Recycling Waste into Composites: A Review of Sustainable Approaches and Material Innovations

  • Authors

    • Sandip Nehe PDF Scholar, Srinivas University, Mangluru, Karnataka, India
    • Dr. B M Praveen Research Guide, Department of Mechanical Engineering, Srinivas University, Mangluru, Karnataka
    https://doi.org/10.14419/bn218q59

    Received date: May 22, 2025

    Accepted date: July 3, 2025

    Published date: July 20, 2025

  • Waste Recycling, Shredding Machine, crush waste, Plastic waste Management, Composites
  • Abstract

    The main objective of this work is to solve the issues of plastic waste management (PWM) in developing countries by designing a shredding machine. The designed machine involves a drive shaft, shredding blade, casing, hopper assembly. Moreover, the shape of plastics is very different from their equivalents while it is used in large-scale mass recycling, energy difference recycling highlights the environmental benefit of using plastics, where the SM may indicate a potential function for recycling purposes. Also the machine and composites are optimized to find better material for both shredder and wastage. Shredder machine is developed by assembling all manufactured parts which can shred 1 Kg plastic, Wood, Glass and Aluminium at once. Also testing of innovative machine by means of crush particles produced from wastages to recycle it is done. Experimental validation of main components is needed for finding stress and deformation also application of the optimization solution by finding better suitable material for different components of shredder to withstand under several operating conditions. Final composite products from wastage also optimized and better suitable material finding out is done. The main objective of the papers is testing of innovative machine by means of crush particles produced from wastages to recycle it and Experimental validation of main component in ANSYS by finding stress & deformation. Applying the optimization solution by finding better suitable material for different components of shredder to withstand under several operating conditions. Work methodology depends upon the type of wastages to make composites and better suitable material for the shredder components to sustain under the heavy operating conditions.

  • References

    1. Ananthi K, Kousal N, Naveen Kumar K, Athipathi S, Murugan M (2020), Design and fabrication of compact shredding machine for onsite compo-site center. Int J Adv Sci Technol 29(7), 234–247.
    2. Rathnam AV, Hari Babu U (2017), Optimal design and analysis of twin shaft shredder. Int J Res Innov (IJRI) 4(2), 805–816.
    3. Katiyar A, Gaur A, Shrivastava A, Khan MA, Singh NP, Saini R, Kaur G (2019), Design and construction of a shredding machine for recycling and management of organic waste. Int J Trend Sci Res Dev 3(4), 707–713.
    4. Agbonkhese KA, Frank O, Okojie G, Okoekhian L (2020), Design and fabrication of compact shredding machine for onsite composite center. Int J Adv Sci Res Eng 6(4), 25–36.
    5. Suardi A, Latterini F, Alfano V, Palmieri N, Bergonzoli S, Karampinis E, Kougioumtzis MA, Grammelis P, Pari L (2020), Machine performance and hog fuel quality evaluation in olive tree pruning harvesting conducted using a towed shredder on flat and hilly fields. Energies 13, 1713. https://doi.org/10.3390/en13071713
    6. Ogunedo BM, Chukwudi BC (2020), Design and construction of a low cost plastic shredding machine. Int J Res Rev 7(9), 374–385.
    7. Chinthankumar DM, Jathin KJ, Manujesh BJ, Umashankar KS, Prajna MR (2016), Synthesis and experimental investigation of density on the struc-tural properties of rigid polyurethane foams. Am J Mater Sci 6(4A), 77–81. https://doi.org/10.5923/c.materials.201601.15
    8. Ugoamadi CC, Ihesiulor OK (2011), Optimization of the development of a plastic recycling machine. Niger J Technol 30(3), 15.
    9. Aitchison CS, Ramberg W, Tuckerman LB, Whittemore HL (2005), Tensile and compressive properties of some stainless steel sheets. J Res Natl Bur Stand 28, 391–394.
    10. Darshan R, Gururaja S (2017), Design and fabrication of crusher machine for plastic wastes. Int J Mech Prod Eng 5(10), 733–737.
    11. Suneesh E, Sivapragash M (2017), Compressive and impact responses of magnesium/alumina composites. Int J Civil Eng Technol 8(8), 472–478.
    12. Suneesh E, Sivapragash M (2017), Compressive and impact responses of magnesium/alumina composites. Int J Civil Eng Technol 8(8), 472–478.
    13. Siddiqui F, Patil H, Raut S, Wadake O, Tandel S (2017), Design and fabrication of paper shredder machine. Int J Sci Eng Res 8(3), 18–25.
    14. Ganesh UL, Rampur VV, Banagar AR (2017), Design and fabrication of organic portable shredder machine. Int J Eng Res Technol 6(8), 358–361.
    15. Fitzgerald GC, Themelis NJ (2009), Technical and economic impacts of pre-shredding the MSW feed to moving grate WTE boilers. Proc 17th North Am Waste-to-Energy Conf (NAWTEC), NAWTEC17-2358, May 18–20.
    16. Chen HJ, Chang SN, Tang CW (2017), Application of the Taguchi method for optimizing the process parameters of producing lightweight aggre-gates. Materials 10(11), 1294. https://doi.org/10.3390/ma10111294
    17. Nurprasetio IP, Budiman BA, Triawan F (2017), Failure investigation of plastic shredding machine’s flange coupling based on mechanical analysis. Indones J Sci Technol 2(2), 124–133.
    18. Sarvade I, Salunkhe S, Thakur R, Solanki D, Deo S (2018), Design and development of plastic recycling machine. Int J Sci Res Dev 6(1), 1910–1913.
    19. Weiss J, George C, Walker J (2006), Redesigning an appropriate technology shredder for manufacture in a developing country. Int J Serv Learn Eng 1(1), 11–26.
    20. Beniak J, Ondruška J, Cacko V (2012), Design process of energy effective shredding machines for biomass treatment. Acta Polytech 52(5), 133–138.
    21. Sule J, Emmanuel I, Ibhadobe O, Alfred BY, Waziri FI, Sunny E (2017), Use of waste plastics in cement-based composite for lightweight concrete production. Int J Res Eng Technol 2(5), 44–54.
    22. Ran J, Shah S, Shah M, Prajapati M, Mehta H (2020), Design and fabrication of plastic bottle shredder. Int Res J Eng Technol 7(4), 1738–1745.
    23. Vinck K, Scheelen L, Du Bois E (2019), Design opportunities for organic waste recycling in urban restaurants. Waste Manag Res 6(5), 40–50. https://doi.org/10.1177/0734242X18817714
    24. Sarwe K (2014), Study of strength property of concrete using waste plastics and steel fiber. Int J Eng Sci 3(5), 9–11.
    25. Recchia L, Daou M, Rimediotti M, Cini E, Vieri M (2009), New shredding machine for recycling pruning residuals. Biomass Bioenergy 33, 149–154.
    26. Tamang LWT, Wangmo T, Darjay KT, Phuntsho KS, Namgyal P, Wangchuk U (2017), Use of plastics in concrete as coarse aggregate. Int J Educ Appl Res 7(2), 9–13.
    27. Muthukumaran M, Maran PM, Selvam MP, Saravana S, Praveen C (2017), Design and fabrication of plastic waste shredder machine. Int J Res Dev Technol 7(4), 210–214.
    28. Nasr MF, Yehia KA (2019), Stress analysis of a shredder blade for cutting waste plastics. J Int Soc Sci Eng 1(1), 9–12.
    29. Shuaib NA, Mativenga PT (2016), Effect of process parameters on mechanical recycling of glass fibre thermoset composites. Procedia CIRP 48, 134–139.
    30. Sulamet-Ariobimoa RD, Soedarsonob JW, Sukarnotoa T, Rustandib A, Mujalisa Y, Prayitnoaa D (2016), Tensile properties analysis of AA1100 aluminium and SS400 steel using different JIS tensile standard specimen. J Appl Res Technol 14, 148–153.
    31. Lebloubar MM, Rahman ME (2016), Shredder optimization by recycled process to form composites. Publ Corp, Article ID 65078.
    32. Zote SB, Mehta MM (2016), Result on design development and analysis of shredder machine components. Int J Adv Res Innov Ideas Res 3(3), 193–204.
    33. Awoyera PO, Adesina A (2020), Plastic wastes to construction products: Status, limitations and future perspective. Case Stud Constr Mater 12, e00330.
    34. Ravi S (2018), Utilization of upgraded shredder blade and recycling the waste plastic and rubber tyre. Proc Int Conf Ind Eng Oper Manag 7(9), 3208–3216.
    35. Sekar LR, Vinoth Kumar S (2016), Utilization of upgraded shredder blade and recycling the waste plastic and rubber tyre. Int J Sci Res 7(9), 160–165.
    36. Nithyananth S, Samuel L, Mathew N, Suraj S (2014), Design of waste shredder machine. Int J Eng Res Appl 4(3), 487–491.
    37. Thapa S, Engelken R (2020), Optimization of pelleting parameters using agricultural and agro-processing wastes. Carbon Resour Convers 3, 104–111.
    38. Hamid S, Skinder BM, Bhat MA (2020), Zero waste: A sustainable approach for waste management. In: Handbook of Research on Resource Man-agement. https://doi.org/10.4018/978-1-7998-0031-6.ch008
    39. Bányai T, Tamás P, Illés B, Stankevi Ž, Bányai Á (2019), Optimization of municipal waste collection routing. Int J Environ Res Public Health 16, 634. https://doi.org/10.3390/ijerph16040634
    40. Vasek V, Kolomaznik K, Janacova D (2005), Design and fabrication of plastic shredder machine. Proc 5th WSEAS Int Conf Simul Model Optim, Corfu, Greece, 391–394.
    41. Liu Y, Farnsworth M, Tiwari A (2017), A review of optimization techniques used in the composite recycling area. J Cleaner Prod 140, 1775–1781. http://dx.doi.org/10.1016/j.jclepro.2016.08.038
    42. Wang Y, Peng S, Assogba K, Liu Y, Wang H, Xu M, Wang Y (2018), Implementation of cooperation for recycling vehicle routing optimization in two-echelon reverse logistics networks. Sustainability 10, 1358. https://doi.org/10.3390/su10051358
    43. Zhou X, Hu Z, Tao Y, Qin X, Hua L (2016), Failure mechanisms and structural optimization of shredder hammer for metal scraps. Chin J Mech Eng 29(4), 792–801. https://doi.org/10.3901/CJME.2016.0415.053
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  • How to Cite

    Nehe , S. ., & Praveen , D. B. M. . (2025). Recycling Waste into Composites: A Review of Sustainable Approaches and Material Innovations. International Journal of Basic and Applied Sciences, 14(SI-2), 111-118. https://doi.org/10.14419/bn218q59