(1) World Meteorological organization https://public.wmo.int/fr (2022-01-20 accessed)
(2) UNFCCC https://unfccc.int/process-and-meetings/the-paris-agreement/the-paris-agreement(2022- 01-20 accessed)
(3) 環境省脱炭素ポータル https://ondankataisaku.env.go.jp/carbon_neutral/ (2022-01-20 accessed)
(4) 気象庁 HP https://www.data.jma.go.jp/cpdinfo/chishiki_ondanka/p04.html (2022-01-20 accessed)
(5) 全国地球温暖化防止活動推進センターHP https://www.jccca.org/download/13335 (2022-01-20 accessed)
(6) 三井物産戦略研究所 世界の自動車燃費規制の進展と電動化の展望 https://www.mof.go.jp/pri/research/seminar/fy2017/lm20180315.pdf (2022-01-20 accessed)
(7) 日本自動車工業会 https://www.jama.or.jp/eco/earth/earth_02_g08.html (2022-01-20 accessed)
(8) 戦略的イノベーション創造プログラム「革新的燃焼技術」 https://www.jst.go.jp/sip/k01.html (2022-01-20 accessed)
(9) 飯田訓正ら:SIP「革新的燃焼技術」ガソリン燃焼チームの研究成果―高効率ガソリンエンジンのためのスーパーリーンバーン研究開発―,日本燃焼学会誌,第 61 巻 197 号(2019)
(10) 畑村耕一:自動車エンジン技術がわかる本,ナツメ社,p.201-211 (2009)
(11) 伊藤直也ら:ノック振動を伴う HCCI 燃焼の自着火挙動及び周波数特性,日本燃焼学会誌,第 57 巻 180 号 (2015)
(12) Taisuke Shiraishi, : “Possibility of the new Ignition System using the low Temperature Plasma having dual Functions of strengthening Ignition for SI Combustion and promoting and controlling Autoignition of HCCI Combustion”, Ignition Systems for Gasoline Engines 1st Conference, No.6 (2012)
(13) 高橋 栄一,小島 宏一,山口 誠也:パルス状DBD 印加による着火制御効果,第 24 回内燃機関シンポジウム講演論文集,講演番号 24(2013)
(14) 高橋 巧朋,清末 涼,村上 康,山下 洋幸:オゾン添加によるガソリンHCCI の低温燃焼特性,第 23 回内燃機関シンポジウム講演論文集,講演番号B1-13(2012)
(15) Ali Mohammadi, Hiroshi Kawanabe, Takuji, Ishiyama, Masahiro Shioji, : "Study on Combustion Control in Natural-Gas PCCI Engines with Ozone Addition into Intakes Gas", SAE 2006-01-0419 (2006)
(16) Eoin W.Gray, Julian R. Pharney : “Electrode erosion by particle ejection in low-current arcs”, Journal of Applied Physics, Vol.45, No.2 (1974)
(17) H. Osamura : “Development of New Iridium Alloy for Spark Plug Electrodes”, SAE1999-01-0796 (1999)
(18) 河野道方ら:流動混合気の火花点火における要因解析,日本機械学会論文集 B編,51(461), 248-256 (1985)
(19) N. Pashley, et al., : "Ignition System Measurement Techniques and Correlations for Breakdown and Arc Voltages and Currents”, SAE 2000-01-0245 (2000)
(20) M. Lee, et al., : “Voltage, and Energy Deposition Characteristics of Spark Ignition Systems”, SAE 2005-01-0231 (2005)
(21) J. Kim and R. Anderson, : “Spark Anemometry of Bulk Gas Velocity at the Plug Gap of a Firing Engine”, SAE952459 (1995)
(22) 佐山勝悟ら:高流速条件での放電経路の短縮化現象のモデル化(第1報),自動車技術会論文集,Vol.49 No.4 (2018)
(23) N. Kawahara, et al., : “Spark discharge ignition process in a spark-ignition engine using a time series of spectra measurements”, Proceedings of the Combustion Institute, Vol.36 No3 (2017)
(24) 西尾典晃,青木文明,石田翔平,土井香:カロリーメータ法による放電火花の熱エネルギー解析,自動車技術会論文集,Vol.47 No.3 (2016)
(25) T. Shiraishi, et al., : “The Effects of Ignition Environment and Discharge Waveform Characteristics on Spark Channel Formation and Relationship between the Discharge Parameters and the EGR Combustion Limit”, SAE2015- 01-1895 (2015)
(26) Naoto Hayashi, Akimitsu Sugiura, and Yuya Abe:”Development of ignition Technology for Dilute Combustion Engines”, SAE 2017-01-0676 (2017)
(27) 河原伸幸,冨田栄二:火花点火機関における希薄燃焼時の火花放電・火炎伝播の同時可視化,自動車技術会 2016 年春季大会講演予稿集,20165189,p1011-1014(2016)
(28) Schneider, A., Leick, P., Hettinger, A., Rottengruber, H. : “Experimental studies on spark stability in an optial combustion vessel under flowing conditions”, Internationaler Motorenkongress 2016, Proceedings (2016)
(29) Michael Günther et al., :” Optimizing the Spark Position While Allowing for the Effect of In-Cylinder Flow”, Ignition Systems for Gasoline Engines 1st Conference, No.8 (2012)
(30) Suzuki, K., Uehara, K., Mrase, E., Nogawa, S., : “Study of Ignitability in Strong Flow Field”, Ignition Systems for Gasoline Engines (2017)
(31) T.Shichida, et al., : “Numerical Simulation for Ignitability of Spark Plug using Detailed Chemical Kinetics”, SAE 2014-01-1234 (2014)
(32) 堀司:火花点火機関における放電経路伸長と再放電のモデリング,自動車技術会論文集,Vol.48 No.3 (2017)
(33) 磯島和也:点火プラグの気流下における誘導放電,第 26 回内燃機関シンポジウム講演論文集,20158052,p1-5 (2015)
(34) 芹澤毅ら:高周波印加型点火システムの燃焼特性に関する研究,自動車技術会学術講演会前刷り集No.96-11 (2011)
(35) Ikeda, Y., et al., : "Research and Development of Microwave Plasma Combustion Engine (Part I: Concept of Plasma Combustion and Plasma Generation Technique)," SAE 2009- 01-1050 (2009)
(36) Ikeda, Y., et al., : "Research and Development of Microwave Plasma Combustion Engine (Part II: Engine Performance of Plasma Combustion Engine)," SAE 2009-01-1049 (2009)
(37) Ben Wolk, et al. : ”Enhancement of flame development by microwave-assisted spark ignition in constant volume combustion chamber”, Combustion and Flame 160(7) (2013)
(38) Ikeda, Y., Padala, S., Makita, M., and Nishiyama, A., : "Development of Innovative Microwave Plasma Ignition System with Compact Microwave Discharge Igniter," SAE 2015-24-2434 (2015)
(39) Padala, S., Nagaraja, S., Ikeda, Y., and Le, M., : "Extension of Dilution Limit in Propane- Air Mixtures Using Microwave Discharge Igniter," SAE 2017-24-0148 (2017)
(40) Dale, J.D., Oppenheim, A.K,. : "Enhanced ignition for I.C.engines with premixed gases", Trans. SAE, Paper810146 (1981)
(41) Stanislaw Szwaja, et al., :”A two-stage combustion system for burning lean gasoline mixtures in a stationary spark ignited engine”, Applied Energy, 105 (2013) 271-281
(42) 大畠英一郎,藤山幸雄:EGR 燃焼エンジン向け高エネルギ点火システムの検討,自動車技術会論文集Vol.51, No.4 (2020)
(43) Terrence Alger, et al., : ”A Continuous Discharge Ignition System for EGR Limit Extension in SI Engines ”, SAE 2011-01-0661 (2011)
(44) Ming Zheng, et al., : “High Energy Multipole Distribution Spark Ignition System”, Ignition Systems for Gasoline Engines 3rd Conference, No.6 (2016)
(45) Mohamed H. Morsy, : “Review and recent development of laser ignition for internal combustion engines applications”, Renewable and Sustainable Energy Reviews 16(2012) 4849-4875
(46) 平等拓範ら:ジャイアントパルスマイクロレーザーによるエンジン点火の可能性,J. Plasma Fusion Res. Vol.89, No.4 (2013)
(47) T. Taira : "Giant Micro-Photonics Toward Innovative Ignition,", Laser Ignition Conference (2017)
(48) J. Hayashi, : “Effects of Microwave-Enhanced Plasma on Laser Ignition”, Ignition Systems for Gasoline Engines 3rd Conference, No.14 (2016)
(49) S.M. Starikovskaia, “Plasma assisted ignition and combustion”, J. Phys.D Appl Phys 39 (2006)
(50) SUN Wenting, JU Yiguang, : “Nonequilibrium Plasma-Assisted Combustion: A Review of Recent Progress”, J. Plasma Fusion Res, Vol.89, No.4 (2013) 208-219
(51) Yiguang Ju, Wenting Sun : “Plasma assisted combustion: Dynamics and chemistry”, Energy and Combustion Science, 48 (2015)
(52) K.Tanoue, et al., “Development of a Novel Ignition System Using Repetitive Pulse Discharges”, SAE 2008-01-0468 (2008)
(53) Jian-Bang Liu, et al., “Premixed flame ignition by transient plasma discharges”, Proc, 3rd Joint Meeting U.S. Sect. Combust, Inst, pp.16-19 (2003)
(54) Sergey V. Pancheshnyi, et al., “Ignition of Propane–Air Mixtures by a Repetitively Pulsed Nanosecond Discharge”, IEEE Transactions on Plasma Science, Vol.45 (2006)
(55) Hampe, C., Kubach, H., Spicher, U., Rixecker, G. et al., "Investigations of Ignition Processes Using High Frequency Ignition," SAE 2013-01-1633 (2013)
(56) Georg Rixecker, et al,. : “The High Frequency Ignition System EcoFlash”, Ignition Systems for Gasoline Engines 1st Conference, No.5 (2012)
(57) Michael Günther, : “Design Criteria for the Use of Corona Ignition Systems in Combustion Engines”, Ignition Systems for Gasoline Engines 1st Conference, No.17 (2012)
(58) Paulus Krüger, Barend Visser, : “Advanced Plasma Ignition (API): A Simple Corona and Spark Ignition System”, Ignition Systems for Gasoline Engines 3rd Conference, No.16 (2016)
(59) John Burrows and Kristapher Mixell, : “Analytical and Experimental Optimization of the Advanced Corona Ignition System”, Ignition Systems for Gasoline Engines 3rd Conference, No.17 (2016)
(60) Fabian Marko, et al., : “Comparative Optical and Thermodynamic Investigations of High Frequency Corona- and Spark-Ignition on a CV Natural Gas Research Engine Operated with Charge Dilution by Exhaust Gas Recirculation”, Ignition Systems for Gasoline Engines 3rd Conference, No.18 (2016)
(61) Cherian A. Idicheria, Paul M. Najt, : “Potential of Advanced Corona Ignition System (ACIS) for Future Engine Applications”, Ignition Systems for Gasoline Engines 3rd Conference, No.19 (2016)
(62) Stephanyan, S., Hayashi, J., Laux, C.: “Large-volume excitation of air, argon, nitrogen and combustible mixtures by thermal jets produced by nanosecond spark discharges”, Plasma Sources Sci. Tecnol, 26 04LT01 (2017)
(63) Sara Lovascio, Jun Hayashi, Sergey Stepanyan, Gabi D. Stancu, Christophe O. Laux : “Cumulative effect of successive nanosecond repetitively pulsed discharges on the ignition of lean mixtures”. Proceedings of the Combustion institute, Vol.37 (2019)
(64) Taisuke Shiraishi, Tomonori Urushihara and Martin Gundersen : “A trial of ignition innovation of gasoline engine by nanosecond pulsed low temperature plasma ignition”.Journal of physics D Applied Physics 42 (2009) , 135208
(65) 森吉泰生,松本脩,窪山達也,塚本貴大,衣沢善幸,前嶋 秀明:低温プラズマによるガスエンジンの点火手法の研究.自動車技術会2019年春季大会講演予稿集 (2019), 20195184
(66) Xiaojinf Ren, et al., : "Solid-State Marx Generator Circuit With Inductive Booster", IEEE Transactions on Plasma Science, VOL. 49, NO. 1, (2021)
(67) Weihua Jiang : "Review of solid-state linear transformer driver technology", Matter and Radiation at Extremes, Volume 3, Issue 4, p.159-164 (2018)
(68) 高木浩一ら:パルスパワー発生回路の設計と実践,J. Plasma Fusion Res. Vol.87,No.3, p.202-215 (2011)
(69) S.A. Darznek, G.A. Mesyats , S.N. Rukin : “Dynamics of electron-hole plasma in semiconductor opening switches for ultradense currents", Tech. Phys.42, 1170 (1997)
(70) 八木重典:バリア放電の現象,バリア放電,東京,朝倉書店,2012,p.52-59
(71) 白石 泰介,漆原 友則:バリア放電を応用した低温プラズマ点火の点火特性に関する基礎的研究.自動車技術会論文集 41 巻 2 号 (2010)
(72) Serfey A., et al., : “Ignition and Combustion Sustained by Low Temperature Plasmas and Spark Discharges: Difference in Physical Properties of Plasma and Kinetic Mechanism”, Ignition Systems for Gasoline Engines 3rd Conference (2016)
(73) S. A. Shcherbanev, S. A. Stepanyan, N. A. Popov and S. M. Starikovskaia : “Dielectric barrier discharge for multi-point plasma-assisted ignition at high pressures”, Philos Trans A Math Phys Eng Sci (2015)
(74) 青山雅彦ら:点火装置の革新的技術,Journal of Society of Automotive Engineers of Japan 59(1) (2005)
(75) 朝倉哲ら:定容容器内燃焼に及ぼすスワールの影響について,自動車技術会学術講演会予稿集(秋) (1979)
(76) 城戸裕之ら:定容容器内局所予混合化成層燃焼方式の開発,第6回内燃機関合同シンポジウム講演論文集(87-1-21,22) (1987)
(77) 大野富美男ら:直接噴射成層混合気の燃焼特性,自動車技術会論文集,No.45(1990)
(78) Sebastian Lorenz, et al., : “Pulse Train Ignition with Passively Q-Switched Laser Spark Plugs Under Engine-like Conditions”, Ignition Systems for Gasoline Engines 3rd Conference, No.15 (2016)
(79) L. Wayne Sieck, et al., “Chemical Kinetics Database and Predictive Schemes for Humid Air Plasma Chemistry. Part I: Positive Ion–Molecule Reactions1”, Plasma Chemistry and Plasma Processing, Vol.20, No.2 (2000)
(80) John T. Herron and David S. Green, et al., “Chemical Kinetics Database and Predictive Schemes for Humid Air Plasma Chemistry. Part II. Neutral Species Reactions”, Plasma Chemistry and Plasma Processing, Vol.21, No.3 (2001)
(81) Nikolay Vasilievich Ardelyan, et al., “Kinetic Model of Pulsed Discharge in Humid Air”, IEEE Transactions on Plasma Science, Vol.41, No.12 (2013)
(82) 長山勲:基礎エンジン工学,東京電機大学出版局,p.177-181 (2008)
(83) 内田健児ら:透過光減衰による直噴ガソリンエンジンのプラグくすぶり性評価方法の開発,自動車技術会論文集,Vol.44 No.2 (2013)
(84) 岩塚知宏ら:スパークプラグからの HSPI および LSPI に関する研究,自動車技術会論文集,Vol.48 No.4 (2017)