A review on application of dielectric barrier discharge plasma technology on the abatement of volatile organic compounds

Highlights

• Applications of non-thermal plasma reactors for reduction of VOCs were reviewed.

• Dielectric barrier discharge (DBD) plasma was considered.

• Effect of process parameters was studied.

• Effect of catalysts and inhibitors were evaluated.

Abstract

Volatile organic compounds (VOCs) released from the waste treatment facilities have become a significant issue because they are not only causing odor nuisance but may also hazard to human health. Non-thermal plasma (NTP) technologies are newly developed methods and became a research trend in recent years regarding the removal of VOCs from the air environment. Due to its unique characteristics, such as bulk homogenized volume, plasma with high reaction efficiency dielectric barrier discharge (DBD) technology is considered one of the most promising techniques of NTP. This paper reviews recent progress of DBD plasma technology for abatement of VOCs. The principle of plasma generation in DBD and its configurations (electrode, discharge gap, dielectric barrier material, etc.) are discussed in details. Based on previously published literature, attention has been paid on the effect of DBD configuration on the removal of VOCs. The removal efficiency of VOCs in DBD reactors is presented too, considering various process parameters such as initial concentration, gas feeding rate, oxygen content and input power. Moreover, using DBD technology, the role of catalysis and inhibitors in VOCs removal are discussed. Finally, a modified configuration of the DBD reactor, i.e. double dielectric barrier discharge (DDBD) for the abatement of VOCs is discussed in details. It was suggested that the DDBD plasma reactor could be used for higher conversion efficiency as well as for avoiding solid residue deposition on the electrode. These depositions can interfere with the performance of the reactor.

Graphical abstract

Keywords

Non-thermal plasma (NTP) / Dielectric barrier discharge (DBD) / Volatile organic compounds (VOCs) / Abatement / Input power

References

[1] Abbas N, Hussain M, Russo N, Saracco G (2011). Studies on the activity and deactivation of novel optimized TiO₂ nanoparticles for the abatement of VOCs. Chemical Engineering Journal, 175: 330–340

[2] Abd Allah Z, Whitehead J C, Martin P (2014). Remediation of dichloromethane (CH₂Cl₂) using non-thermal, atmospheric pressure plasma generated in a packed-bed reactor. Environmental Science & Technology, 48(1): 558–565

[3] Abdelaziz A A, Ishijima T, Seto T (2018). Humidity effects on surface dielectric barrier discharge for gaseous naphthalene decomposition. Physics of Plasmas, 25(4): 043512 (1–9)

[4] Abdullah A Z, Bakar M Z A, Bhatia S (2006). Combustion of chlorinated volatile organic compounds (VOCs) using bimetallic chromium-copper supported on modified H-ZSM-5 catalyst. Journal of Hazardous Materials, 129(1–3): 39–49

[5] Abedi K, Ghorbani-Shahna F, Jaleh B, Bahrami A, Yarahmadi R (2014). Enhanced performance of non-thermal plasma coupled with TiO₂/GAC for decomposition of chlorinated organic compounds: influence of a hydrogen-rich substance. Journal of Environmental Health Science & Engineering, 12(1): 119

[6] Abedi K, Ghorbani-Shahna F, Jaleh B, Bahrami A, Yarahmadi R, Haddadi R, Gandomi M (2015). Decomposition of chlorinated volatile organic compounds (CVOCs) using NTP coupled with TiO₂/GAC, ZnO/GAC, and TiO₂–ZnO/GAC in a plasma-assisted catalysis system. Journal of Electrostatics, 73: 80–88

[7] Abou Saoud W, Assadi A A, Guiza M, Bouzaza A, Aboussaoud W, Soutrel I, Ouederni A, Wolbert D, Rtimi S (2018). Abatement of ammonia and butyraldehyde under non-thermal plasma and photocatalysis: Oxidation processes for the removal of mixture pollutants at pilot scale. Chemical Engineering Journal, 344: 165–172

[8] Aggelopoulos C A,Tataraki D,Rassias G (2018). Degradation of atrazine in soil by dielectric barrier discharge plasma – Potential singlet oxygen mediation. Chemical Engineering Journal, 347: 682–694

[9] Aranzabal A, Romero-Sáez M, Elizundia U, González-Velasco J R, Gonz�lez-Marcos J A (2012). Deactivation of H-zeolites during catalytic oxidation of trichloroethylene. Journal of Catalysis, 296: 165–174

[10] Ashford B, Tu X (2017). Non-thermal plasma technology for the conversion of CO₂. Current Opinion in Green and Sustainable Chemistry, 3: 45–49

[11] Bahri M, Haghighat F, Rohani S, Kazemian H (2016). Impact of design parameters on the performance of non-thermal plasma air purification system. Chemical Engineering Journal, 302: 204–212

[12] Bahri M, Haghighat F, Rohani S, Kazemian H (2017). Metal organic frameworks for gas-phase VOCs removal in a NTP-catalytic reactor. Chemical Engineering Journal, 320: 308–318

[13] Barbusinski K, Kalemba K, Kasperczyk D, Urbaniec K, Kozik V (2017). Biological methods for odor treatment – A review. Journal of Cleaner Production, 152: 223–241

[14] Bo Z, Hao H, Yang S, Zhu J, Yan J, Cen K (2018). Vertically-oriented graphenes supported Mn₃O₄ as advanced catalysts in post plasma-catalysis for toluene decomposition. Applied Surface Science, 436: 570–578

[15] Boycheva S, Zgureva D, Václavíková M, Kalvachev Y, Lazarova H, Popova M (2018). Studies on non-modified and copper-modified coal ash zeolites as heterogeneous catalysts for VOCs oxidation. Journal of Hazardous Materials, 361: 374–382

[16] Brandenburg R (2017). Dielectric barrier discharges: progress on plasma sources and on the understanding of regimes and single filaments. Plasma Sources Science & Technology, 26(5): 1–29

[17] Byeon J H, Park J H, Jo Y S, Yoon K Y, Hwang J (2010). Removal of gaseous toluene and submicron aerosol particles using a dielectric barrier discharge reactor. Journal of Hazardous Materials, 175(1–3): 417–422

[18] Carabineiro S A C, Chen X, Martynyuk O, Bogdanchikova N, Avalos-Borja M, Pestryakov A, Tavares P B, Órfão J J M, Pereira M F R, Figueiredo J L (2015). Gold supported on metal oxides for volatile organic compounds total oxidation. Catalysis Today, 244: 103–114

[19] Chang C L, Lin T S (2005). Decomposition of toluene and acetone in packed dielectric barrier discharge reactors. Plasma Chemistry and Plasma Processing, 25(3): 227–243

[20] Chang T, Shen Z, Huang Y, Lu J, Ren D, Sun J, Cao J, Liu H (2018). Post-plasma-catalytic removal of toluene using MnO₂–Co₃O₄ catalysts and their synergistic mechanism. Chemical Engineering Journal, 348: 15–25

[21] Chavadej S, Kiatubolpaiboon W, Rangsunvigit P, Sreethawong T (2007). A combined multistage corona discharge and catalytic system for gaseous benzene removal. Journal of Molecular Catalysis A Chemical, 263(1–2): 128–136

[22] Chen H L, Lee H M, Chen S H, Chang M B, Yu S J, Li S N (2009a). Removal of volatile organic compounds by single-stage and two-stage plasma catalysis systems: a review of the performance enhancement mechanisms, current status, and suitable applications. Environmental Science & Technology, 43(7): 2216–2227

[23] Chen J, Su Q, Pan H, Wei J, Zhang X, Shi Y (2009b). Influence of balance gas mixture on decomposition of dimethyl sulfide in a wire-cylinder pulse corona reactor. Chemosphere, 75(2): 261–265

[24] Chen J, Xie Z, Tang J, Zhou J, Lu X, Zhao H (2016). Oxidation of toluene by dielectric barrier discharge with photo-catalytic electrode. Chemical Engineering Journal, 284: 166–173

[25] Chiper A S, Blin-Simiand N, Heninger M, Mestdagh H, Boissel P, Jorand F, Lemaire J, Leprovost J, Pasquiers S, Popa G, Christian P (2009). Detailed characterization of 2-heptanone conversion by dielectric barrier discharge in N₂ and N₂/O₂ mixtures. The Journal of Physical Chemistry A, 114(1): 397–407

[26] Choi S, Lee M S, Park D W (2014). Photocatalytic performance of TiO₂/V₂O₅ nanocomposite powder prepared by DC arc plasma. Current Applied Physics, 14(3): 433–438

[27] Crowley B (2015). On the electrical conductivity of plasmas and metals. arXiv preprint arXiv:1508.06101. Available online at https://arxiv.org/ftp/arxiv/papers/1508/1508.06101.pdf (accessed January 10, 2019)

[28] Dai Q, Wang X, Lu G (2008). Low-temperature catalytic combustion of trichloroethylene over cerium oxide and catalyst deactivation. Applied Catalysis B: Environmental, 81(3–4): 192–202

[29] Delagrange S, Pinard L, Tatibouët J M (2006). Combination of a non-thermal plasma and a catalyst for toluene removal from air: Manganese based oxide catalysts. Applied Catalysis B: Environmental, 68(3–4): 92–98

[30] Dinh M N, Giraudon J M, Vandenbroucke A, Morent R, De Geyter N, Lamonier J F (2016). Manganese oxide octahedral molecular sieve K-OMS-2 as catalyst in post plasma-catalysis for trichloroethylene degradation in humid air. Journal of Hazardous Materials, 314: 88–94

[31] Dobslaw D, Ortlinghaus O, Dobslaw C (2018). A combined process of non-thermal plasma and a low-cost mineral adsorber for VOC removal and odor abatement in emissions of organic waste treatment plants. Journal of Environmental Chemical Engineering, 6(2): 2281–2289

[32] Dors M, Tomasz Izdebski, Mateusz Tański, Mizeraczyk J (2014). The influence of hydrogen sulphide and configuration of a DBD reactor powered with nanosecond high voltage pulses on hydrogen production from biogas. European Chemical Bulletin, 3(8): 798–804

[33] Dou B, Liu D, Zhang Q, Zhao R, Hao Q, Bin F, Cao J (2017). Enhanced removal of toluene by dielectric barrier discharge coupling with Cu-Ce-Zr supported ZSM-5/TiO₂/Al₂O₃. Catalysis Communications, 92: 15–18

[34] Fan X, Zhu T, Sun Y, Yan X (2011). The roles of various plasma species in the plasma and plasma-catalytic removal of low-concentration formaldehyde in air. Journal of Hazardous Materials, 196: 380–385

[35] Fan X, Zhu T L, Wang M Y, Li X M (2009). Removal of low-concentration BTX in air using a combined plasma catalysis system. Chemosphere, 75(10): 1301–1306

[36] Feng X, Liu H, He C, Shen Z, Wang T (2018). Synergistic effects and mechanism of a non-thermal plasma catalysis system in volatile organic compound removal: a review. Catalysis Science & Technology, 8(4): 936–954

[37] Florian J, Merbahi N, Wattieaux G, Plewa J M, Yousfi M (2015). Comparative studies of double dielectric barrier discharge and microwave argon plasma jets at atmospheric pressure for biomedical applications. IEEE Transactions on Plasma Science, 43(9): 3332–3338

[38] Fridman A (2008). Plasma Chemistry. New York: Cambridge University Press

[39] Futamura S, Sugasawa M (2008). Additive effect on energy efficiency and byproduct distribution in VOC decomposition with nonthermal plasma. IEEE Transactions on Industry Applications, 44(1): 40–45

[40] Gandhi M S, Mok Y S (2012). Decomposition of trifluoromethane in a dielectric barrier discharge non-thermal plasma reactor. Journal of Environmental Sciences-China, 24(7): 1234–1239

[41] Ge H, Hu D, Li X, Tian Y, Chen Z, Zhu Y (2015). Removal of low-concentration benzene in indoor air with plasma-MnO₂ catalysis system. Journal of Electrostatics, 76: 216–221

[42] Guo L J, Jiang N, Li J, Shang K F, Lu N, Wu Y (2018a). Abatament of mixed volatile organic cmpounds in a catalytic hybrid surface/packed discharge plasma reactor. Frontiers of Environmental Science & Engineering, 12(2): 15

[43] Guo T, Du X, Peng Z, Xu L, Dong J, Li J, Cheng P, Zhou Z (2017). Quantification and risk assessment of organic products resulting from non-thermal plasma removal of toluene in nitrogen. Rapid Communications in Mass Spectrometry, 31(17): 1424–1430

[44] Guo T, Li X, Li J, Peng Z, Xu L, Dong J, Cheng P, Zhou Z (2018b). On-line quantification and human health risk assessment of organic by-products from the removal of toluene in air using non-thermal plasma. Chemosphere, 194: 139–146

[45] Guo Y, Liao X, He J, Ou W, Ye D (2010). Effect of manganese oxide catalyst on the dielectric barrier discharge decomposition of toluene. Catalysis Today, 153(3–4): 176–183

[46] Guo Y F, Ye D Q, Chen K F, He J C, Chen W L (2006). Toluene decomposition using a wire-plate dielectric barrier discharge reactor with manganese oxide catalyst in situ. Journal of Molecular Catalysis A Chemical, 245(1–2): 93–100

[47] Harling A M, Glover D J, Whitehead J C, Zhang K (2009). The role of ozone in the plasma-catalytic destruction of environmental pollutants. Applied Catalysis B: Environmental, 90(1–2): 157–161

[48] Hosseinzadeh A, Najafpoor A A, Jafari A J, Jazani R K, Baziar M, Bargozin H, Piranloo F G (2018). Application of response surface methodology and artificial neural network modeling to assess non-thermal plasma efficiency in simultaneous removal of BTEX from waste gases: Effect of operating parameters and prediction performance. Process Safety and Environmental Protection, 119: 261–270

[49] Hu J, Jiang N, Li J, Shang K, Lu N, Wu Y (2016). Degradation of benzene by bipolar pulsed series surface/packed-bed discharge reactor over MnO₂–TiO₂/zeolite catalyst. Chemical Engineering Journal, 293: 216–224

[50] Huang H, Ye D, Guan X (2008). The simultaneous catalytic removal of VOCs and O₃ in a post-plasma. Catalysis Today, 139(1–2): 43–48

[51] Iijima S, Nakamura M, Yokoi A, Kubota M, Huang L, Matsuda H (2011). Decomposition of dichloromethane and in situ alkali absorption of resulting halogenated products by a packed-bed non-thermal plasma reactor. Journal of Material Cycles and Waste Management, 13(3): 206–212

[52] Indarto A, Choi J W, Lee H, Song H K (2008). Decomposition of greenhouse gases by plasma. Environmental Chemistry Letters, 6(4): 215–222

[53] Iwamura Y, Saito Y (2015). Enhanced decomposition of benzene by non-thermal atmospheric pressure plasma with oxidized titanium electrode. IEEJ Transactions on Fundamentals and Materials, 135(1): 17–21

[54] Jarrige J, Vervisch P (2009). Plasma-enhanced catalysis of propane and isopropyl alcohol at ambient temperature on a MnO₂-based catalyst. Applied Catalysis B: Environmental, 90(1–2): 74–82

[55] Jia Z, Vega-Gonzalez A, Amar M B, Hassouni K, Tieng S, Touchard S, Kanaev A, Duten X (2013). Acetaldehyde removal using a diphasic process coupling a silver-based nano-structured catalyst and a plasma at atmospheric pressure. Catalysis Today, 208: 82–89

[56] Jiang L, Nie G, Zhu R, Wang J, Chen J, Mao Y, Cheng Z, Anderson W A (2017). Efficient degradation of chlorobenzene in a non-thermal plasma catalytic reactor supported on CeO₂/HZSM-5 catalysts. Journal of Environmental Sciences-China, 55: 266–273

[57] Jiang N, Hu J, Li J, Shang K, Lu N, Wu Y (2016). Plasma-catalytic degradation of benzene over Ag–Ce bimetallic oxide catalysts using hybrid surface/packed-bed discharge plasmas. Applied Catalysis B: Environmental, 184: 355–363

[58] Jiang N, Lu N, Shang K, Li J, Wu Y (2013). Effects of electrode geometry on the performance of dielectric barrier/packed-bed discharge plasmas in benzene degradation. Journal of Hazardous Materials, 262: 387–393

[59] Kamal M S, Razzak S A, Hossain M M (2016). Catalytic oxidation of volatile organic compounds (VOCs) – A review. Atmospheric Environment, 140: 117–134

[60] Karatum O, Deshusses M A (2016). A comparative study of dilute VOCs treatment in a non-thermal plasma reactor. Chemical Engineering Journal, 294: 308–315

[61] Karuppiah J, Reddy P M K, Reddy E L, Subrahmanyam C (2013). Catalytic non-thermal plasma reactor for decomposition of dilute chlorobenzene. Plasma Processes and Polymers, 10(12): 1074–1080

[62] Keidar M, Beilis I (2018). Plasma Engineering, 2nd Edition. Cambridge, Massachusetts: Academic Press, 3–100

[63] Khoja A H, Tahir M, Amin N A S (2017). Dry reforming of methane using different dielectric materials and DBD plasma reactor configurations. Energy Conversion and Management, 144: 262–274

[64] Kim D H, Mok Y S, Lee S B (2011). Effect of temperature on the decomposition of trifluoromethane in a dielectric barrier discharge reactor. Thin Solid Films, 519(20): 6960–6963

[65] Kim H H, Lee Y H, Ogata A, Futamura S (2003). Plasma-driven catalyst processing packed with photocatalyst for gas-phase benzene decomposition. Catalysis Communications, 4(7): 347–351

[66] Kim H H, Ogata A, Futamura S (2006). Effect of different catalysts on the decomposition of VOCS using flow-type plasma-driven catalysis. IEEE Transactions on Plasma Science, 34(3): 984–995

[67] Kim H H, Oh S M, Ogata A, Futamura S (2004). Decomposition of benzene using Ag/TiO₂ packed plasma-driven catalyst reactor: influence of electrode configuration and Ag-loading amount. Catalysis Letters, 96(3–4): 189–194

[68] Kim H H, Oh S M, Ogata A, Futamura S (2005). Decomposition of gas-phase benzene using plasma-driven catalyst (PDC) reactor packed with Ag/TiO₂ catalyst. Applied Catalysis B: Environmental, 56(3): 213–220

[69] Kim H H, Teramoto Y, Negishi N, Ogata A (2015). A multidisciplinary approach to understand the interactions of nonthermal plasma and catalyst: A review. Catalysis Today, 256: 13–22

[70] Kim K H, Szulejko J E, Kumar P, Kwon E E, Adelodun A A, Reddy P A K (2017). Air ionization as a control technology for off-gas emissions of volatile organic compounds. Environmental Pollution, 225: 729–743

[71] Kim K J, Kim J, Son Y S, Chung S G, Kim J C (2012). Advanced oxidation of aromatic VOCs using a pilot system with electron beam–catalyst coupling. Radiation Physics and Chemistry, 81(5): 561–565

[72] Klett C, Duten X, Tieng S, Touchard S, Jestin P, Hassouni K, Vega-González A (2014). Acetaldehyde removal using an atmospheric non-thermal plasma combined with a packed bed: Role of the adsorption process. Journal of Hazardous Materials, 279: 356–364

[73] Kogelschatz U (2003). Dielectric-barrier discharges: their history, discharge physics, and industrial applications. Plasma Chemistry and Plasma Processing, 23(1): 1–46

[74] Kogelschatz U, Eliasson B, Egli W (1997). Dielectric-barrier discharges. Principle and applications. Le Journal de Physique IV, 07(C4): C4–47–C44–66

[75] Kraus M, Eliasson B, Kogelschatz U, Wokaun A (2001). CO₂ reforming of methane by the combination of dielectric-barrier discharges and catalysis. Physical Chemistry Chemical Physics, 3(3): 294–300

[76] Kundu S K, Kennedy E M, Gaikwad V V, Molloy T S, Dlugogorski B Z (2012). Experimental investigation of alumina and quartz as dielectrics for a cylindrical double dielectric barrier discharge reactor in argon diluted methane plasma. Chemical Engineering Journal, 180: 178–189

[77] Kwong C W, Chao C Y H, Hui K S, Wan M P (2008). Removal of VOCs from indoor environment by ozonation over different porous materials. Atmospheric Environment, 42(10): 2300–2311

[78] Lee H M, Chang M B (2003). Abatement of gas-phase p-xylene via dielectric barrier discharges. Plasma Chemistry and Plasma Processing, 23(3): 541–558

[79] Li Y, Fan Z, Shi J, Liu Z, Shangguan W (2014). Post plasma-catalysis for VOCs degradation over different phase structure MnO₂ catalysts. Chemical Engineering Journal, 241: 251–258

[80] Liang W J, Fang H P, Li J, Zheng F, Li J X, Jin Y Q (2011). Performance of non-thermal DBD plasma reactor during the removal of hydrogen sulfide. Journal of Electrostatics, 69(3): 206–213

[81] Liang W J, Li J, Li J X, Zhu T, Jin Y Q (2010). Formaldehyde removal from gas streams by means of NaNO₂ dielectric barrier discharge plasma. Journal of Hazardous Materials, 175(1–3): 1090–1095

[82] Liang W J, Ma L, Liu H, Li J (2013). Toluene degradation by non-thermal plasma combined with a ferroelectric catalyst. Chemosphere, 92(10): 1390–1395

[83] Linga Reddy E, Biju V M, Subrahmanyam C (2012a). Production of hydrogen and sulfur from hydrogen sulfide assisted by nonthermal plasma. Applied Energy, 95: 87–92

[84] Linga Reddy E, Karuppiah J, Renken A, Kiwi Minsker L, Subrahmanyam C (2012b). Kinetics of the decomposition of hydrogen sulfide in a dielectric barrier discharge reactor. Chemical Engineering & Technology, 35(11): 2030–2034

[85] Lu B, Zhang X, Yu X, Feng T, Yao S (2006). Catalytic oxidation of benzene using DBD corona discharges. Journal of Hazardous Materials, 137(1): 633–637

[86] Lu N, Li J, Wang X, Wang T, Wu Y (2012). Application of double-dielectric barrier discharge plasma for removal of pentachlorophenol from wastewater coupling with activated carbon adsorption and simultaneous regeneration. Plasma Chemistry and Plasma Processing, 32(1): 109–121

[87] Ma C, Dai B, Liu P, Zhou N, Shi A, Ban L, Chen H (2014). Deep oxidative desulfurization of model fuel using ozone generated by dielectric barrier discharge plasma combined with ionic liquid extraction. Journal of Industrial and Engineering Chemistry, 20(5): 2769–2774

[88] Ma T J, Lan W S (2015). Ethylene decomposition with a wire-plate dielectric barrier discharge reactor: parameters and kinetic study. International Journal of Environmental Science and Technology, 12(12): 3951–3956

[89] Magureanu M, Mandache N B, Eloy P, Gaigneaux E M, Parvulescu V I (2005). Plasma-assisted catalysis for volatile organic compounds abatement. Applied Catalysis B: Environmental, 61(1–2): 12–20

[90] Magureanu M, Mandache N B, Parvulescu V I, Subrahmanyam C, Renken A, Kiwi-Minsker L (2007). Improved performance of non-thermal plasma reactor during decomposition of trichloroethylene: Optimization of the reactor geometry and introduction of catalytic electrode. Applied Catalysis B: Environmental, 74(3–4): 270–277

[91] Mei D, Tu X (2017). Conversion of CO₂ in a cylindrical dielectric barrier discharge reactor: Effects of plasma processing parameters and reactor design. Journal of CO₂ Utilization, 19: 68–78

[92] Mfopara A, Kirkpatrick M J, Odic E (2009). Dilute methane treatment by atmospheric pressure dielectric barrier discharge: effects of water vapor. Plasma Chemistry and Plasma Processing, 29(2): 91–102

[93] Mista W, Kacprzyk R (2008). Decomposition of toluene using non-thermal plasma reactor at room temperature. Catalysis Today, 137(2–4): 345–349

[94] Młotek M, Reda E, Jóźwik P, Krawczyk K, Bojar Z (2015). Plasma-catalytic decomposition of cyclohexane in gliding discharge reactor. Applied Catalysis A, General, 505: 150–158

[95] Mok Y S, Lee S B, Oh J H, Ra K S, Sung B H (2008). Abatement of trichloromethane by using nonthermal plasma reactors. Plasma Chemistry and Plasma Processing, 28(6): 663–676

[96] Mustafa M F, Fu X, Liu Y, Abbas Y, Wang H, Lu W (2018). Volatile organic compounds (VOCs) removal in non-thermal plasma double dielectric barrier discharge reactor. Journal of Hazardous Materials, 347: 317–324

[97] Mustafa M F, Fu X, Lu W, Liu Y, Abbas Y, Wang H, Arslan M T (2017a). Application of non-thermal plasma technology on fugitive methane destruction: configuration and optimization of double dielectric barrier discharge reactor. Journal of Cleaner Production, 174: 670–677

[98] Mustafa M F, Liu Y, Duan Z, Guo H, Xu S, Wang H, Lu W (2017b). Volatile compounds emission and health risk assessment during composting of organic fraction of municipal solid waste. Journal of Hazardous Materials, 327: 35–43

[99] Narengerile W T, Watanabe T (2012). Acetone decomposition by water plasmas at atmospheric pressure. Chemical Engineering Science, 69(1): 296–303

[100] Nguyen H H, Kim K S (2015). Combination of plasmas and catalytic reactions for CO₂ reforming of CH₄ by dielectric barrier discharge process. Catalysis Today, 256(Part 1): 88–95

[101] Ni M J, Shen X, Gao X, Wu Z L, Lu H, Li Z S, Luo Z Y, Cen K F (2011). Naphthalene decomposition in a DC corona radical shower discharge. Journal of Zhejiang University. Science A, 12(1): 71–77

[102] Obradović B M, Sretenović G B, Kuraica M M (2011). A dual-use of DBD plasma for simultaneous NO_x and SO₂ removal from coal-combustion flue gas. Journal of Hazardous Materials, 185(2–3): 1280–1286

[103] Oda T (2003). Non-thermal plasma processing for environmental protection: decomposition of dilute VOCs in air. Journal of Electrostatics, 57(3–4): 293–311

[104] Oda T, Kumada A, Tanaka K, Takahashi T, Masuda S (1995). Low temperature atmospheric pressure discharge plasma processing for volatile organic compounds. Journal of Electrostatics, 35(1): 93–101

[105] Ondarts M, Hajji W, Outin J, Bejat T, Gonze E (2017). Non-thermal plasma for indoor air treatment: toluene degradation in a corona discharge at ppbv levels. Chemical Engineering Research & Design, 118: 194–205

[106] Pacheco M, Alva E, Valdivia R, Pacheco J, Rivera C, Santana A, Huertas J, Lefort B, Estrada N (2012). Removal of main exhaust gases of vehicles by a double dielectric barrier discharge.14th Latin American Workshop on Plasma Physics (Lawpp 2011), 370: 1–7

[107] Padhi S K, Gokhale S (2014). Biological oxidation of gaseous VOCs – rotating biological contactor a promising and eco-friendly technique. Journal of Environmental Chemical Engineering, 2(4): 2085–2102

[108] Park C W, Byeon J H, Yoon K Y, Park J H, Hwang J (2011). Simultaneous removal of odors, airborne particles, and bioaerosols in a municipal composting facility by dielectric barrier discharge. Separation and Purification Technology, 77(1): 87–93

[109] Qin C, Guo H, Liu P, Bai W, Huang J, Huang X, Dang X, Yan D (2018). Toluene abatement through adsorption and plasma oxidation using ZSM-5 mixed with g-Al₂O₃, TiO₂ or BaTiO₃. Journal of Industrial and Engineering Chemistry, 63: 449–455

[110] Ragazzi M, Tosi P, Rada E C, Torretta V, Schiavon M (2014). Effluents from MBT plants: plasma techniques for the treatment of VOCs. Waste Management (New York, N.Y.), 34(11): 2400–2406

[111] Raju B R, Reddy E L, Karuppiah J, Reddy P M K, Subrahmanyam C (2013). Catalytic non-thermal plasma reactor for the decomposition of a mixture of volatile organic compounds. Journal of Chemical Sciences, 125(3): 673–678

[112] Rezaei E, Soltan J, Chen N (2013). Catalytic oxidation of toluene by ozone over alumina supported manganese oxides: effect of catalyst loading. Applied Catalysis B: Environmental, 136–137: 239–247

[113] Roland U, Holzer F, Kopinke F D (2002). Improved oxidation of air pollutants in a non-thermal plasma. Catalysis Today, 73(3–4): 315–323

[114] Roland U, Holzer F, Kopinke F D (2005). Combination of non-thermal plasma and heterogeneous catalysis for oxidation of volatile organic compounds: Part 2. Ozone decomposition and deactivation of g-Al₂O₃. Applied Catalysis B: Environmental, 58(3–4): 217–226

[115] Rutscher A (2008). Characteristics of low-temperature plasmas under nonthermal conditions–a short summary. In: Hippler R, Kersten H, Schmidt M, Schoenbach K H, eds. Low Temperature Plasmas: Fundamentals, Technologies and Techniques, 2nd Edition. Weinheim: WILEY-VCH Verlag GmbH & Co. KGaA, 1: 1–14

[116] Schiavon M, Scapinello M, Tosi P, Ragazzi M, Torretta V, Rada E C (2015). Potential of non-thermal plasmas for helping the biodegradation of volatile organic compounds (VOCs) released by waste management plants. Journal of Cleaner Production, 104: 211–219

[117] Schiavon M, Schiorlin M, Torretta V, Brandenburg R, Ragazzi M (2017a). Non-thermal plasma assisting the biofiltration of volatile organic compounds. Journal of Cleaner Production, 148: 498–508

[118] Schiavon M, Torretta V, Casazza A, Ragazzi M (2017b). Non-thermal plasma as an innovative option for the abatement of volatile organic compounds: a review. Water, Air, and Soil Pollution, 228(10): 1–20

[119] Schmidt M, Jõgi I, Hołub M, Brandenburg R (2015). Non-thermal plasma based decomposition of volatile organic compounds in industrial exhaust gases. International Journal of Environmental Science and Technology, 12(12): 3745–3754

[120] Shahna F, Bahrami A, Alimohammadi I, Yarahmadi R, Jaleh B, Gandomi M, Ebrahimi H, Ad-Din Abedi K (2017). Chlorobenzene degeradation by non-thermal plasma combined with EG-TiO2/ZnO as a photocatalyst: Effect of photocatalyst on CO₂ selectivity and byproducts reduction. Journal of Hazardous Materials, 324: 544–553

[121] Shi Y, Shao Z, Shou T, Tian R, Jiang J, He Y (2016). Abatement of gaseous xylene using double dielectric barrier discharge plasma with in situ UV light: operating parameters and byproduct analysis. Plasma Chemistry and Plasma Processing, 36(6): 1501–1515

[122] Shu Y, Ji J, Xu Y, Deng J, Huang H, He M, Leung D Y C, Wu M, Liu S, Liu S, Liu G, Xie R, Feng Q, Zhan Y, Fang R, Ye X (2018). Promotional role of Mn doping on catalytic oxidation of VOCs over mesoporous TiO₂ under vacuum ultraviolet (VUV) irradiation. Applied Catalysis B: Environmental, 220: 78–87

[123] Sivachandiran L, Karuppiah J, Subrahmanyam C (2012). DBD plasma reactor for oxidative decomposition of chlorobenzene. International Journal of Chemical Reactor Engineering, 10(1): 1–14

[124] Sobacchi M G, Saveliev A V, Fridman A A, Gutsol A F, Kennedy L A (2003). Experimental assessment of pulsed corona discharge for treatment of VOC emissions. Plasma Chemistry and Plasma Processing, 23(2): 347–370

[125] Song H, Hu F, Peng Y, Li K, Bai S, Li J (2018). Non-thermal plasma catalysis for chlorobenzene removal over CoMn/TiO₂ and CeMn/TiO₂: Synergistic effect of chemical catalysis and dielectric constant. Chemical Engineering Journal, 347: 447–454

[126] Song Y H, Kim S J, Choi K I, Yamamoto T (2002). Effects of adsorption and temperature on a nonthermal plasma process for removing VOCs. Journal of Electrostatics, 55(2): 189–201

[127] Subrahmanyam C, Renken A, Kiwi-Minsker L (2006). Catalytic abatement of volatile organic compounds assisted by non-thermal plasma: Part II. Optimized catalytic electrode and operating conditions. Applied Catalysis B: Environmental, 65(1–2): 157–162

[128] Subrahmanyam C, Renken A, Kiwi-Minsker L (2010). Catalytic non-thermal plasma reactor for abatement of toluene. Chemical Engineering Journal, 160(2): 677–682

[129] Sultana S, Vandenbroucke A M, Leys C, De Geyter N, Morent R (2015). Abatement of VOCs with alternate adsorption and plasma-assisted regeneration: a review. Catalysts, 5(2): 718–746

[130] Sultana S, Ye Z, Veerapandian S K P, Löfberg A, De Geyter N, Morent R, Giraudon J M, Lamonier J F (2018). Synthesis and catalytic performances of K-OMS-2, Fe/K-OMS-2 and Fe-K-OMS-2 in post plasma-catalysis for dilute TCE abatement. Catalysis Today, 307: 20–28

[131] Tang X, Feng F, Ye L, Zhang X, Huang Y, Liu Z, Yan K (2013). Removal of dilute VOCs in air by post-plasma catalysis over Ag-based composite oxide catalysts. Catalysis Today, 211: 39–43

[132] Thevenet F, Guaitella O, Puzenat E, Guillard C, Rousseau A (2008). Influence of water vapour on plasma/photocatalytic oxidation efficiency of acetylene. Applied Catalysis B: Environmental, 84(3–4): 813–820

[133] Thevenet F, Guillard C, Rousseau A (2014). Acetylene photocatalytic oxidation using continuous flow reactor: Gas phase and adsorbed phase investigation, assessment of the photocatalyst deactivation. Chemical Engineering Journal, 244: 50–58

[134] Trinh Q H, Kim S H, Mok Y S (2016). Removal of dilute nitrous oxide from gas streams using a cyclic zeolite adsorption–plasma decomposition process. Chemical Engineering Journal, 302: 12–22

[135] Vandenbroucke A M, Morent R, De Geyter N, Leys C (2011). Non-thermal plasmas for non-catalytic and catalytic VOC abatement. Journal of Hazardous Materials, 195: 30–54

[136] Vandenbroucke A M, Nguyen Dinh M T, Nuns N, Giraudon J M, De Geyter N, Leys C, Lamonier J F, Morent R (2016). Combination of non-thermal plasma and Pd/LaMnO₃ for dilute trichloroethylene abatement. Chemical Engineering Journal, 283: 668–675

[137] Wang B, Yao S, Peng Y, Xu Y (2018). Toluene removal over TiO₂-BaTiO₃ catalysts in an atmospheric dielectric barrier discharge. Journal of Environmental Chemical Engineering, 6(4): 3819–3826

[138] Wang C, Zhang G, Wang X (2012). Comparisons of discharge characteristics of a dielectric barrier discharge with different electrode structures. Vacuum, 86(7): 960–964

[139] Wang S, Zhang L, Long C, Li A (2014). Enhanced adsorption and desorption of VOCs vapor on novel micro-mesoporous polymeric adsorbents. Journal of Colloid and Interface Science, 428: 185–190

[140] Whitehead J C (2010). Plasma catalysis: A solution for environmental problems. Pure and Applied Chemistry, 82(6): 1329–1336

[141] Wu T, Wang X (2015). Emission of oxygenated volatile organic compounds (OVOCs) during the aerobic decomposition of orange wastes. Journal of Environmental Sciences-China, 33: 69–77

[142] Wu T, Wang X, Li D, Yi Z (2010). Emission of volatile organic sulfur compounds (VOSCs) during aerobic decomposition of food wastes. Atmospheric Environment, 44(39): 5065–5071

[143] Xiao G, Xu W, Wu R, Ni M, Du C, Gao X, Luo Z, Cen K (2014). Non-thermal plasmas for VOCs abatement. Plasma Chemistry and Plasma Processing, 34(5): 1033–1065

[144] Xu S, Lu W, Liu Y, Ming Z, Liu Y, Meng R, Wang H (2017a). Structure and diversity of bacterial communities in two large sanitary landfills in China as revealed by high-throughput sequencing. Waste Management, 63: 41–48

[145] Xu X, Wu J, Xu W, He M, Fu M, Chen L, Zhu A, Ye D (2017b). High-efficiency non-thermal plasma-catalysis of cobalt incorporated mesoporous MCM-41 for toluene removal. Catalysis Today, 281: 527–533

[146] Yan X, Sun Y, Zhu T, Fan X (2013). Conversion of carbon disulfide in air by non-thermal plasma. Journal of Hazardous Materials, 261: 669–674

[147] Yang Z, Yi H, Tang X, Zhao S, Yu Q, Gao F, Zhou Y, Wang J, Huang Y, Yang K, Shi Y (2017). Potential demonstrations of “hot spots” presence by adsorption-desorption of toluene vapor onto granular activated carbon under microwave radiation. Chemical Engineering Journal, 319: 191–199

[148] Ye T, Xiong Z, Yu J X, Jisong B (2016). Experimental study on biomass and gasification for hydrogen. Journal of Computational and Theoretical Nanoscience, 13(2): 1130–1135

[149] Ye Z, Zhang Y, Li P, Yang L, Zhang R, Hou H (2008). Feasibility of destruction of gaseous benzene with dielectric barrier discharge. Journal of Hazardous Materials, 156(1–3): 356–364

[150] Yi C H, Lee Y H, Woo Kim D, Yeom G Y (2003). Characteristic of a dielectric barrier discharges using capillary dielectric and its application to photoresist etching. Surface and Coatings Technology, 163–164: 723–727

[151] Zhang H, Li K, Li L, Liu L, Meng X, Sun T, Jia J, Fan M (2018). High efficient styrene mineralization through novel NiO-TiO₂-Al₂O₃ packed pre-treatment/treatment/post-treatment dielectric barrier discharge plasma. Chemical Engineering Journal, 343: 759–769

[152] Zhang H, Li K, Shu C, Lou Z, Sun T, Jia J (2014a). Enhancement of styrene removal using a novel double-tube dielectric barrier discharge (DDBD) reactor. Chemical Engineering Journal, 256: 107–118

[153] Zhang H, Li K, Sun T, Jia J, Lou Z, Feng L (2014b). Removal of styrene using dielectric barrier discharge plasmas combined with sol–gel prepared TiO₂ coated g-Al₂O₃. Chemical Engineering Journal, 241: 92–102

[154] Zhang H, Li K, Sun T, Jia J, Lou Z, Yao S, Wang G (2015). The combination effect of dielectric barrier discharge (DBD) and TiO₂ catalytic process on styrene removal and the analysis of the by-products and intermediates. Research on Chemical Intermediates, 41(1): 175–189

[155] Zhu R, Mao Y, Jiang L, Chen J (2015a). Performance of chlorobenzene removal in a nonthermal plasma catalysis reactor and evaluation of its byproducts. Chemical Engineering Journal, 279: 463–471

[156] Zhu T, Li R R, Ma M F, Li X (2017). Influence of energy efficiency on VOCs decomposition in non-thermal plasma reactor. International Journal of Environmental Science and Technology, 14(7): 1505–1512

[157] Zhu T, Li X, Zhao W, Xia N, Wang X (2015b). Experimental research on toluene degradation in plasma as the driving force of nanomaterials. Open Journal of Applied Sciences, 05(10): 586–594

[158] Zhu T, Wang R, Bian W, Chen Y (2018). Advanced oxidation technology for H₂S odor gas using non-thermal plasma. Plasma Science and Technology, 20(5): 1–6

[159] Zhu X, Gao X, Qin R, Zeng Y, Qu R, Zheng C, Tu X (2015c). Plasma-catalytic removal of formaldehyde over Cu–Ce catalysts in a dielectric barrier discharge reactor. Applied Catalysis B: Environmental, 170–171: 293–300

[160] Zhu X, Gao X, Yu X, Zheng C, Tu X (2015d). Catalyst screening for acetone removal in a single-stage plasma-catalysis system. Catalysis Today, 256: 108–114

[160] Zhu X, Liu S, Cai Y, Gao X, Zhou J, Zheng C, Tu X (2016). Post-plasma catalytic removalof methanol over Mn–Ce catalysts in an atmospheric dielectricbarrier discharge. Applied Catalysis B: Environmental, 183: 124–132

Acknowledgements

This work was financially supported by the National Key R&D Program of China (No. 2018YFD1100605).

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