatment of banana fibres on lignin removal. Indian Journal of Fibre and Textile Research, 41(1):156-160.
Wang,W.M., Cai, Z.S. and Xia, W.P.(2009). Changes in composition, structure and properties of jute fibres after chemical treatments. Fibres and Polymers.10(6): 776-780.
Zannen, S., Ghali, L., Halimi, M.T and Hssen, M.B. (2014). Effect of chemical extraction on physicochemical and mechanical properties of Doum Palm fibres. Advances in Materials Physics and Chemistry. 4(10): 203-216.
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