Forest Waste Solid Biomass Fuel for Environmental Sustainability – A Review

IJEP 44(10): 939-946 : Vol. 44 Issue. 10 (October 2024)

Sampathkumar Velusamy, Sampath Kumar Krishnamoorthy*, Shanmuganathan Thiyagarajan, Sarath Vijaya Sivam and Sarvesh Kumar Umamaheswari

Kongu Engineering College, Department of Civil Engineering, Perundurai, Erode – 638 060, Tamil Nadu, India

Abstract

To meet the rising call for sustainable energy options and heightened consciousness of environmental conservation, this research delves into inventive methods to utilize biomass effectively. Specifically, our research centers on the creation and thermal evaluation of a solid biomass fuel sourced from discarded bamboo and papaya materials, employing tapioca starch as a binding agent. This initiative not only addresses waste management challenges but also provides a renewable, eco-conscious energy solution. Our methodology involves the systematic collection and preparation of bamboo and papaya waste, culminating in a meticulously controlled manufacturing process that yields a compact, efficient biomass fuel. To enhance the structural integrity and combustion performance of this fuel, we utilize tapioca starch, a natural and biodegradable binder. Our thorough examination includes assessing the physical and chemical characteristics of the biomass fuel, considering aspects, like energy content, density and resistance to high temperatures and utilizing various analytical methods. Our findings reveal that the produced solid biomass fuel exhibits highly promising characteristics for energy applications, notably a substantial calorific value and robust thermal stability. Furthermore, the utilization of bamboo and papaya waste not only diminishes waste accumulation but also significantly contributes to environmental sustainability. This research underscores the tremendous potential of this biomass fuel as an environment-friendly substitute for conventional fossil fuels, offering the added advantage of efficient utilization of surplus agricultural resources. In a broader context, this research aligns with the overarching goal of advancing environmental sustainability. By reducing waste build-up and advocating for the responsible use of renewable biomass resources, we take a crucial step toward cleaner and more sustainable energy production.

Keywords

Biomass, Briquette, Agro forest waste, Cassava starch binder, Environmental feasibility, Waste to wealth

References

  1. Hashem, M., E.H. Ali and R. Abdel-Basset. 2013. Recycling rice straw into biofuel ‘ethanol’ by Saccharomyces cerevisiae and Pichia gulliermondii. J. Agric. Sci. Tech., 15: 709-721.
  2. Alonso, M.J.G., et al. 2011. Physico-chemical transformations of coal particles during pyrolysis and combustion. Fuel. 80: 1857-1870.
  3. Stolarski, M.J., et al. 2013. Comparison of quality and production cost of briquettes made from agricultural and forest origin biomass. Renewable energy. 57: 20-26.
  4. Lokeshwari, M., et al. 2022. Optimization and tribological properties of hybridized palm kernel shell ash and nano-boron nitride reinforced aluminium matrix composites. J. Nanomater., 2022(6): 1–9.
  5. Roy, M.M. and K.W. Corscadden. 2012. An experimental study of combustion and emissions of biomass briquettes in a domestic wood stove. Appl. Energy. 99: 206-212.
  6. Nouni, M. R., S. C. Mullick and T. C. Kandpal. 2008. Providing electricity access to remote areas in rural India: An approach towards identifying potential areas for decentralized power supply. Renew. Sustain. Energy Rev., 12: 1187–1220.
  7. Theja, M.R. 2022. Investigation into mechanical properties of EPDM/SBR-nanoclay nanocomposites. Mater. Today Proceedings. 59: 1508-1512.
  8. Carone, M.T., A. Pantaleo and A. Pellerano. 2011. Influence of process parameters and biomass characteristics on the durability of pellets from the pruning residues of Olea europaea. Biomass bioenergy. 35: 402-410.
  9. Temmerman, M., et al. 2006. Comparative study of durability test method for pellets and briquettes. Biomass Bioenergy. 30: 964-972.
  10. Akshaykumar, N. and D. Subbulekshmi. 2017. Online auto selection of tuning methods and auto tuning PI controller in FOPDT real time process-pH neutralization. Energy Procedia. 117: 1109–1116.
  11. Teja, N.B., et al. 2022. Performance and emission analysis of watermelon seed oil methyl ester and n-butanol blends fueled diesel engine. Mathematical Problems Eng., 22: 1-23.
  12. Andrew, N.E. and A. Gbabo. 2015. The physical, proximate and ultimate analysis of rice husk briquettes produced from a vibratory block mould briquetting machine. Int. J. Innovative Sci. Eng. Tech., 2(6): 814-822.
  13. Saravanan, N., et al. 2022. Physical, chemical, thermal and surface characterization of cellulose fibers derived from Vachellia nilotica Ssp. Indica tree barks. J. Natural Fibers. 19: 6934-6946.
  14. Sellin, N., et al. 2013. Use of banana culture waste to produce briquettes. Chem. Eng., 32: 349-354.
  15. Voca, N., et al. 2016. Proximate, ultimate and energy values analysis of plum biomass byproducts case study: Croatia’s potential. J. Agric. Sci. Tech., 18: 1655-1666.
  16. Obi, O.F. 2015. Evaluation of the effect of palm oil mill sludge on the properties of sawdust briquette. Renew. Sustain. Energy Reviews. 52:1749-1758.
  17. Ganeshan, P. 2016. World energy resources. World energy Council.
  18. Purohit, P., A. K. Tripathi and T. C. Kandpal. 2006. Energetics of coal substitution by briquettes of agricultural residues. Energy. 31: 1321-1331.
  19. Raju, P., et al. 2021. Glass/Caryota urens hybridized fibre-reinforced nanoclay/SiC toughened epoxy hybrid composite: Mechanical, drop load impact, hydrophobicity and fatigue behaviour. Biomass Conversion Biorefinery. 13(6): 1-10.
  20. Wang, Q., et al. 2017. The pyrolysis of biomass briquettes: Effect of pyrolysis temperature and phosphorus additives on the quality and combustion of biochar briquettes. Fuel. 199: 488-496.
  21. Ramkumar, R., et al. 2022. Dynamic mechanical properties and thermal properties of madar fiber reinforced composites. Mater. Today Proceedings. 51: 1096-1098.
  22. Shuma, R. and M. D. Madyira. 2017. Production of loose biomass briquettes from agricultural and forestry residues. Procedia Manuf., 7: 98-105.
  23. Tabakaev, R., et al. 2019. Thermal enrichment of different types of biomass by low-temperature pyrolysis. Fuel. 245: 29-38.
  24. Ndindeng, S. A., et al. 2015. Quality optimization in briquettes made from rice milling byproducts. Energy Sustain. Develop., 29: 24-31.
  25. Espuelas, S., et al. 2020. Low energy spent coffee grounds briquetting with organic binders for biomass fuel manufacturing. Fuel. 278: 118310.
  26. Veeresh, S.J. and J. Narayana. 2012. Assessment of agro-industrial wastes proximate, ultimate, SEM and FTIR analysis for feasibility of solid biofuel production. Universal J. Env. Res. Tech., 35: 957-964.
  27. Sakkampang, C. and T. Wongwuttanasatian. 2013. Study of ratio of energy consumption and gained energy during briquetting process for glycerin-biomass briquette fuel. Fuel. 115: 186–189. doi: 10.1016/j.fuel.2013.07.023.
  28. Maiti, S., et al. 2006. Physical and thermochemical characterization of rice husk char as a potential biomass energy source. Bioresour. Tech., 97: 2065-2070.
  29. Rezania, S., et al. 2016. Evaluation of water hyacinth (Eichhornia crassipes) as a potential raw material source for briquette production. Energy. 111: 768-773.
  30. Suhartini, S., N. Hidayat and S. Wijaya. 2011. Physical properties characterization of fuel briquette made from spent bleaching earth. biomass bioenergy. 35: 4209-4214.
  31. Velusamy, S., A. Subbaiyan and R. S. Thangam. 2021. Combustion characteristics of briquette fuels from sorghum panicle-pearl millets using cassava starch binder. Env. Sci. Poll., 28: 21471–21485.
  32. Velusamy, S., et al. 2022. Characterization of solid biomass briquette biofuel from the wastes of Senna auriculata and Ricinus communis using tapioca starch for sustainable environment. Env. Sci. Poll. Res. Int., 30(4): 10110-10127.
  33. Velusamy, S., et al. 2022. Combustion characteristics of biomass fuel briquettes from onion peels and tamarind shells. Arch. Env. Occupational Health. 77: 251-262.
  34. Velusamy, S., et al. 2022. Comparative analysis of agro waste material solid biomass briquette for environmental sustainability. Adv. Mater. Sci. Eng., 1-7.
  35. Rajkumar, T., et al. 2022. Interfacial microstructure analysis of AA2024 welded joints by friction stir welding. J. New Mater. Electrochem. Systems. 23: 123-132.
  36. Jeyabalaji, V., et al. 2022. Extraction and characterization studies of cellulose derived from the roots of Acalypha indica. J. Natural Fibers.19: 4544- 4556.
  37. Sampathkumar, V., et al. 2020. Study of biomass fuel production from different waste residues. SSRG Int. J. Eng. Trends Tech., 68: 97–106.
  38. Sampathkumar, V., et al. 2019. Briquetting of biomass for lowcost fuel using farm waste, cow dung and cotton industrial waste. Int. J. Recent Tech. Eng., 8: 8349-8353.
  39. Chin, O.C. and K.M. Siddiqui. 2000. Characteristics of some biomass briquettes prepared under modest die pressures. Biomass Bioenergy. 18(3): 223-228.
  40. Theo, W. L., et al. 2017. Optimisation of oil palm biomass and palm oil mill effluent (POME) utilisation pathway for palm oil mill cluster with consideration of Bio CNG distribution network. J. Energy. 121: 865-883.
  41. Sen, R., S. Wiwatpanyaporn and A.P. Annachhatre. 2016. Influence of binders on physical prope-
    rties of fuel briquettes produced from cassava rhizome waste. Int. J. Env. Waste Manage., 17: 158–175.
  42. Srivastava, N.S.L., et al. 2014. Investigating the energy use of vegetable market waste by briqu-etting. Renew. Energy. 68: 270–275.
  43. Moreno, A.I., R. Font and J.A. Conesa. 2016. Physical and chemical evaluation of furniture waste briquettes. Waste Manage., 49: 245–252.
  44. Song, X., et al. 2019. Investigation on the properties of the bio-briquette fuel prepared from hydrothermal pretreated cotton stalk and wood sawdust. Renew. Energy. 111: 768.
  45. Dai, Y. D. and D. M. Ren. 2005. Review the status and effects of renewable energy of China in term of the energy issues faced by China during the national economy development. Renew. energy. 2: 4-8.
  46. Li, Y. and H. Liu. 2000. High-pressure densification of wood residues to form an upgraded fuel. Biomass bioenergy. 19: 177-186.