Harnessing energy from biomass has led to an integrated approach toward enhancing resource efficiency while simultaneously reducing environmental burden. The present work focuses on microwave (MW) assisted co-pyrolysis of SS with banana peel (BP) for bio-oil production. The process parameters, MW power, residence time (T), sewage sludge (SS), and catalyst dosage were optimized in this work using response surface methodology (RSM). The maximum bio-oil yield of 41.1 ± 0.34 % (w/w) was obtained at an optimum power of 590 W, time of 6.4 min, SS of 60 % (w/w), and catalyst dosage of 37.4 % (w/w). An increase in the yield of bio-oil was observed upon adding activated carbon as a catalyst, and the bio-oil obtained was characterized using GC-MS to identify the volatile compounds in it. The GC-MS chromatogram of the bio-oil obtained at optimal pyrolysis conditions revealed that approximately 42.57 % of the components were C 6 -C 14 hydrocarbons, representing the gasoline fraction, while the remaining C 16 -C 19 hydrocarbons corresponded to the diesel range. These fractions of the bio-oil resemble conventional fuel oil in terms of the carbon chain. The elemental composition of bio-oil showed the presence of 77.434 % carbon, 11.204 % hydrogen, 3.775 % nitrogen, and 7.587 % oxygen in the bio-oil. Hence upgradation of bio-oil may replace the conventional fuel. The bio-oil’s HHV of 40.82 MJ/kg, determined through elemental analysis, makes it a viable candidate for upgrading and blending with diesel as a fuel alternative.
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Balasubramanian et al. (2025) studied this question.
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