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Thermal Properties of Biochars Derived from Waste Biomass Generated by Agricultural and Forestry Sectors

doi: 10.3390/en10040469
Waste residues produced by agricultural and forestry industries can generate energy and are regarded as a promising source of sustainable fuels. Pyrolysis, where waste biomass is heated under low-oxygen conditions, has recently attracted attention as a means to add value to these residues. The material is carbonized and yields a solid product known as biochar. In this study, eight types of biomass were evaluated for their suitability as raw material to produce biochar. Material was pyrolyzed at either 350 °C or 500 °C and changes in ash content, volatile solids, fixed carbon, higher heating value (HHV) and yield were assessed. For pyrolysis at 350 °C, significant correlations (p < 0.01) between the biochars’ ash and fixed carbon content and their HHVs were observed. Masson pine wood and Chinese fir wood biochars pyrolyzed at 350 °C and the bamboo sawdust biochar pyrolyzed at 500 °C were suitable for direct use in fuel applications, as reflected by their higher HHVs, higher energy density, greater fixed carbon and lower ash contents. Rice straw was a poor substrate as the resultant biochar contained less than 60% fixed carbon and a relatively low HHV. Of the suitable residues, carbonization via pyrolysis is a promising technology to add value to pecan shells and Miscanthus.
- Zhejiang Ocean University China (People's Republic of)
- Kangwon National University Korea (Republic of)
- University of Queensland Australia
- Zhejiang Ocean University China (People's Republic of)
- Foshan University China (People's Republic of)
690, 2606 Control and Optimization, Renewable energy, Technology, 2102 Energy Engineering and Power Technology, 630, biochar, Biomass, Proximate analysis, Sustainability and the Environment, biomass, 2208 Electrical and Electronic Engineering, Higher heating value (HHV), T, higher heating value (HHV), renewable energy, 2105 Renewable Energy, 2101 Energy (miscellaneous), Biochar, proximate analysis, biochar; biomass; higher heating value (HHV); proximate analysis; renewable energy
690, 2606 Control and Optimization, Renewable energy, Technology, 2102 Energy Engineering and Power Technology, 630, biochar, Biomass, Proximate analysis, Sustainability and the Environment, biomass, 2208 Electrical and Electronic Engineering, Higher heating value (HHV), T, higher heating value (HHV), renewable energy, 2105 Renewable Energy, 2101 Energy (miscellaneous), Biochar, proximate analysis, biochar; biomass; higher heating value (HHV); proximate analysis; renewable energy
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