Abstract
Continued social and mobility development has caused a sharp increase in the number of waste tires, increased environmental pollution, and waste of limited resources. Agricultural residues as a bioresource, which has drawn increased attention in recent years. The thermochemical conversion of waste tires and agricultural residues and their mixtures offers important prospects for scientific development, which can provide energy security and a much reduced environmental footprint. In this paper, pyrolysis of waste tires and its co-pyrolysis with maize stalk, wheat straw, cotton stalk, rape straw, or peanut shell agricultural residues, in mass ratios of 1:1 were investigated at different heating rate using thermogravimetric analysis. The kinetic parameters were calculated using Flynn–Wall–Ozawa (FWO) and Kissinger–Akahira–Sunose (KAS) kinetic models at heating rates of 20, 30, and 50 °C/min. The synergistic effect between waste tires and agricultural residues was explored by calculating the deviation between the experimental and calculated values. The results showed the presence of a synergistic effect between the co-pyrolysis of waste tires and the residual agricultural residues. In the kinetic analysis, activation energies of waste tires, agricultural residues, and their mixtures were calculated using the two models. The reaction followed a multistage reaction mechanism. The differential thermogravimetry behavior of the mixture was similar to the weighted aggregate results of the waste tire and agricultural waste samples, pyrolyzed separately. These results provide some insights into the combined treatment of waste tires and agricultural waste residues.
References
1.
Gunasee
, S. D.
, Danon
, B.
, Görgens
, J. F.
, and Mohee
, R.
, 2017
, “Co-Pyrolysis of LDPE and Cellulose: Synergies During Devolatilization and Condensation
,” J. Anal. Appl. Pyrolysis
, 126
(1
), pp. 307
–314
. 2.
Rafique
, M. M.
, and Rehman
, S.
, 2017
, “National Energy Scenario of Pakistan—Current Status, Future Alternatives, and Institutional Infrastructure: An Overview
,” Renewable Sustainable Energy Rev.
, 69
(1
), pp. 156
–167
. 3.
Martínez
, J. D.
, Puy
, N.
, Murillo
, R.
, García
, T.
, Navarro
, M. V.
, and Mastral
, A. M.
, 2013
, “Waste Tyre Pyrolysis—A Review
,” Renewable Sustainable Energy Rev.
, 23
(1
), pp. 179
–213
. 4.
Li
, J.
, Burra
, K. G.
, Wang
, Z.
, Liu
, X.
, and Gupta
, A. K.
, 2022
, “Acid and Alkali Pretreatment Effects on CO2-Assisted Gasification of Pinewood
,” ASME J. Energy Resour. Technol.
, 144
(2
), p. 022306
. 5.
Iisa
, K.
, Robichaud
, D. J.
, Watson
, M. J.
, ten Dam
, J.
, Dutta
, A.
, Mukarakate
, C.
, Kim
, S.
, Nimlos
, M. R.
, and Baldwin
, R. M.
, 2018
, “Improving Biomass Pyrolysis Economics by Integrating Vapor and Liquid Phase Upgrading
,” Green Chem.
, 20
(3
), pp. 567
–582
. 6.
Hao
, N.
, Bezerra
, T. L.
, Wu
, Q.
, Ben
, H.
, Sun
, Q.
, Adhikari
, S.
, and Ragauskas
, A. J.
, 2017
, “Effect of Autohydrolysis Pretreatment on Biomass Structure and the Resulting Bio-Oil From a Pyrolysis Process
,” Fuel
, 206
(1
), pp. 494
–503
. 7.
Wang
, Z.
, Li
, J.
, Burra
, K. G.
, Liu
, X.
, Li
, X.
, Zhang
, M.
, Lei
, T.
, and Gupta
, A. K.
, 2021
, “Synergetic Effect on CO2-Assisted Co-Gasification of Biomass and Plastics
,” ASME J. Energy Resour. Technol.
, 143
(3
), p. 031901
. 8.
Wang
, J.
, Zhong
, Z.
, Ding
, K.
, Li
, M.
, Hao
, N.
, Meng
, X.
, Ruan
, R.
, and Ragauskas
, A. J.
, 2019
, “Catalytic Fast Co-Pyrolysis of Bamboo Sawdust and Waste Tire Using a Tandem Reactor With Cascade Bubbling Fluidized Bed and Fixed Bed System
,” Energy Convers. Manage.
, 180
(1
), pp. 60
–71
. 9.
Hendriks
, A. T. W. M.
, and Zeeman
, G.
, 2009
, “Pretreatments to Enhance the Digestibility of Lignocellulosic Biomass
,” Bioresour. Technol.
, 100
(1
), pp. 10
–18
. 10.
Borówka
, G.
, Bytnar
, K.
, Krzak
, M.
, Walendziewski
, J.
, and Zmuda
, W. A.
, 2019
, “Physicochemical Properties of Fuel Blends Composed of Heavy Fuel Oil and Tire-Derived Pyrolytic Oils
,” ASME J. Energy Resour. Technol.
, 141
(4
), p. 042207
. 11.
Burra
, K. R. G.
, Fernández Hernández
, I.
, Castaldi
, M. J.
, Goff
, S.
, and Gupta
, A. K.
, 2023
, “Effect of Gypsum Waste Inclusion on Gasification of Municipal Solid Waste
,” ASME J. Energy Resour. Technol.
, 145
(2
), p. 021701
. 12.
Formela
, K.
, 2021
, “Sustainable Development of Waste Tires Recycling Technologies—Recent Advances, Challenges and Future Trends
,” Adv. Industrial Eng. Polym. Res.
, 4
(3
), pp. 209
–222
. 13.
Wang
, Z.
, Burra
, K. G.
, Zhang
, M.
, Li
, X.
, Policella
, M.
, Lei
, T.
, and Gupta
, A. K.
, 2020
, “Co-Pyrolysis of Waste Tire and Pine Bark for Syngas and Char Production
,” Fuel
, 274
(C
), p. 117878
. 14.
Oboirien
, B. O.
, and North
, B. C.
, 2017
, “A Review of Waste Tyre Gasification
,” J. Environ. Chem. Eng.
, 5
(5
), pp. 5169
–5178
. 15.
Wang
, Z.
, Chen
, Y.
, Chen
, G.
, Sun
, T.
, Zhang
, M.
, Wang
, Q.
, Wu
, M.
, et al, 2023
, “Products Distribution and Synergistic Effects Analysis During Co-Pyrolysis of Agricultural Residues and Waste Tire Using Gas Chromatography/Mass Spectrometry
,” ASME J. Energy Resour. Technol.
, 145
(8
), p. 081501
. 16.
Liu
, X.
, Burra
, K. R. G.
, Wang
, Z.
, Li
, J.
, Che
, D.
, and Gupta
, A. K.
, 2021
, “Syngas Characteristics From Catalytic Gasification of Polystyrene and Pinewood in CO2 Atmosphere
,” ASME J. Energy Resour. Technol.
, 143
(5
), p. 052304
. 17.
Xu
, F.
, Wang
, B.
, Yang
, D.
, Ming
, X.
, Jiang
, Y.
, Hao
, J.
, Qiao
, Y.
, and Tian
, Y.
, 2018
, “TG-FTIR and Py-GC/MS Study on Pyrolysis Mechanism and Products Distribution of Waste Bicycle Tire
,” Energy Convers. Manage.
, 175
(1
), pp. 288
–297
. 18.
Dhyani
, V.
, and Bhaskar
, T.
, 2018
, “A Comprehensive Review on the Pyrolysis of Lignocellulosic Biomass
,” Renewable Energy
, 129
(1
), pp. 695
–716
. 19.
Hassan
, H.
, Lim
, J. K.
, and Hameed
, B. H.
, 2016
, “Recent Progress on Biomass Co-Pyrolysis Conversion Into High-Quality Bio-Oil
,” Bioresour. Technol.
, 221
(1
), pp. 645
–655
. 20.
Abbasi
, T.
, and Abbasi
, S. A.
, 2010
, “Biomass Energy and the Environmental Impacts Associated With Its Production and Utilization
,” Renewable Sustainable Energy Rev.
, 14
(3
), pp. 919
–937
. 21.
Karimi
, E.
, Teixeira
, I. F.
, Gomez
, A.
, De Resende
, E.
, Gissane
, C.
, Leitch
, J.
, Jollet
, V.
, et al, 2014
, “Synergistic Co-Processing of an Acidic Hardwood Derived Pyrolysis Bio-Oil With Alkaline Red Mud Bauxite Mining Waste as a Sacrificial Upgrading Catalyst
,” Appl. Catal., B
, 145
(1
), pp. 187
–196
. 22.
Liu
, X.
, Burra
, K. R. G.
, Wang
, Z.
, Li
, J.
, Che
, D.
, and Gupta
, A. K.
, 2021
, “Influence of Char Intermediates on Synergistic Effects During Co-Pyrolysis of Pinewood and Polycarbonate
,” ASME J. Energy Resour. Technol.
, 143
(5
), p. 052107
. 23.
Li
, J.
, Burra
, K. G.
, Wang
, Z.
, Liu
, X.
, Kerdsuwan
, S.
, and Gupta
, A. K.
, 2021
, “Energy Recovery From Composite Acetate Polymer-Biomass Wastes via Pyrolysis and CO2-Assisted Gasification
,” ASME J. Energy Resour. Technol.
, 143
(4
), p. 042305
. 24.
Sirirermrux
, N.
, Laohalidanond
, K.
, and Kerdsuwan
, S.
, 2020
, “Kinetics of Gaseous Species Formation During Steam Gasification of Municipal Solid Waste in a Fixed Bed Reactor
,” ASME J. Energy Resour. Technol.
, 142
(1
), p. 011401
. 25.
Shah
, S. A. Y.
, Zeeshan
, M.
, Farooq
, M. Z.
, Ahmed
, N.
, and Iqbal
, N.
, 2019
, “Co-Pyrolysis of Cotton Stalk and Waste Tire With a Focus on Liquid Yield Quantity and Quality
,” Renewable Energy
, 130
(1
), pp. 238
–244
. 26.
Al-Zareer
, M.
, Dincer
, I.
, and Rosen
, M. A.
, 2018
, “Influence of Selected Gasification Parameters on Syngas Composition From Biomass Gasification
,” ASME J. Energy Resour. Technol.
, 140
(4
), p. 041803
. 27.
Mettler
, M. S.
, Vlachos
, D. G.
, and Dauenhauer
, P. J.
, 2012
, “Top Ten Fundamental Challenges of Biomass Pyrolysis for Biofuels
,” Energy Environ. Sci.
, 5
(7
), p. 7797
. 28.
Wang
, Z.
, Burra
, K. G.
, Lei
, T.
, and Gupta
, A. K.
, 2019
, “Co-Gasification Characteristics of Waste Tire and Pine Bark Mixtures in CO2 Atmosphere
,” Fuel
, 257
(1
), p. 116025
. 29.
Czajczyńska
, D.
, Krzyżyńska
, R.
, Jouhara
, H.
, and Spencer
, N.
, 2017
, “Use of Pyrolytic Gas From Waste Tire as a Fuel: A Review
,” Energy
, 134
(1
), pp. 1121
–1131
. 30.
Toledo
, M.
, Ripoll
, N.
, Céspedes
, J.
, Zbogar-Rasic
, A.
, Fedorova
, N.
, Jovicic
, V.
, and Delgado
, A.
, 2018
, “Syngas Production From Waste Tires Using a Hybrid Filtration Reactor Under Different Gasifier Agents
,” Energy Convers. Manage.
, 172
(1
), pp. 381
–390
. 31.
Kordoghli
, S.
, Paraschiv
, M.
, Tazerout
, M.
, Khiari
, B.
, and Zagrouba
, F.
, 2017
, “Novel Catalytic Systems for Waste Tires Pyrolysis: Optimization of Gas Fraction
,” ASME J. Energy Resour. Technol.
, 139
(3
), p. 032203
. 32.
Ahmed
, I. I.
, Nipattummakul
, N.
, and Gupta
, A. K.
, 2011
, “Characteristics of Syngas From Co-Gasification of Polyethylene and Woodchips
,” Appl. Energy
, 88
(1
), pp. 165
–174
. 33.
Burra
, K. R. G.
, Selim
, O. M.
, Amano
, R. S.
, and Gupta
, A. K.
, 2023
, “Synergy in Syngas Yield From Co-Pyrolysis of Cow and Chicken Manures
,” ASME J. Energy Resour. Technol.
, 145
(6
), pp. 1
–22
. 34.
Hossain
, M. S.
, Islam
, M. R.
, Rahman
, M. S.
, Kader
, M. A.
, and Haniu
, H.
, 2017
, “Biofuel From Co-Pyrolysis of Solid Tire Waste and Rice Husk
,” Energy Procedia
, 110
(1
), pp. 453
–458
. 35.
Wang
, L.
, Chai
, M.
, Liu
, R.
, and Cai
, J.
, 2018
, “Synergetic Effects During Co-Pyrolysis of Biomass and Waste Tire: A Study on Product Distribution and Reaction Kinetics
,” Bioresour. Technol.
, 268
(1
), pp. 363
–370
. 36.
Uçar
, S.
, and Karagöz
, S.
, 2014
, “Co-Pyrolysis of Pine Nut Shells With Scrap Tires
,” Fuel
, 137
(1
), pp. 85
–93
. 37.
Alvarez
, J.
, Amutio
, M.
, Lopez
, G.
, Santamaria
, L.
, Bilbao
, J.
, and Olazar
, M.
, 2019
, “Improving Bio-Oil Properties Through the Fast Co-Pyrolysis of Lignocellulosic Biomass and Waste Tyres
,” Waste Manage.
, 85
(1
), pp. 385
–395
. 38.
Abnisa
, F.
, and Wan Daud
, W. M. A.
, 2015
, “Optimization of Fuel Recovery Through the Stepwise Co-Pyrolysis of Palm Shell and Scrap Tire
,” Energy Convers. Manage.
, 99
(1
), pp. 334
–345
. 39.
Shi
, S.
, Zhou
, X.
, Chen
, W.
, Wang
, X.
, Nguyen
, T.
, and Chen
, M.
, 2017
, “Thermal and Kinetic Behaviors of Fallen Leaves and Waste Tires Using Thermogravimetric Analysis
,” BioResources
, 12
(3
), pp. 4707
–4721
. 40.
Lahijani
, P.
, Zainal
, Z. A.
, Mohamed
, A. R.
, and Mohammadi
, M.
, 2013
, “Co-Gasification of Tire and Biomass for Enhancement of Tire-Char Reactivity in CO2 Gasification Process
,” Bioresour. Technol.
, 138
(1
), pp. 124
–130
. 41.
Cai
, H.
, Liu
, J.
, Xie
, W.
, Kuo
, J.
, Buyukada
, M.
, and Evrendilek
, F.
, 2019
, “Pyrolytic Kinetics, Reaction Mechanisms and Products of Waste Tea via TG-FTIR and Py-GC/MS
,” Energy Convers. Manage.
, 184
(1
), pp. 436
–447
. 42.
Yang
, R. T.
, and Steinberg
, M.
, 1976
, “Reaction Kinetics and Differential Thermal Analysis
,” J. Phys. Chem.
, 80
(9
), pp. 965
–968
. 43.
Akahira
, T.
, and Sunose
, T.
, 1971
, “Method of Determining Activation Deterioration Constant of Electrical Insulating Materials
,” Res. Rep. Chiba Inst. Technol.
, 16
(1
), pp. 22
–31
.44.
Merdun
, H.
, and Laougé
, Z. B.
, 2021
, “Kinetic and Thermodynamic Analyses During Co-Pyrolysis of Greenhouse Wastes and Coal by TGA
,” Renewable Energy
, 163
(1
), pp. 453
–464
. 45.
Xie
, W.
, Wen
, S.
, Liu
, J.
, Xie
, W.
, Kuo
, J.
, Lu
, X.
, Sun
, S.
, Chang
, K.
, Buyukada
, M.
, and Evrendilek
, F.
, 2018
, “Comparative Thermogravimetric Analyses of Co-Combustion of Textile Dyeing Sludge and Sugarcane Bagasse in Carbon Dioxide/Oxygen and Nitrogen/Oxygen Atmospheres: Thermal Conversion Characteristics, Kinetics, and Thermodynamics
,” Bioresour. Technol.
, 255
(1
), pp. 88
–95
. 46.
Wang
, Z.
, Wu
, M.
, Chen
, G.
, Zhang
, M.
, Sun
, T.
, Burra
, K. G.
, Guo
, S.
, et al, 2023
, “Co-Pyrolysis Characteristics of Waste Tire and Maize Stalk Using TGA, FTIR and Py-GC/MS Analysis
,” Fuel
, 337
(1
), p. 127206
. 47.
Tahir
, M. H.
, Zhao
, Z.
, Ren
, J.
, Rasool
, T.
, and Naqvi
, S. R.
, 2019
, “Thermo-Kinetics and Gaseous Product Analysis of Banana Peel Pyrolysis for Its Bioenergy Potential
,” Biomass Bioenergy
, 122
(1
), pp. 193
–201
. 48.
Ansah
, E.
, Wang
, L.
, and Shahbazi
, A.
, 2016
, “Thermogravimetric and Calorimetric Characteristics During Co-Pyrolysis of Municipal Solid Waste Components
,” Waste Manage.
, 56
(1
), pp. 196
–206
. 49.
Policella
, M.
, Wang
, Z.
, Burra
, K. G.
, and Gupta
, A. K.
, 2019
, “Characteristics of Syngas From Pyrolysis and CO2-Assisted Gasification of Waste Tires
,” Appl. Energy
, 254
(1
), p. 113678
. 50.
Heydari
, M.
, Rahman
, M.
, and Gupta
, R.
, 2015
, “Kinetic Study and Thermal Decomposition Behavior of Lignite Coal
,” Int. J. Chem. Eng.
, 2015
(1
), pp. 1
–9
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