[1] M. Liao, Y. Chen, Z. Cheng, C. Wang, X. Luo, and E. Bu, Hydrogen production from partial oxidation of propane: Effect of SiC addition on Ni/Al2O3 catalyst, Appl. Energy 252 (2019) 113435.
[2] T. Ramantani, V. Evangeliou, G. Kormentzas, and D. I. Kondarides, Hydrogen production by steam reforming of propane and LPG over supported metal catalysts, Appl. Catal. B Environ. 306 (2022) 121129.
[3] J. Y. Do, R. K. Chava, N. Son, J. Kim, N. Park, D. Lee, M. W. Seo, H. Ryu, J. H. Chi, and M. Kang, Effect of Ce Doping of a Co/Al2O3 Catalyst on Hydrogen Production via Propane Steam Reforming, Catalysts 8 (2018) 413.
[4] N. Wang, H. O. Otor, G. Rivera-Castro, and J. C. Hicks, Plasma catalysis for hydrogen production: a bright future for decarbonization, ACS Catal. 14 (2024) 6749-6798.
[5] P. Bains, S. Bennett, L. Collina, E. Connelly, C. Delmastro, S. Evangelopoulou, M. Fajardy, A. Gouy, M. Kotani, J. Le Marois, and P. Levi, Global hydrogen review 2023, International Energy Agency, Paris, France, 2023.
[6] I. Dincer and C. Acar, Review and evaluation of hydrogen production methods for better sustainability, Int. J. Hydrogen Energy 40 (2014) 11094-11111.
[7] M. J. Cook, T. Nott, W. J. Trompetter, J. Futter, C. W. Bumby, and J. V. Kennedy, Plasma mediated water splitting for hydrogen production, J. Phys. Energy 7 (2025) 022002.
[8] I. Adamovich, S. D. Baalrud, A. Bogaerts, P. J. Bruggeman, M. Cappelli, V. Colombo, U. Czarnetzki, U. Ebert, J. G. Eden, P. Favia, D. B. Graves, S. Hamaguchi, G. Hieftje, M. Hori, I. D. Kaganovich, U. Kortshagen, M. J. Kushner, N. J. Mason, S. Mazouffre, S. Mededovic Thagard, H.-R. Metelmann, A. Mizuno, E. Moreau, A. B. Murphy, B. A. Niemira, G. S. Oehrlein, Z. Lj. Petrovic, L. C. Pitchford, Y.-K. Pu, S. Rauf, O. Sakai, S. Samukawa, S. Starikovskaia, J. Tennyson, K. Terashima, M. M. Turner, M. C. M. van de Sanden, and A. Vardelle, The 2017 plasma roadmap: low temperature plasma science and technology, J. Phys. D: Appl. Phys. 50 (2017) 323001.
[9] D. C. Walker and R. A. Back, Photochemistry in the Photo-Ionization Region. II. Photochemistry of Methane, Ethane, and Ethylene at Wavelengths below 900, J. Chem. Phys. 38 (1963) 1526-1535.
[10] E. M. Magee, Photolysis of Methane by Vacuum-Ultraviolet Light, J. Chem. Phys. 39 (1963) 855-858.
[11] A. R. Derk, H. H. Funke, and J. L. Falconer, Methane conversion to higher hydrocarbons by UV irradiation, Ind. Eng. Chem. Res. 47 (2008) 6568-6572.
[12] C. M. Kalamaras and A. M. Efstathiou, Hydrogen Production Technologies: Current State and Future Developments, Conf. Pap. Energy (2013) 1-9.
[13] Z. Ghorbani, P. Parvin, A. Reyhani, S. Z. Mortazavi, A. Moosakhani, M. Maleki, and S. Kiani, Methane decomposition using metal-assisted nanosecond laser induced plasma at atmospheric pressure, J. Phys. Chem. C 118 (2014) 29822-29835.
[14] M. Habibpour, P. Parvin, and R. Amrollahi, Gold fineness measurement using single-shot spark assisted laser-induced breakdown spectroscopy, Appl. Opt. 60 (2021) 1099.
[15] A. Moosakhani, P. Parvin, A. Reyhani, and S. Z. Mortazavi, Propane decomposition and conversion into other hydrocarbons using metal target assisted laser induced plasma, Phys. Plasmas 24 (2017) 013505.
[16] F. Ahmadinouri and P. Parvin, Methane conversion using spark discharge-assisted laser-induced plasma (SD-LIP) with Pd catalyst: non-oxidative hydrogen production, Chem. Eng. J. 484 (2024) 149645.
[17] F. Ahmadinouri and P. Parvin, Non-oxidative conversion of propane by employing laser-triggered spark discharge: effective hydrogen production, Energy Convers. Manage. 347 (2026) 120555.
[18] F. Ahmadinouri, P. Parvin, R. Hosseini, Z. Zare, and A. R. Rabbani, Effective methane decomposition using spark discharge assisted laser-induced plasma: an approach based on Fourier transform infrared (FTIR) spectroscopy, Spectrochim. Acta Part A Mol. Biomol. Spectrosc. 326 (2025) 125257.
[19] F. Ghasemi, P. Parvin, J. Reif, S. Abachi, M. R. Mohebbifar, and M. R. Razzaghi, Laser induced breakdown spectroscopy for the diagnosis of several malignant tissue samples, J. Laser Appl. 29 (2017) 042005.
[20] A. Moosakhani, P. Parvin, S. Z. Mortazavi, A. Reyhani, and S. Abachi, Effect of hydrocarbon molecular decomposition on palladium-assisted laser-induced plasma ablation, Appl. Opt. 56 (2017) 11.
[21] P. Parvin, H. R. Dehghanpour, M. M. Faani, A. Bavali, F. Ahmadinouri, and S. Ebrahimnasab, LIF/LIB spectroscopy of crude oil-saturated carbonate bedrock, Phys. Scr. 98 (2023) 105410.
[22] P. Mohammadimatin, P. Parvin, A. Jafargohli, A. Jahanbakhshi, F. Ahmadinouri, A. Tabibkhooei, O. Heidari, and S. Salarinejad, Signal enhancement in spark-assisted laser-induced breakdown spectroscopy for discrimination of glioblastoma and oligodendroglioma lesions, Biomed. Opt. Express 14 (2023) 5795-5816.
[23] J. S. Chang, P. A. Lawless, and T. Yamamoto, Corona discharge processes, IEEE Trans. Plasma Sci. 19 (1991) 1152-1166.
[24] B. Eliasson and U. Kogelschatz, Non equilibrium volume plasma chemical processing, IEEE Trans. Plasma Sci. 19 (1991) 1063-1077.
[25] J.-J. Zou, Y.-P. Zhang, and C.-J. Liu, Hydrogen production from dimethyl ether using corona discharge plasma, J. Power Sources 163 (2007) 653-657.
[26] C. Tendero, C. Tixier, P. Tristant, J. Desmaison, and P. Leprince, Atmospheric pressure plasmas: A review, Spectrochim. Acta Part B 61 (2006) 2-30.
[27] M. Jasiński, M. Dors, and J. Mizeraczyk, Production of hydrogen via methane reforming using atmospheric pressure microwave plasma, J. Power Sources 181 (2008) 41-45.
[28] M. Jasiński, M. Dors, and J. Mizeraczyk, Application of atmospheric pressure microwave plasma source for production of hydrogen via methane reforming, Eur. Phys. J. D 54 (2009) 179-183.
[29] M. Jasiński, M. Dors, H. Nowakowska, G. V. Nichipor, and J. Mizeraczyk, Production of hydrogen via conversion of hydrocarbons using a microwave plasma, J. Phys. D: Appl. Phys. 44 (2011) 194002.
[30] M. Jasiński, D. Czylkowski, B. Hrycak, M. Dors, and J. Mizeraczyk, Atmospheric pressure microwave plasma source for hydrogen production, Int. J. Hydrogen Energy 38 (2013) 11473-11483.
[31] D. Czylkowski, B. Hrycak, M. Jasiński, M. Dors, and J. Mizeraczyk, Microwave plasma-based method of hydrogen production via combined steam reforming of methane, Energy 113 (2016) 653-661.
[32] M. A. Lieberman and A. J. Lichtenberg, Principles of Plasma Discharges and Materials Processing, MRS Bull. 30 (2005) 899-901.
[33] A. E. E. Putra, S. Nomura, S. Mukasa, and H. Toyota, Hydrogen production by radio frequency plasma stimulation in methane hydrate at atmospheric pressure, Int. J. Hydrogen Energy 37 (2012) 16000-16005.
[34] U. Kogelschatz, Dielectric-barrier discharge: Their history, discharge physics, and industrial applications, Plasma Chem. Plasma Process. 23 (2003) 1-46.
[35] Y. Zeng, X. Zhu, D. Mei, B. Ashford, and X. Tu, Plasma-catalytic dry reforming of methane over γ-Al2O3 supported metal catalysts, Catal. Today 256 (2015) 80-87.
[36] A. Czernichowski, Gliding arc: Application to engineering and environmental control, Pure Appl. Chem. 66 (1994) 1301-1310.
[37] C. S. Kalra, Y. I. Cho, A. Gutsol, A. Fridman, and T. S. Rufael, Gliding arc in tornado using a reverse vortex flow, Rev. Sci. Instrum. 76 (2005) 025110.
[38] S. P. Gangoli, Experimental and modeling study of warm plasmas and their applications, Ph.D. dissertation, Drexel University, Philadelphia, PA, 2007.
[39] C. S. Kalra, A. F. Gutsol, and A. A. Fridman, Gliding arc discharges as a source of intermediate plasma for methane partial oxidation, IEEE Trans. Plasma Sci. 33 (2005) 32-41.
[40] I. Rusu and J. M. Cormier, On a possible mechanism of the methane steam reforming in a gliding arc reactor, Chem. Eng. J. 91 (2003) 23-31.
[41] D. H. Lee, K. T. Kim, M. S. Cha, and Y. H. Song, Plasma-controlled chemistry in plasma reforming of methane, Int. J. Hydrogen Energy 35 (2010) 10967-10976.
[42] H. Nazir, N. Muthuswamy, C. Louis, S. Jose, J. Prakash, M. E. M. Buan, C. Flox, S. Chavan, X. Shi, P. Kauranen, T. Kallio, G. Maia, K. Tammeveski, N. Lymperopoulos, E. Carcadea, E. Veziroglu, A. Iranzo, and A. M. Kannan, Is the H2 Economy Realizable in the Foreseeable Future? Part I: H2 Production Methods, Int. J. Hydrogen Energy 45 (2020) 13777-13788.
[43] W. G. Mixter, ART. VIII.–on Electrosynthesis: Carbonic Oxide and Oxygen. Methane and Oxygen. Ethylene and Oxygen. Acetylene and Oxygen. Ethane and Oxygen. Molecular Changes, Am. J. Sci. 4 (1897) 51.
[44] H. M. Mott-Smith, History of "Plasmas", Nature 233 (1971) 219.
[45] Y. Xu, X. Bao, and L. Lin, Direct conversion of methane under nonoxidative conditions, J. Catal. 216 (2003) 386-395.
[46] S. Z. Mortazavi, P. Parvin, A. Reyhani, and S. Mirershadi, Hydrogen storage property of laser induced Pd nanoparticle decorated multi-walled carbon nanotubes, RSC Adv. 3 (2013) 1397.
[47] M. Mehrabi, P. Parvin, A. Reyhani, and S. Z. Mortazavi, Hybrid laser ablation and chemical reduction to synthesize Ni/Pd nanoparticles decorated multi-wall carbon nanotubes for effective enhancement of hydrogen storage, Int. J. Hydrogen Energy (2018) 1-11.
[48] M. Mehrabi, A. Reyhani, P. Parvin, and S. Z. Mortazavi, Surface structural alteration of multi-walled carbon nanotubes decorated by nickel nanoparticles based on laser ablation/chemical reduction methods to enhance hydrogen storage properties, Int. J. Hydrogen Energy 44 (2019) 3812-3823.
[49] J. F. Ready, Effects of High-Power Laser Radiation, Academic Press, New York, 1971, pp. 161-208.
[50] L. Radziemski and D. Cremers, A brief history of Laser-Induced Breakdown Spectroscopy: From the concept of atoms to LIBS 2012, Spectrochim. Acta Part B 87 (2013) 3-10.
[51] A. W. Miziolek, V. Palleschi, and I. Schechter, Laser-induced Breakdown Spectroscopy (LIBS): Fundamentals and Applications, Cambridge University Press, Cambridge, UK, 2006.
[52] W. Sdorra and K. Niemax, Microchim. Acta 107 (1992) 319.
[53] A. J. Ball, V. Hohreiter, and D. W. Hahn, Appl. Spectrosc. 59 (2005) 348.
[54] T. M. Khan and T. BiBi, Application of NS Pulsed Laser Ablation for Dense CdS Nanoparticles Deposition in Argon Atmosphere, SOP Trans. Appl. Phys. 1 (2014) 48-54.
[55] W. W. Stoffels, E. Stoffels, G. Ceccone, and F. Rossi, Laser-induced particle formation and coalescence in a methane discharge, J. Vac. Sci. Technol. A 17 (1999) 3385-3392.
[56] M. Stafe, A. Marcu, and N. N. Puscas, Pulsed Laser Ablation of Solids (Basics, Theory and Applications), Springer, Heidelberg, 2014.
[57] D. Bäuerle, Laser chemical processing: an overview to the 30th anniversary, Appl. Phys. A 101 (2010) 447-459.
[58] J. P. Matte, M. Lamoureux, C. Moller, R. Y. Yin, J. Delettrez, J. Virmont, and T. W. Johnston, Non-Maxwellian electron distribution and continuum X-ray emission in inverse Bremsstrahlung heated plasmas, Plasma Phys. Controlled Fusion 30 (1988) 1665-1689.
[59] D. A. Cremers and L. J. Radziemski, Handbook of Laser-Induced Breakdown Spectroscopy, John Wiley and Sons, New York, 2006.
[60] S. Z. Mortazavi, P. Parvin, A. Reyhani, A. N. Golikand, and S. Mirershadi, Effect of Laser Wavelength at IR (1064 nm) and UV (193 nm) on the Structural Formation of Palladium Nanoparticles in Deionized Water, J. Phys. Chem. C 115 (2011) 5049-5057.
[61] S. Z. Mortazavi, P. Parvin, M. R. MousaviPour, A. Reyhani, A. Moosakhani, and S. Moradkhani, Time-resolved evolution of metal plasma induced by Q-switched Nd:YAG and ArF-excimer lasers, Opt. Laser Technol. 62 (2014) 32-39.
[62] N. N. Nedialkov, S. E. Imamova, P. A. Atanasov, P. Berger, and F. Dausinger, Mechanism of ultrashort laser ablation of metals: molecular dynamics simulation, Appl. Surf. Sci. 247 (2005) 243-248.
[63] L. Juha and S. Civiš, Lasers in Chemistry, in: Encyclopedia of Applied Physics, Wiley-VCH, Weinheim, 2008, pp. 899-921.
[64] H. P. Graf, M. W. Sigrist, and F. K. Kneubühl, Helv. Phys. Acta 52 (1979) 56-60.
[65] B. A. Sayyed and P. C. Stair, J. Phys. Chem. 94 (1990) 409-414.
[66] H. B. Bebb and A. Gold, Multiphoton Ionization of Hydrogen and Rare-Gas Atoms, Phys. Rev. 143 (1966) 1-24.
[67] M. D. Perry, O. L. Landen, A. Szoke, and E. M. Campbell, Multiphoton ionization of the noble gases by an intense 10^14-W/cm^2 dye laser, Phys. Rev. A 37 (1988) 747-760.
[68] G. B. Zhao, S. John, J. J. Zhang, L. Wang, S. Muknahallipatna, J. C. Hamann, J. F. Ackerman, M. D. Argyle, and O. A. Plumb, Methane conversion in pulsed corona discharge reactors, Chem. Eng. J. 125 (2006) 67-79.
[69] A. B. Redondo, E. Troussard, and J. A. Van Bokhoven, Non-oxidative methane conversion assisted by corona discharge, Fuel Process. Technol. 104 (2012) 265-270.
[70] S. Y. Liu, D. H. Mei, Z. Shen, and X. Tu, Nonoxidative conversion of methane in a dielectric barrier discharge reactor: Prediction of reaction performance based on neural network model, J. Phys. Chem. C 118 (2014) 10686-10693.
[71] F. Saleem, J. Kennedy, U. H. Dahiru, K. Zhang, and A. Harvey, Methane conversion to H2 and higher hydrocarbons using non-thermal plasma dielectric barrier discharge reactor, Chem. Eng. Process. - Process Intensif. 142 (2019) 107557.
[72] A. Indarto, J.-W. Choi, H. Lee, and H. K. Song, Effect of additive gases on methane conversion using gliding arc discharge, Energy 31 (2006) 2986-2995.
[73] H. Sun, Non-oxidative methane conversion in diffuse, filamentary, and spark regimes of nanosecond repetitively pulsed discharge with negative polarity, Plasma Process. Polym. 16 (2019) 1-15.
[74] Y. Gao, S. Zhang, H. Sun, R. Wang, X. Tu, and T. Shao, Highly efficient conversion of methane using microsecond and nanosecond pulsed spark discharges, Appl. Energy 226 (2018) 534-545.
[75] W. Cho, Y. Baek, S. K. Moon, and Y. C. Kim, Oxidative coupling of methane with microwave and RF plasma catalytic reaction over transitional metals loaded on ZSM-5, Catal. Today 74 (2002) 207-223.
[76] M. Heintze and M. Magureanu, Methane conversion into acetylene in a microwave plasma: Optimization of the operating parameters, J. Appl. Phys. 92 (2002) 2276-2283.
[77] M. Caetano and P. Patin, Coupling and reforming of methane by means of low pressure radio-frequency plasmas, Fuel 84 (2014) 2008-2014.
[78] B. Wanten, S. Maerivoet, C. Vantomme, J. Slaets, G. Trenchev, and A. Bogaerts, Dry reforming of methane in an atmospheric pressure glow discharge: Confining the plasma to expand the performance, J. CO2 Util. 56 (2022) 101869.
[79] R. Lotfalipour, A. M. Ghorbanzadeh, and A. Mahdian, Methane conversion by repetitive nanosecond pulsed plasma, J. Phys. D: Appl. Phys. 47 (2014) 365201.
[80] X. Wang, Y. Gao, S. Zhang, H. Sun, J. Li, and T. Shao, Nanosecond pulsed plasma assisted dry reforming of CH4: The effect of plasma operating parameters, Appl. Energy 243 (2019) 132-144.
[81] A. Voloshko, J.-P. Colombier, and T. E. Itina, Comparison of laser ablation with spark discharge techniques used for nanoparticle production, Appl. Surf. Sci. 336 (2014) 143-149.
[82] A. Voloshko and T. E. Itina, Nanoparticle Formation by Laser Ablation and by Spark Discharges — Properties, Mechanisms, and Control Possibilities, in: Nanoparticles Technology, Chapter 1, 2015.
[83] A. Fridman, Plasma Chemistry, Cambridge University Press, New York, 2008.
[84] M. E. Abdel-kader, W. H. Gaber, F. A. Ebrahim, and M. A. Abd Al-Halim, Characterization of the electrical breakdown for DC discharge in Ar-He gas mixture, Vacuum 169 (2019) 108922.
[85] M. V. Belkov, V. S. Burakov, A. De Giacomo, V. V. Kiris, S. N. Raikov, and N. V. Tarasenko, Comparison of two laser-induced breakdown spectroscopy techniques for total carbon measurement in soils, Spectrochim. Acta B 64 (2009) 899-904.
[86] W. Zhou, K. Li, H. Qian, Z. Ren, and Y. Yu, Effect of voltage and capacitance in nanosecond pulse discharge enhanced laser-induced breakdown spectroscopy, Appl. Opt. 51 (2012) B42-B48.
[87] Y. Wang, Y. Jiang, X. He, Y. Chen, and R. Li, Triggered parallel discharge in laser-ablation spark-induced breakdown spectroscopy and studies on its analytical performance for aluminum and brass samples, Spectrochim. Acta B 150 (2018) 9-17.
[88] M. M. Hassanimatin, S. H. Tavassoli, Y. Nosrati, and A. Safi, A combination of electrical spark and laser-induced breakdown spectroscopy on a heated sample, Phys. Plasmas 26 (2019) 033303.
[89] D. P. Subedi, U. M. Joshi, and C. S. Wong, Dielectric Barrier Discharge (DBD) Plasmas and Their Applications, in: Plasma Science and Technology for Emerging Economies: An AAAPT Experience, Springer, 2017, pp. 693-737.
[90] K. P. Francke, R. Rudolph, and H. Miessner, Design and Operating Characteristics of a Simple and Reliable DBD Reactor for Use with Atmospheric Air, Plasma Chem. Plasma Process. 23 (2003) 47-57.
[91] J. He, X. Wen, L. Wu, H. Chen, J. Hu, and X. Hou, Dielectric Barrier Discharge Plasma for Nanomaterials: Fabrication, Modification and Analytical Applications, TrAC-Trends Anal. Chem. 156 (2022) 116715.
[92] R. Brandenburg, Corrigendum: Dielectric Barrier Discharges: Progress on Plasma Sources and on the Understanding of Regimes and Single Filaments, Plasma Sources Sci. Technol. 27 (2018) 079501.
[93] K. Ollegott, P. Wirth, C. Oberste-Beulmann, P. Awakowicz, and M. Muhler, Fundamental Properties and Applications of Dielectric Barrier Discharges in Plasma-Catalytic Processes at Atmospheric Pressure, Chem.-Ing.-Tech. 92 (2020) 1542-1558.
[94] A. Chirokov, A. Gutsol, and A. Fridman, Atmospheric Pressure Plasma of Dielectric Barrier Discharges, Pure Appl. Chem. 77 (2005) 487-495.
[95] T. N. Jukes and K. S. Choi, On the Formation of Streamwise Vortices by Plasma Vortex Generators, J. Fluid Mech. 733 (2013) 370-393.
[96] T. Von Woedtke, M. Laroussi, and M. Gherardi, Foundations of Plasmas for Medical Applications, Plasma Sources Sci. Technol. 31 (2022) 054002.
[97] W. Lu, Y. Abbas, M. F. Mustafa, C. Pan, and H. Wang, A Review on Application of Dielectric Barrier Discharge Plasma Technology on the Abatement of Volatile Organic Compounds, Front. Environ. Sci. Eng. 13 (2019) 1-19.
[98] F. Peeters and T. Butterworth, Electrical Diagnostics of Dielectric Barrier Discharges, in: Atmospheric Pressure Plasma - from Diagnostics to Applications, 2019, pp. 23-49.
[99] E. E. Kunhardt, Generation of Large-Volume, Atmospheric Pressure, Nonequilibrium Plasmas, IEEE Trans. Plasma Sci. 28 (2000) 189-200.
[100] J. Li, C. Ma, S. Zhu, F. Yu, B. Dai, and D. Yang, A Review of Recent Advances of Dielectric Barrier Discharge Plasma in Catalysis, Nanomaterials 9 (2019) 1428.
[101] D. Mei and X. Tu, Conversion of CO2 in a Cylindrical Dielectric Barrier Discharge Reactor: Effects of Plasma Processing Parameters and Reactor Design, J. CO2 Util. 19 (2017) 68-78.
[102] R. Snoeckx, Y. X. Zeng, X. Tu, and A. Bogaerts, Plasma-Based Dry Reforming: Improving the Conversion and Energy Efficiency in a Dielectric Barrier Discharge, RSC Adv. 5 (2015) 29799-29808.
[103] J. Coogan and A. Sappey, Distribution of OH within silent discharge plasma reactors, IEEE Trans. Plasma Sci. 24 (1996) 91-92.
[104] A. H. Khoja, M. Tahir, and N. A. S. Amin, Recent Developments in Non-Thermal Catalytic DBD Plasma Reactor for Dry Reforming of Methane, Energy Convers. Manag. 183 (2019) 529-560.
[105] Y. Li, G. Xu, C. Liu, B. Eliasson, and B. Xue, Co-Generation of Syngas and Higher Hydrocarbons from CO2 and CH4 Using Dielectric-Barrier Discharge: Effect of Electrode Materials, Energy Fuels 15 (2001) 299-302.
[106] D. Ray, P. M. K. Reddy, and C. Subrahmanyam, Glass Beads Packed DBD-Plasma Assisted Dry Reforming of Methane, Top. Catal. 60 (2017) 869-878.
[107] W. Wang, H. H. Kim, K. Van Laer, and A. Bogaerts, Streamer Propagation in a Packed Bed Plasma Reactor for Plasma Catalysis Applications, Chem. Eng. J. 334 (2018) 2467-2479.
[108] Z. Sheng, S. Kameshima, K. Sakata, and T. Nozaki, Plasma Enabled Dry Methane Reforming, in: Plasma Chemistry and Gas Conversion, Chapter 3, 2018.
[109] H.-H. Kim, Y. Teramoto, and A. Ogata, Time-Resolved Imaging of Positive Pulsed Corona-Induced Surface Streamers on TiO2 and γ-Al2O3-Supported Ag Catalysts, J. Phys. D: Appl. Phys. 49 (2016) 415204.
[110] Q. Wang, B. H. Yan, Y. Jin, and Y. Cheng, Investigation of Dry Reforming of Methane in a Dielectric Barrier Discharge Reactor, Plasma Chem. Plasma Process. 29 (2009) 217-228.
[111] A. Bogaerts, X. Tu, and G. Van Rooij, Plasma-Based CO2 Conversion, in: Carbon Dioxide Utilisation: Transformations, De Gruyter, 2019, pp. 585-634.
[112] A. H. Khoja, M. Tahir, and N. A. S. Amin, Dry Reforming of Methane Using Different Dielectric Materials and DBD Plasma Reactor Configurations, Energy Convers. Manag. 144 (2017) 262-274.
[113] Y. Uytdenhouwen, J. Hereijgers, T. Breugelmans, P. Cool, and A. Bogaerts, How Gas Flow Design Can Influence the Performance of a DBD Plasma Reactor for Dry Reforming of Methane, Chem. Eng. J. 405 (2021) 126618.
[114] X. Tu and J. C. Whitehead, Plasma-catalytic dry reforming of methane in an atmospheric dielectric barrier discharge: Understanding the synergistic effect at low temperature, Appl. Catal. B Environ. 125 (2012) 439-448.
[115] H. L. Chen, H. M. Lee, S. H. Chen, Y. Chao, and M. B. Chang, Review of plasma catalysis on hydrocarbon reforming for hydrogen production—Interaction, integration, and prospects, Appl. Catal. B 85 (2008) 1-9.
[116] R. Aerts, W. Somers, and A. Bogaerts, Carbon Dioxide Splitting in a Dielectric Barrier Discharge Plasma: A Combined Experimental and Computational Study, ChemSusChem 8 (2015) 702-716.
[117] B. Eliasson, M. Hirth, and U. Kogelschatz, Ozone synthesis from oxygen in dielectric barrier discharges, J. Phys. D: Appl. Phys. 20 (1987) 1421-1437.
[118] R. Snoeckx and A. Bogaerts, Plasma Technology - a Novel Solution for CO2 Conversion?, Chem. Soc. Rev. 46 (2017) 5805-5863.
[119] H. Taghvaei and M. R. Rahimpour, Upgrading of Anisole Using: In Situ Generated Hydrogen in Pin to Plate Pulsed Corona Discharge, RSC Adv. 6 (2016) 98369-98380.
[120] M. Li, G. Xu, Y. Tian, L. Chen, and H. Fu, Carbon Dioxide Reforming of Methane Using DC Corona Discharge Plasma Reaction, J. Phys. Chem. A 108 (2004) 1687-1693.
[121] M. W. Li, Y. L. Tian, and G. H. Xu, Characteristics of Carbon Dioxide Reforming of Methane via Alternating Current (AC) Corona Plasma Reactions, Energy Fuels 21 (2007) 2335-2339.
[122] J. Feng, X. Sun, Z. Li, X. Hao, M. Fan, P. Ning, and K. Li, Plasma-Assisted Reforming of Methane, Adv. Sci. 9 (2022) 1-36.
[123] A. Fridman, A. Chirokov, and A. Gutsol, Non-Thermal Atmospheric Pressure Discharges, J. Phys. D: Appl. Phys. 38 (2005) R1.
[124] S. R. Sun, H. X. Wang, D. H. Mei, X. Tu, and A. Bogaerts, CO2 Conversion in a Gliding Arc Plasma: Performance Improvement Based on Chemical Reaction Modeling, J. CO2 Util. 17 (2017) 220-234.
[125] W. Wang, D. Mei, X. Tu, and A. Bogaerts, Gliding Arc Plasma for CO2 Conversion: Better Insights by a Combined Experimental and Modelling Approach, Chem. Eng. J. 330 (2017) 11-25.
[126] F. G. M. de Medeiros, F. W. B. Lopes, and B. R. de Vasconcelos, Prospects and Technical Challenges in Hydrogen Production through Dry Reforming of Methane, Catalysts 12 (2022) 363.
[127] Z. Bo, J. Yan, X. Li, Y. Chi, and K. Cen, Plasma Assisted Dry Methane Reforming Using Gliding Arc Gas Discharge: Effect of Feed Gases Proportion, Int. J. Hydrogen Energy 33 (2008) 5545-5553.
[128] F. Zhu, H. Zhang, X. Yan, J. Yan, M. Ni, X. Li, and X. Tu, Plasma-Catalytic Reforming of CO2-Rich Biogas over Ni/γ-Al2O3 Catalysts in a Rotating Gliding Arc Reactor, Fuel 199 (2017) 430-437.
[129] N. Lu, D. Sun, Y. Xia, K. Shang, B. Wang, N. Jiang, J. Li, and Y. Wu, Dry Reforming of CH4-CO2 in AC Rotating Gliding Arc Discharge: Effect of Electrode Structure and Gas Parameters, Int. J. Hydrogen Energy 43 (2018) 13098-13109.
[130] D. K. Dinh, G. Trenchev, D. H. Lee, and A. Bogaerts, Arc Plasma Reactor Modification for Enhancing Performance of Dry Reforming of Methane, J. CO2 Util. 42 (2020) 101352.
[131] H. Kwon, T. Kim, and S. Song, Dry Reforming of Methane in a Rotating Gliding Arc Plasma: Improving Efficiency and Syngas Cost by Quenching Product Gas, J. CO2 Util. 70 (2023) 102448.
[132] A. Fridman, S. Nester, L. A. Kennedy, A. Saveliev, and O. Mutaf-Yardimci, Gliding Arc Discharge, Prog. Energy Combust. Sci. 25 (1999) 211-231.
[133] M. Birau, M. A. Krasil'nikov, M. V. Kuzelev, and A. A. Rukhadze, Nonlinear Theory of a Plasma Microwave Oscillator Using Cable Waves, J. Exp. Theor. Phys. 84 (1997) 694-702.
[134] G. Chen, V. Georgieva, T. Godfroid, R. Snyders, and M. P. Delplancke-Ogletree, Plasma Assisted Catalytic Decomposition of CO2, Appl. Catal. B Environ. 190 (2016) 115-124.
[135] Y. Kim, M. Lee, and Y. J. Kim, Selective Growth and Contact Gap Fill of Low Resistivity Si via Microwave Plasma-Enhanced CVD, Micromachines 10 (2019) 689.
[136] J. Ehlbeck, U. Schnabel, M. Polak, J. Winter, T. Von Woedtke, R. Brandenburg, T. Von Dem Hagen, and K. D. Weltmann, Low Temperature Atmospheric Pressure Plasma Sources for Microbial Decontamination, J. Phys. D: Appl. Phys. 44 (2011) 013002.
[137] H. S. Uhm, Y. C. Hong, and D. H. Shin, A Microwave Plasma Torch and Its Applications, Plasma Sources Sci. Technol. 15 (2006) S26.
[138] A. A. Zamri, M. Y. Ong, S. Nomanbhay, and P. L. Show, Microwave Plasma Technology for Sustainable Energy Production and the Electromagnetic Interaction within the Plasma System: A Review, Environ. Res. 197 (2021) 111204.
[139] J. Q. Zhang, J. S. Zhang, Y. J. Yang, and Q. Liu, Oxidative Coupling and Reforming of Methane with Carbon Dioxide Using a Pulsed Microwave Plasma under Atmospheric Pressure, Energy Fuels 17 (2003) 54-59.
[140] Y. F. Wang, C. H. Tsai, W. Y. Chang, and Y. M. Kuo, Methane Steam Reforming for Producing Hydrogen in an Atmospheric Pressure Microwave Plasma Reactor, Int. J. Hydrogen Energy 35 (2010) 135-140.
[141] B. Hrycak, J. Mizeraczyk, D. Czylkowski, M. Dors, M. Budnarowska, and M. Jasiński, Hydrogen Production by the Steam Reforming of Synthetic Biogas in Atmospheric-Pressure Microwave (915 MHz) Plasma, Sci. Rep. 13 (2023) 1-15.
[142] I. Rahim, S. Nomura, S. Mukasa, and H. Toyota, Decomposition of Methane Hydrate for Hydrogen Production Using Microwave and Radio Frequency In-Liquid Plasma Methods, Appl. Therm. Eng. 90 (2015) 120-126.
[143] Q. Wang, T. Zhu, Z. Li, X. Zhu, J. Liu, and B. Sun, Plasma Activation of Methane for Hydrogen in Microwave Liquid Discharge by Auxiliary Gases: A Way to Realize Efficient Utilization of Resources, Fuel 330 (2022) 125673.
[144] M. Scapinello, E. Delikonstantis, and G. D. Stefanidis, The Panorama of Plasma-Assisted Non-Oxidative Methane Reforming, Chem. Eng. Process. Process Intensif. 117 (2017) 120-140.
[145] H. Motz and C. J. H. Watson, The Radio-Frequency Confinement and Acceleration of Plasmas, Adv. Electron. Electron Phys. 23 (1967) 153-302.
[146] K. S. Kim and T. H. Kim, Nanofabrication by thermal plasma jets: From nanoparticles to low-dimensional nanomaterials, J. Appl. Phys. 125 (2019) 070901.
[147] H. Conrads and M. Schmidt, Plasma generation and plasma sources, Plasma Sources Sci. Technol. 9 (2000) 441-454.
[148] S. Li, P. Arun, H. van den Bogaard, T. van Raak, C. Liu, and F. Gallucci, A review of experimental approaches, trends and opportunities in plasma-based gas conversion research, Front. Chem. Sci. Eng. 19 (2025) 96.
[149] B. W. Longmier, A. D. Gallimore, and N. Hershkowitz, Hydrogen production from methane using an RF plasma source in total nonambipolar flow, Plasma Sources Sci. Technol. 21 (2012) 015007.
[150] S. Nomura, S. Mukasa, H. Toyota, H. Miyake, H. Yamashita, T. Maehara, A. Kawashima, and F. Abe, Characteristics of in-liquid plasma in water under higher pressure than atmospheric pressure, Plasma Sources Sci. Technol. 20 (2011) 034012.
[151] B. Loenders, R. Michiels, and A. Bogaerts, Is a Catalyst Always Beneficial in Plasma Catalysis? Insights from the Many Physical and Chemical Interactions, J. Energy Chem. 85 (2023) 501-533.
[152] E. C. Neyts and A. Bogaerts, Understanding Plasma Catalysis through Modelling and Simulation - A Review, J. Phys. D: Appl. Phys. 47 (2014) 224010.
[153] J. Hong, W. Chu, P. A. Chernavskii, and A. Y. Khodakov, Cobalt Species and Cobalt-Support Interaction in Glow Discharge Plasma Assisted Fischer−Tropsch Catalysts, J. Catal. 273 (2010) 9-17.
[154] R. Martínez, E. Romero, C. Guimon, and R. Bilbao, CO2 Reforming of Methane over Coprecipitated Ni-Al Catalysts Modified with Lanthanum, Appl. Catal. A Gen. 274 (2004) 139-149.
[155] K. Ostrikov, E. C. Neyts, and M. Meyyappan, Plasma Nanoscience: From Nano-Solids in Plasmas to Nano-Plasmas in Solids, Adv. Phys. 62 (2013) 113-224.
[156] Y. F. Guo, D. Q. Ye, K. F. Chen, J. C. He, and W. L. Chen, Toluene Decomposition Using a Wire-Plate Dielectric Barrier Discharge Reactor with Manganese Oxide Catalyst in Situ, J. Mol. Catal. A Chem. 245 (2006) 93-100.
[157] X. Tu, H. J. Gallon, M. V. Twigg, P. A. Gorry, and J. C. Whitehead, Dry Reforming of Methane over a Ni/Al2O3 Catalyst in a Coaxial Dielectric Barrier Discharge Reactor, J. Phys. D: Appl. Phys. 44 (2011) 274007.
[158] J. Van Durme, J. Dewulf, C. Leys, and H. Van Langenhove, Combining Non-Thermal Plasma with Heterogeneous Catalysis in Waste Gas Treatment: A Review, Appl. Catal. B Environ. 78 (2008) 324-333.
[159] B. Eliasson, C. J. Liu, and U. Kogelschatz, Direct Conversion of Methane and Carbon Dioxide to Higher Hydrocarbons Using Catalytic Dielectric-Barrier Discharges with Zeolites, Ind. Eng. Chem. Res. 39 (2000) 1221-1227.
[160] H. J. Gallon, X. Tu, and J. C. Whitehead, Effects of Reactor Packing Materials on H2 Production by CO2 Reforming of CH4 in a Dielectric Barrier Discharge, Plasma Process. Polym. 9 (2012) 90-97.
[161] K. Zhang, U. Kogelschatz, and B. Eliasson, Conversion of Greenhouse Gases to Synthesis Gas and Higher Hydrocarbons, Energy Fuels 15 (2001) 395-402.
[162] K. Zhang, B. Eliasson, and U. Kogelschatz, Direct Conversion of Greenhouse Gases to Synthesis Gas and C4 Hydrocarbons over Zeolite HY Promoted by a Dielectric-Barrier Discharge, Ind. Eng. Chem. Res. 41 (2002) 1462-1468.
[163] T. Jiang, Y. Li, C. Liu, G. Xu, B. Eliasson, and B. Xue, Plasma Methane Conversion Using Dielectric-Barrier Discharges with Zeolite A, Catal. Today 72 (2002) 229-235.
[164] D. Mei, B. Ashford, Y. L. He, and X. Tu, Plasma-Catalytic Reforming of Biogas over Supported Ni Catalysts in a Dielectric Barrier Discharge Reactor: Effect of Catalyst Supports, Plasma Process. Polym. 14 (2017) 1600076.
[165] M. Zhu, A. Zhong, D. Dai, Q. Wang, T. Shao, and K. Ostrikov, Surface-Induced Gas-Phase Redistribution Effects in Plasma-Catalytic Dry Reforming of Methane: Numerical Investigation by Fluid Modeling, J. Phys. D: Appl. Phys. 55 (2022) 355201.
[166] A. Bogaerts, X. Tu, J. C. Whitehead, G. Centi, L. Lefferts, O. Guaitella, F. Azzolina-Jury, H. Kim, A. B. Murphy, W. F. Schneider, T. Nozaki, J. C. Hicks, A. Rousseau, F. Thevenet, and A. Khacef, The 2020 Plasma Catalysis Roadmap, J. Phys. D: Appl. Phys. 53 (2020) 443001.
[167] A. Indarto, Hydrogen Production from Methane in a Dielectric Barrier Discharge Using Oxide Zinc and Chromium as Catalyst, J. Chin. Inst. Chem. Eng. 39 (2008) 23-28.
[168] O. Khalifeh, H. Taghvaei, A. Mosallanejad, M. R. Rahimpour, and A. Shariati, Extra Pure Hydrogen Production through Methane Decomposition Using Nanosecond Pulsed Plasma and Pt-Re Catalyst, Chem. Eng. J. 294 (2016) 132-145.
[169] X.-S. Li, C. Shi, K.-J. Wang, X.-L. Zhang, Y. Xu, and A.-M. Zhu, High Yield of Aromatics from CH4 in a Plasma-Followed-by-Catalyst (PFC) Reactor, AIChE J. 52 (2006) 3321-3324.
[170] P. Kasinathan, S. Park, W. C. Choi, Y. K. Hwang, J. S. Chang, and Y. K. Park, Plasma-Enhanced Methane Direct Conversion over Particle-Size Adjusted MOx/Al2O3 (M = Ti and Mg) Catalysts, Plasma Chem. Plasma Process. 34 (2014) 1317-1330.
[171] S. Hu, B. Wang, Y. Lv, and W. Yan, Conversion of Methane to C2 Hydrocarbons and Hydrogen Using a Gliding Arc Reactor, Plasma Sci. Technol. 15 (2013) 555-561.
[172] M. Ghanbari, M. Binazadeh, S. Zafarnak, H. Taghvaei, and M. R. Rahimpour, Hydrogen Production via Catalytic Pulsed Plasma Conversion of Methane: Effect of Ni−K2O/Al2O3 Loading, Applied Voltage, and Argon Flow Rate, Int. J. Hydrogen Energy 45 (2020) 13899-13910.
[173] J. D. Holladay, J. Hu, D. L. King, and Y. Wang, An Overview of Hydrogen Production Technologies, Catal. Today 139 (2009) 244-260.
[174] E. Tatarova, N. Bundaleska, J. P. Sarrette, and C. M. Ferreira, Plasmas for Environmental Issues: From Hydrogen Production to 2D Materials Assembly, Plasma Sources Sci. Technol. 23 (2014) 063002.
[175] F. Geng, V. P. Haribal, and J. C. Hicks, Non-Thermal Plasma Assisted Steam Methane Reforming for Electrically-Driven Hydrogen Production, Appl. Catal. A Gen. 647 (2022) 118903.
[176] T. Nozaki and K. Okazaki, Non-Thermal Plasma Catalysis of Methane: Principles, Energy Efficiency, and Applications, Catal. Today 211 (2013) 29-38.
[177] H. Kabashima, H. Einaga, and S. Futamura, Hydrogen Generation from Water, Methane, and Methanol with Nonthermal Plasma, IEEE Trans. Ind. Appl. 39 (2003) 340-345.
[178] S. Tiwari, A. Caiola, X. Bai, A. Lalsare, and J. Hu, Microwave Plasma-Enhanced and Microwave Heated Chemical Reactions, Plasma Chem. Plasma Process. 40 (2020) 1-23.
[179] A. Bogaerts and E. C. Neyts, Plasma Technology: An Emerging Technology for Energy Storage, ACS Energy Lett. 3 (2018) 1013-1027.
