DEVELOPMENT OF NONWOVEN FABRIC USING TEXTILE WASTE AND ITS CHARACTERIZATION


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Authors

  • MINAKSHI HAZARIKA Department of Textiles and Apparel Designing Assam Agricultural University, Jorhat, Assam - 785013
  • BINITA B KALITA Department of Textiles and Apparel Designing Assam Agricultural University, Jorhat, Assam - 785013

https://doi.org/10.58537/jorangrau.2024.52.2.08

Keywords:

Biodegradable, Blending, Insulation, Nonwoven, Textile waste

Abstract

The study was conducted during the year 2021. Textile waste fibers are a significantly byproduct of the fashion and textile industries, stemming from various stages of production, consumption and disposal. These fibers include leftover fabric scraps, trimmings and postconsumer garments that are discarded. With the rise of fast fashion and increased consumption, textile waste has become a pressing environmental concern globally. These waste fibers contribute to landfills, water pollution and greenhouse gas emissions. Finding sustainable solutions for managing and repurposing textile waste fibers is crucial for mitigating their environmental impact and promoting circularity within the textile industry. About 5.8 million tons of textile waste are generated every year whereas only 1.5 million tons of such textiles waste are recycled by industrial and tailoring enterprises. This has led the investigator to select one such waste that could be explored for the present study. Therefore, tailor discards were considered along with Kapok which has good conductivity and also has good insulation for both thermal and acoustic properties because of its hollow nature and light weight. The study was carried out by blending wool and Kapok with three blending ratios of wool 100%, kapok 100% and wool kapok (50:50%) to form nonwoven sheets and the properties of the sheets were investigated.

References

1. Bianco, I., De, B.A., Zanetti, M and Panepinto,

2. D. 2023. Environmental Impacts in the

3. Textile Sector: A Life Cycle Assessment

4. Case Study of a Woolen

5. Undershirt. Sustainability.15 (15): 1-13.

6. Cao, L., Wang, H and Shen, H. 2020 Adsorption

7. performance of human-like collagen by

8. alkali- modified Kapok fiber: a kinetic,

9. equilibrium, and mechanistic

10. investigation. Cellulose.29 (6):3177–

11. Diez, R., Uruena, A., Pinero., Barrio, A and

12. Tamminen, T. 2020. Determination o

13. fHemi cellulose, Cellulose and Lignin

14. content in different types of biomassesby

15. thermo gravimetric analysis and pseudo

16. component kinetic model (TGAPKM

17. Method). Processes.8 (9):1048.

18. Gokarneshan, N., Padma, B., Rajeswari, V and

19. Vasanthi D. 2020. A Review of Some

20. Current Trends in Wool Research.

21. Advance Research in Textile

22. Engineering.5 (1): 1044.

23. Graecia, L., Arip, K., Reyhant, M and Wenten,

24. I.G. 2020. Kapok fibre as potential oilabsorbing

25. material: Modification

26. mechanism and performance evaluation.

27. Paper presented on the International

28. Seminar on Chemical Engineering

29. Soehadi Reksowardojo (STKSR). IOP

30. Conference Series: Materials Science

31. and Engineering. Indonesia7-9 October

32. 823(1):1-5

33. Hossen, M.M and Rahman, O. M.2021.

34. Chemical Modification on Woven Jute

35. and Nonwoven Wet-Laid Glass Fiber

36. Sheet Reinforced Poly-(å-Caprolactone)

37. Composites. Open Journal of Composite

38. Materials.11 (4): 63-81.

39. Justyna, B and Malgorzata, K.D.2023. Multi-

40. Purpose Utilization of Kapok Fiber and

41. Properties of Ceiba Pentandra Tree in

42. Various Branches of Industry, Journal of

43. Natural Fibers. 20 (1):1-14.

44. Kamran, M.J., Jayamani, E., Heng, S.K and

45. Wong, Y.C, 2022, A review: Surface

46. treatments, production techniques,

47. mechanical properties and

48. characteristics of Luffacylindrica bio

49. composites. Journal of Industrial Textiles.

50. (1):215-245.

51. Subramanian, K., Chopra, S.S., Cakin, E., Li,

52. X., Lin C.S.K. 2020. Environmental life

53. cycle assessment of textile bio-recycling

54. – valorizing cotton-polyester textile waste

55. to pet fiber and glucose syrup.

56. Resources, Conservation and

57. Recycling.10 (161):104989.

58. Tedesco, S and Montacchini, E. 2020. From

59. textile waste to resource: A

60. methodological approach of research

61. and experimentation. Sustainability.12

62. (24):1-12.

63. Ütebay, B., Çelik, P. and Çay, A. 2020. On

64. Textile wastes: status and perspectives.

65. In: Waste in textile and leather sectors.

66. Intech Open. Limited.pp.220.

67. Zhou, J., Du, E., He, Y., Fan, Y., Ye, Y and Tang,

68. B. 2020. Preparation of Carbonized

69. Kapok Fiber/Reduced Graphene Oxide

70. Aerogel for Oil-Water Separation.

71. Journal of Chemical Engineering

72. Technology. 43 (12): 2418–2427.

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Published

30-06-2024

How to Cite

MINAKSHI HAZARIKA, & BINITA B KALITA. (2024). DEVELOPMENT OF NONWOVEN FABRIC USING TEXTILE WASTE AND ITS CHARACTERIZATION. The Journal of Research ANGRAU, 52(2), 78-85. https://doi.org/10.58537/jorangrau.2024.52.2.08