CHARACTERIZING KAOLIN-BASED ADDITIVE FOR COMBUSTION OF SUGARCANE BAGASSE-DERIVED FUEL BY THERMAL ANALYSIS
DOI:
https://doi.org/10.18173/2354-1059.2024-0033Keywords:
biomass, combustion parameters, kaolin, sugarcane bagasse, thermal analysisAbstract
In this work, characterizing kaolin-based additive for combustion of sugarcane bagasse-derived biomass was investigated by TG-DTG and DTA. Sugarcane bagasse powder (SB) was mixed with kaolin powder (KL) at weight percentages of 0 wt.%, 2 wt.% and 4 wt.%, and then pressed into fuel pellets. combustion parameters (ignition temperature Ti, burnout temperature Tb, maximum peak temperature Tmax, ignition index Ci, burnout index Cb, comprehensive combustibility index S and activation energy Ea) for the pellets were evaluated.
References
[1] Danso BE & Osei W, (2022). Bioenergy and biofuel production from biomass using thermochemical conversions technologies - A review. AIMS Energy, 10, 585-647.
[2] Ahmmad F, Sohel M, Islam M, Ani FN & Tahzinul, (2020). Development of a Pelletizing Process to Improve the Properties of Biomass Pellets. Advances in Engineering Research, 198, 337-343.
[3] Tripathi M, Sahu JN & Ganesan P, (2016). Effect of process parameters on production of biochar from biomass waste through pyrolysis: A review. Renewable and Sustainable Energy Reviews, 55, 467-481.
[4] Mack R, Kuptz D, Schon C & Hartmann H, (2019). Combustion behavior and slagging tendencies of kaolin additivated agricultural pellets and of wood-straw pellet blend in a small-scale boiler. Biomass and Bioenergy, 125, 50-62.
[5] Petro Vietnam Power Corporation, (2014, October). 40 projects to generate electricity from sugarcane bagasse (in Vietnamese). https://pvpower.vn/vi/post/da-co-40-du-an-phat-dien-tu-ba-mia-1772.htm.
[6] Vietnam Agriculture Newspaper, (2021, December). Energy-saving electricity production from sugarcane bagasse (in Vietnamese). https://nongsanviet.nongnghiep.vn/san-xuat-dien-tu-ba-mia-tiet-kiem-nang-luong-d310694.html.
[7] Lachman J, Balas M, Lisy M, Lisa H, Milcak P & Elbl P, (2021). An overview of slagging and fouling indicators and their applicability to biomass fuels. Fuel Processing Technology, 217, 106804.
[8] Maj I & Matus K, (2023). Aluminosilicate Clay Minerals: Kaolin, Bentonite, and Halloysite as Fuel Additives for Thermal Conversion of Biomass and Waste. Energies, 16(11), 4359.
[9] Bartels M, Lin W, Nijenhuis J, Kapteijn F & Ommen JRv, (2008). Agglomeration in fluidized beds at high temperatures: mechanisms, detection and prevention. Progress in Energy and Combustion Science, 34, 633-666.
[10] Najser J, Mikeska M, Peer V, Frantík J & Kielar J, (2020). The addition of dolomite to the combustion of biomass fuel forms: the study of ashes agglomeration and fusibility. Biomass Conversion and Biorefinery, 10, 471-481.
[11] Morris JD, Daood SS & Nimmo W, (2022). The use of kaolin and dolomite bed additives as an agglomeration mitigation method for wheat straw and miscanthus biomass fuels in a pilot-scale fluidized bed combustor. Renewable Energy, 196, 749-762.
[12] Gollmer C, Weigel V & Kaltschmitt M, (2023). Emission Mitigation by Aluminum-Silicate-Based Fuel Additivation of Wood Chips with Kaolin and Kaolinite. Energies, 16, 3095.
[13] Wang Z, Hong C, Xing Y, Li Y, Feng L & Jia M, (2018). Combustion behaviors and kinetics of sewage sludge blended with pulverized coal: With and without catalysts. Waste Management, 74, 288-296.
[14] Sukirti D, Rakesh K & Monoj KM, (2022). Pyrolysis kinetics and thermodynamics of pomegranate peel usingTG/DTG analysis. Biomass Conversion and Biorefinery, 14, 12411-12425.
[15] Sun Y, Sun H, Yang T, Zhu Y & Li R, (2024). Combustion Characterization and Kinetic Analysis of Mixed Sludge and Lignite Combustion. ACS Omega, 9, 6912-6923.