Thermal & Mechanical Properties of Sugar Cane Bagass Reinforced Epoxy Resin Composites Added With Fly Ash

Authors

  • Mr. Bhongale Rohit S. Mechanical Diploma Students, Sahakar Maharshi Shankarrao Mohite Patil Institute of Technology and Research, Akluj, Solapur, Maharashtra Author
  • Mr. Shubham D. Londe Mechanical Diploma Students, Sahakar Maharshi Shankarrao Mohite Patil Institute of Technology and Research, Akluj, Solapur, Maharashtra Author
  • Mr. Vishal B. Bhosale Mechanical Diploma Students, Sahakar Maharshi Shankarrao Mohite Patil Institute of Technology and Research, Akluj, Solapur, Maharashtra Author
  • Mr. Guarav M. Naryankar Mechanical Diploma Students, Sahakar Maharshi Shankarrao Mohite Patil Institute of Technology and Research, Akluj, Solapur, Maharashtra Author
  • Mr. Dhasarath K. Dixit Mechanical Diploma Students, Sahakar Maharshi Shankarrao Mohite Patil Institute of Technology and Research, Akluj, Solapur, Maharashtra Author

DOI:

https://doi.org/10.29070/6yzr0h45

Keywords:

Warm Protection, Thickness, Conductivity and So Forth

Abstract

Theoretical - Materials fundamentally founded absolutely on home grown sugar stick bagasssright now are transforming into through and through known as warm protecting texture. Because of itsgentle weight, thickness and mobileular shape, they show pretty right warm protection homes, that isadditional fine over synthetic sugar stick bagasss. An incredibly decent benefit of the protectionresources fundamentally founded absolutely on natural sugar stick bagasss isn't best a minimal expense100 of the time of warm conductivity anyway furthermore the home grown individual of these sugarstick bagasss.Warm protection is the markdown of warmth switch among things with explicit temperatures. At thepoint when the thickness of the texture diminished, it decreases the steady conduction. The genuineconductivity with inside the steady will currently never again change, but the go fragment area of thesteady texture will affect the steady conduction in sync with rectangular meter.

Downloads

Download data is not yet available.

References

Uçar, Nuray., Yılmaz, Turgut (2004). Fineness Thermal Properties of 1×1, 2×2, 3×3 Rib Knit Fabrics, FIBRES & TEXTILES in Eastern Europe, 12, pp. 1-5.

Mohammadi, M., Banks-Lee, P., Ghadimi, P. (2003). Determining Effective Thermal Conductivity of Multi- layered Nonwoven Fabrics, Textile Research Journal, 9, pp. 802-808.

Jirsak, O., Gok Sadikoglu, T., Ozipek, B., Pan, N. (2000). Thermo- insulating properties of perpendicular-laid versus cross- laid lofty nonwoven fabrics, Textile Research Journal, 2, pp. 121-128.

Morris, G. J. (1953). Thermal properties of textile materials, Textile Institute Journal, 10, pp. 449-476.

Abdel-Rehim, ZS., Saad, MM., El-Shakankery, M., Hanafy, I. (2006). Textile fabrics as thermal insulators, AUTEX Research Journal, 3, pp. 148-161.

Saleh, S. S. (2011). Performance of needle-punching lining nonwoven fabrics and their thermal insulation properties, Journal of basic and applied scientific research, 12, pp. 3513-3524.

Kopitar, D., Skenderi, Z., Rukavina, T. (2013). Influence of pressure on water permeability and characteristic opening size of nonwoven geotextiles, Journal ofsugar cane bagass Bioengineering and Informatics, 6, pp. 103-115.

Kopitar, D., Skenderi, Z., Rukavina, T. (2014). Impact of calendering process on nonwoven geotextiles hy- draulic properties, Textile research journal, 1, pp. 69-80.

Albrecht, W., Fuchs, H., Kittelmann, W. (2003). Nonwoven fabrics, editors. Weinheim: Wiley-VCH, pp. 9-11.

Debnath, S., Madhusoothanan (2011). Thermal resistance and air permeability of jute-polypropylene blended needle- punched nonwoven, Indian Journal of Fibre & Textile Research, 1, pp. 122-131.

Sakthivel, S., Ramachandran, T. (2012). Thermal conductivity of non-woven materials using reclaimed fibres, International Journal of Engineering Research and Applications, 3, pp. 2983-2987.

Bogus Ãlawska-Baczek, M., Hes, L. (2014). Determination of heat transfer by radiation in textile fabrics by means of method with known emissivity of plates, Journal of Industrial Textiles, 3, on-line before print.

Małgorzata, Matusiak., Krzysztof, Sikorski (2011). Influence of the Structure of Woven Fabrics on Their Thermal Insulation Properties, Fibres & Textiles in Eastern Europe, 19, pp. 46-53.

Tiwari, M. (2010). Thermal Comfort of Textile Materials and Its Assessment, Textile Review.

Slater, K. (1977). Comfort Properties of Textiles, The Textile Institute, Manchester, England, 11.

Tanabe, Shin-ichi,, Choi, J. (2002). Thermal Comfort Aspects of Pesticide Protective Clothing Made with Nonwoven Fabrics‖, Journal of Korean Home Economics Association, .3 (1), pp. 55.

Zeinab, S. Abdel-Rehim., M. M. Saad., M. El-Shakankery and I. Hanafy (2006). Textile Fabrics as thermal insulators, Autex Research Journal, Vol. 6, pp. 148-161.

Sutton, Andy., Black, Daniel., Walker, BRE Pete (2011). Natural fibre insulation an introduction to low-impact building materials.

Škrnlantová, M. (2012). Koroze a degradace textilních vláken [online]. [cited 14. 10. 2012]. Available from Internet: http://www.vscht.cz/met/stranky/vyuka/pred mety/koroze_materialu_pro_restauratory/kadm/pdf/3_ 6.pdf

Cristaldi, G., Latteri, A., Recca, G., Cicala, G. (2010). Composites Based on Natural Fibre Fabrics. Woven fabric engineering [online].

Charper 17. Sciyo [cited 18. 11. 2010]. Available from Internet: http://cdn.intechweb.org/pdfs/12253.pdf

Zhenqxiong, L., Yanjun, X., Jinjin D. (2008). Superhydrophobic surfaces prepared from water glass and non-fluorinated alkylsilane on cotton substrates, Applied Surface Science, 254, pp. 2131-2135.

Kushwaha, P. K., Kumar; R. (2009). Studies on Water Absorption of Bamboo – Polyester Composites: Effect of Silane Treatment of Mercerized Bamboo, Polymer – Plastic Technology and Engineering [online] 49(1) [cited 13. 05. 2012]. Available from Internet: http://www.tandfonline.com/doi/full/10.1080/036025 50903283026.

Erasmus, E., Barkhuysen, F.A. (2009). Superhydrophobic cotton by fluorsilane modification, Indian Journal of Fibre & Textile Research [online] 34 [cited 13. 5. 2012]. Available from Internet: http://nopr.niscair.res.in/bitstream/123456789/6884/1/IJFTR%2034(4)%20377-379.pdf.

Song-Min, S., Zhengxiong, L., Yanjun, X., John, H., X., Xiao- Ming, T. (2010). Preparation of durable hydrophobic cellulose fabric from water glass and mixed organosilanes, Applied Surface Science, 257, pp. 1495-1499.

Jinyun, L., Wenqi, H., Yanjun, X., Rong, L., Jinjin, D. (2011). Preparation of durable superhydrophobic surface by sol-gel method with water glass and citric acid, Journal of Sol-gel Science and Technology, 58, pp. 18-23.

Downloads

Published

2022-03-01