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A Review of Compressed Air Engine in the Vehicle Propulsion System


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1. Akira I., Hideo S. (2004), Analysis of Compression-induced Auto-ignition Combustion Characteristics of HCCI and ATAC Using the Same Engine, Journal of Mechanical Science and Technology, Vol. 20, No. 9, 1449–1458. Search in Google Scholar

2. Allam S., Zakaria M. (2018), Experimental Investigation of Compressed Air engine Performance, International Journal of Engineering Inventions, Vol. 7, 13–20. Search in Google Scholar

3. Archer H.B. (1929), US1776963A Compressed-air engine. Search in Google Scholar

4. Ashok B., Denis Ashok S., Ramesh Kumar C. (2015), LPG diesel dual fuel engine - A critical review, Alexandria Engineering Journal, Vol. 54, No. 2, 105-126. Search in Google Scholar

5. Baseley S., Ehret C., Greif E., Kliffken M.G. (2007), Hydraulic hybrid systems for commercial vehicles, SAE Technical Papers, Vol. 2007-01-4150, 1-8. Search in Google Scholar

6. Beik Y., Dziewiątkowski M., Szpica D. (2020), Exhaust Emissions of an Engine Fuelled by Petrol and Liquefied Petroleum Gas with Control Algorithm Adjustment, SAE International Journal of Engines, Vol. 13, No. 5, 1-22. Search in Google Scholar

7. Bensaid S., Caroca C.J., Russo N., Fino D. (2011), Detailed investigation of non-catalytic DPF regeneration, Canadian Journal of Chemical Engineering, Vol. 89, 401–407. Search in Google Scholar

8. Bielaczyc P., Woodburn J. (2019), Trends in Automotive Emission Legislation: Impact on LD Engine Development, Fuels, Lubricants and Test Methods: a Global View, with a Focus on WLTP and RDE Regulations, Emission Control Science and Technology, Vol. 5, No. 1, 86–98. Search in Google Scholar

9. Borawski A. (2015), Modification of a fourth generation LPG installation improving the power supply to a spark ignition engine, Eksploatacja i Niezawodnosc, Vol. 17, 1–6. Search in Google Scholar

10. Borawski A. (2018), Simulation Study of the Process of Friction in the Working Elements of a Car Braking System at Different Degrees of Wear, Acta Mechanica et Automatica, Vol. 12, No. 3, 221-226. Search in Google Scholar

11. Borawski A. (2020), Conventional and unconventional materials used in the production of brake pads – Review, Science and Engineering of Composite Materials, Vol. 27, 374-396. Search in Google Scholar

12. Brown R. (1972), US3765180A Compressed air engine. Search in Google Scholar

13. Budt M., Wolf D., Span R., Yan J. (2016), A review on compressed air energy storage: Basic principles, past milestones and recent developments, Applied Energy, Vol. 170, 250–268. Search in Google Scholar

14. Caban J., Litak G., Ambrożkiewicz B., Gardyński L., Stączek P., Wolszczak P. (2020), Impact-based piezoelectric energy harvesting system excited from diesel engine suspension, Applied Computer Science, Vol. 16, No. 3, 16-29. Search in Google Scholar

15. Cestero L.G. (1985), US4651525A Piston reciprocating compressed air engine. Search in Google Scholar

16. Chen L., Zheng T., Mei S., Xue X., Liu B., Lu Q. (2016), Review and prospect of compressed air energy storage system, Journal of Modern Power Systems and Clean Energy, Vol. 4, 529–541. Search in Google Scholar

17. Creutzig F., Papson A., Schipper L., Kammen D.M. (2009), Economic and environmental evaluation of compressed - air cars, Environmental Research Letters, Vol. 4, 1-10. Search in Google Scholar

18. Crosby Valve Inc. (1997), Pressure Relief Valve, Engineering Handbook, 1-93. Search in Google Scholar

19. Di Pietro A. (1999), EP1204809B1 Rotary piston engine. Search in Google Scholar

20. Dimitrova Z., Maréchal F. (2015), Gasoline hybrid pneumatic engine for efficient vehicle powertrain hybridization, Applied Energy, Vol. 151, 168–177. Search in Google Scholar

21. Duraisamy G., Rangasamy M., Govindan N. (2020), A comparative study on methanol/diesel and methanol/PODE dual fuel RCCI combustion in an automotive diesel engine, Renewable Energy, Vol. 145, 542-556. Search in Google Scholar

22. Eliot S. (1934), US1954408A Compressed air engine. Search in Google Scholar

23. Foley A.M., Winning I.J., Gallachóir B.P. (2010), State-of-the-art in electric vehicle charging infrastructure, 2010 IEEE Vehicle Power and Propulsion Conference, 1-6.10.1109/VPPC.2010.5729014 Search in Google Scholar

24. Forzatti P. (2001), Present status and perspectives in de-NOx SCR catalysis, Applied Catalysis A: General, Vol. 222, 221-236. Search in Google Scholar

25. Friar T.D., Holdcroft J.F. (1925), GB253219A An improved compressed air engine. Search in Google Scholar

26. García A., Monsalve-Serrano J., Villalta D., Guzmán-Mendoza M. (2020), Methanol and OMEx as fuel candidates to fulfill the potential EURO VII emissions regulation under dual-mode dual-fuel combustion, Fuel, Vol. 287, 1-13. Search in Google Scholar

27. Gołębiowski W., Wolak A., Zając G. (2018), Definition of oil change intervals based on the analysis of selected physicochemical properties of used engine oils, Combustion Engines, Vol. 172, 44-50. Search in Google Scholar

28. Gołębiowski W., Wolak A., Zając G. (2019), The influence of the presence of a diesel particulate filter (DPF) on the physical and chemical properties as well as the degree of concentration of trace elements in used engine oils, Petroleum Science and Technology, Vol. 37, 746-755. Search in Google Scholar

29. Gołębiowski W., Zając G., Wolak A. (2019), Analysis of Engine Oils from Farm Tractors in the Aspect of their Change, Agricultural Engineering, Vol. 23, 25-38. Search in Google Scholar

30. Gosala D.B., Allen C.M., Ramesh A.K., Shaver G.M., McCarthy J., Stretch D., Koeberlein E., Farrell L. (2017), Cylinder deactivation during dynamic diesel engine operation, International Journal of Engine Research, Vol. 18, No. 10, 991–1004. Search in Google Scholar

31. Grazzini G., Milazzo A. (2012), A thermodynamic analysis of multistage adiabatic CAES, Proceedings of the IEEE, Vol. 100, 461–472. Search in Google Scholar

32. Guan B., Zhan R., Lin H., Huang Z. (2014), Review of state of the art technologies of selective catalytic reduction of NOx from diesel engine exhaust, Applied Thermal Engineering, Vol. 66, 395–414. Search in Google Scholar

33. Guan B., Zhan R., Lin H., Huang Z. (2015), Review of the state-ofthe-art of exhaust particulate filter technology in internal combustion engines, Journal of Environmental Management, Vol. 154, 225–258. Search in Google Scholar

34. Guzzella L., Onder C., Dönitz C., Voser C., Vasile I. (2010), The pneumatic hybridization concept for downsizing and supercharging gasoline engines, MTZ worldwide, Vol. 71, 38–44. Search in Google Scholar

35. Hannan M.A., Azidin F.A., Mohamed A. (2014), Hybrid electric vehicles and their challenges: A review, Renewable and Sustainable Energy Reviews, Vol. 29, 135–150. Search in Google Scholar

36. Harper G., Sommerville R., Kendrick E., Driscoll L., Slater P., Stolkin R., Walton A., Christensen P., Heidrich O., Lambert S., Abbott A., Ryder K., Gaines L., Anderson P. (2019), Recycling lithium-ion batteries from electric vehicles, Nature, Vol. 575, 75-86. Search in Google Scholar

37. Hawkins T.R., Singh B., Majeau-Bettez G., Strømman A.H. (2013), Comparative Environmental Life Cycle Assessment of Conventional and Electric Vehicles, Journal of Industrial Ecology, Vol. 17, 53-64. Search in Google Scholar

38. Heck R.M., Farrauto R.J. (2001), Automobile exhaust catalysts, Applied Catalysis A: General, Vol. 221, 443–457. Search in Google Scholar

39. Hoke A., Brissette A., Maksimović D., Pratt A., Smith K. (2011), Electric vehicle charge optimization including effects of lithium-ion battery degradation, 2011 IEEE Vehicle Power and Propulsion Conference, 1-8.10.1109/VPPC.2011.6043046 Search in Google Scholar

40. Hooftman N., Messagie M., Van Mierlo J., Coosemans T. (2018), A review of the European passenger car regulations – Real driving emissions vs local air quality, Renewable and Sustainable Energy Reviews, Vol. 86, 1–21. Search in Google Scholar

41. http://www.thefuture.net.nz/engine.htm [online cit.: 2021.04.15]. Search in Google Scholar

42. https://air-volution.com.au/compressed-air-engine/ [online cit.: 2021.04.16]. Search in Google Scholar

43. https://americanindustrialmining.com/porter-locomotives [online cit.: 2021.04.14]. Search in Google Scholar

44. https://www.engineair.com.au/ [online cit.: 2021.04.15]. Search in Google Scholar

45. https://www.groupe-psa.com/en/newsroom/automotive-innovation/hybrid-air [online cit.: 2021.04.03]. Search in Google Scholar

46. https://www.mdi.lu/airpod-2-0 [online cit.: 2021.04.15]. Search in Google Scholar

47. https://www.pmreview.com/wpcontent/uploads/2013/01/psa_air_hybrid-1 [online cit.: 2021.04.15]. Search in Google Scholar

48. https://www.tramwayinfo.com/Defair.htm [online cit.: 2021.04.15]. Search in Google Scholar

49. Huang C.Y., Hu C.K., Yu C.J., Sung C.K. (2013), Experimental investigation on the performance of a compressed-air driven piston engine, Energies, Vol. 6, 1731-1745. Search in Google Scholar

50. Huang K.D., Tzeng S.C. (2005), Development of a hybrid pneumatic-power vehicle, Applied Energy, Vol. 80, 47–59. Search in Google Scholar

51. Huang K.D., Tzeng S.C., Chang W.C. (2005), Energy-saving hybrid vehicle using a pneumatic-power system, Applied Energy, 81, 1–18.10.1016/j.apenergy.2004.06.005 Search in Google Scholar

52. Hudgens R.D., Bustamante R.B. (1993), Toxicity and disposal of engine coolants, ASTM Special Technical Publication, 149-164.10.1520/STP25162S Search in Google Scholar

53. Ivlev V.I., Misyurin S.Y. (2017), Calculated and experimental characteristics of a scroll machine operating in the air motor mode, Doklady Physics, Vol. 62, 42–45. Search in Google Scholar

54. Jeuland N., Montagne X., Duret P. (2004), New HCCI/CAI combustion process development: Methodology for determination of relevant fuel parameters, Oil and Gas Science and Technology, Vol. 59, No. 6, 571–579. Search in Google Scholar

55. Johnson J.M. (1983), US4596119A Compressed air propulsion system for a vehicle. Search in Google Scholar

56. Joshi A., Johnson T. V. (2018), Gasoline Particulate Filters — a Review, Emission Control Science and Technology, 4, 219–239.10.1007/s40825-018-0101-y Search in Google Scholar

57. Joshi M.C., Gosala D.B., Allen C.M., Vos K., Van Voorhis M., Taylor A., Shaver G.M., McCarthy J., Stretch D., Koeberlein E., Farrell L. (2017), Reducing Diesel Engine Drive Cycle Fuel Consumption through Use of Cylinder Deactivation to Maintain Aftertreatment Component Temperature during Idle and Low Load Operating Conditions, Frontiers in Mechanical Engineering, 3, 1-15.10.3389/fmech.2017.00008 Search in Google Scholar

58. Kakaee A.H., Nasiri-Toosi A., Partovi B., Paykani A. (2016), Effects of piston bowl geometry on combustion and emissions characteristics of a natural gas/diesel RCCI engine, Applied Thermal Engineering, Vol. 102, 1462-1472. Search in Google Scholar

59. Kamguia Simeu S., Kim N. (2018), Standard Driving Cycles Comparison (IEA) & Impacts on the Ownership Cost, SAE Technical Papers, 2018-01-0423, 1-12.10.4271/2018-01-0423 Search in Google Scholar

60. Kamiński M., Korbut M., Szpica D. (2020), Piston pneumatic engine - Preliminary research, Transport Means - Proceedings of the International Conference, Vol. 24, 126–131. Search in Google Scholar

61. Katoch S.S., Eswaramoorthy M. (2020), A Detailed Review on Electric Vehicles Battery Thermal Management System, IOP Conference Series: Materials Science and Engineering, 912, 1-11.10.1088/1757-899X/912/4/042005 Search in Google Scholar

62. Keav S., Matam S.K., Ferri D., Weidenkaff A. (2014), Structured perovskite-based catalysts and their application as Three-Way Catalytic converters - a review, Catalysts, Vol. 4, 226–255.10.3390/catal4030226 Search in Google Scholar

63. Khair M.K. (2003), A review of diesel particulate filter technologies, SAE Technical Papers, 2003-01-2303, 1-11.10.4271/2003-01-2303 Search in Google Scholar

64. Khandal S. V., Banapurmath N.R., Gaitonde V.N. (2019), Performance studies on homogeneous charge compression ignition (HCCI) engine powered with alternative fuels, Renewable Energy, Vol. 132, 683–693. Search in Google Scholar

65. Kim J., Oh J., Lee H. (2019), Review on battery thermal management system for electric vehicles, Applied Thermal Engineering, Vol. 149, 192-212. Search in Google Scholar

66. Ko J., Kim K., Chung W., Myung C.L., Park S. (2019), Characteristics of on-road particle number (PN) emissions from a GDI vehicle depending on a catalytic stripper (CS) and a metal-foam gasoline particulate filter (GPF), Fuel, Vol. 238, 363–374. Search in Google Scholar

67. Kral J., Konecny B., Kral J., Madac K., Fedorko G., Molnar V. (2014), Degradation and chemical change of longlife oils following intensive use in automobile engines, Measurement: Journal of the International Measurement Confederation, Vol. 50, 34-42. Search in Google Scholar

68. Kumar V., Takkar J., Chitransh M., Kumar N., Banka U., Gupta U. (2014), Development of an advanced compressed air engine kit for small engine, SAE Technical Papers, 2014-01-1666, 1-11.10.4271/2014-01-1666 Search in Google Scholar

69. Lambert C., Chanko T., Dobson D., Liu X., Pakko J. (2017), Gasoline Particle Filter Development, Emission Control Science and Technology, Vol. 3, 105–111. Search in Google Scholar

70. Latha H.S., Prakash K. V, Veerangouda M., Maski D., Ramappa K.T. (2019), A Review on SCR System for NOx Reduction in Diesel Engine, International Journal of Current Microbiology and Applied Sciences, Vol. 8, No. 4, 1553-1559. Search in Google Scholar

71. Lee N., Park J., Lee J., Park K., Choi M., Kim W. (2018), Estimation of fuel economy improvement in gasoline vehicle using cylinder deactivation, Energies, Vol. 11, 1-12. Search in Google Scholar

72. Li J., Chang H., Ma L., Hao J., Yang R.T. (2011), Low-temperature selective catalytic reduction of NOx with NH3 over metal oxide and zeolite catalysts - A review, Catalysis Today, Vol. 175, 147-156. Search in Google Scholar

73. Ligterink N., Mensch P., Cuelenaere R. (2016), NEDC – WLTP comparative testing, TNO report: TNO, Vol. R11285, 1-29. Search in Google Scholar

74. Liu T., Wu Z. (2015), Modeling of top scroll profile using equidistant-curve approach for a scroll compressor, Mathematical Problems in Engineering, 1-8.10.1155/2015/403249 Search in Google Scholar

75. Lund H., Salgi G. (2009), The role of compressed air energy storage (CAES) in future sustainable energy systems, Energy Conversion and Management, Vol. 50, 1172-1179. Search in Google Scholar

76. Luo X., Wang J., Dooner M., Clarke J., Krupke C. (2014), Overview of current development in compressed air energy storage technology, Energy Procedia, Vol. 62, 603-611. Search in Google Scholar

77. Manoharan Y., Hosseini S.E., Butler B., Alzhahrani H., Senior B.T.F., Ashuri T., Krohn J. (2019), Hydrogen fuel cell vehicles; Current status and future prospect, Applied Sciences (Switzerland), Vol. 9, 1-17. Search in Google Scholar

78. Mazumder H., Al Emran Hassan M.M., Ektesabi M., Kapoor A. (2012), Performance analysis of EV for different mass distributions to ensure safe handling, Energy Procedia, Vol. 14, 949-954,10.1016/j.egypro.2011.12.1038 Search in Google Scholar

79. Mieczkowski G. (2016), Electromechanical characteristics of piezoelectric converters with freely defined boundary conditions and geometry, Mechanika, Vol. 22, No. 4, 265-272. Search in Google Scholar

80. Mieczkowski G. (2016), Stress fields at the tip of a sharp inclusion on the interface of a bimaterial, Mechanics of Composite Materials, Vol. 52, No. 5, 601-610. Search in Google Scholar

81. Mikulski M., Balakrishnan P.R., Doosje E., Bekdemir C. (2018), Variable Valve Actuation Strategies for Better Efficiency Load Range and Thermal Management in an RCCI Engine, SAE Technical Papers, 2018-01-0254, 1-14.10.4271/2018-01-0254 Search in Google Scholar

82. Miller T.R. (1980), US4370857A Pneumatic system for compressed air driven vehicle. Search in Google Scholar

83. Mishra K.R., Sugandh G. (2014), Study About Engine Operated By Compressed Air (C.A.E): A Pneumatic Power Source, Journal of Mechanical and Civil Engineering. Vol. 11, 99–103. Search in Google Scholar

84. Mitukiewicz G., Dychto R., Leyko J. (2015), Relationship between LPG fuel and gasoline injection duration for gasoline direct injection engines, Fuel, Vol. 153, 526–534.10.1016/j.fuel.2015.03.033 Search in Google Scholar

85. Morrow K., Karner D., Francfort J. (2008), Advanced Vehicle Testing Activity Plug-in Hybrid Electric Vehicle Charging Infrastructure Review Novem Charging Infrastructure Review, U. S. Department of Energy Vehicle Technologies Program, Vol. 34, 1-40. Search in Google Scholar

86. Muhamad Said M.F., Abdul Aziz A., Abdul Latiff Z., Mahmoudzadeh Andwari A., Mohamed Soid S.N. (2014), Investigation of Cylinder Deactivation (CDA) Strategies on Part Load Conditions, SAE Technical Papers, 2014-01-2549, 1-7.10.4271/2014-01-2549 Search in Google Scholar

87. Myagkov L.L., Mahkamov K., Chainov N.D., Makhkamova I. (2014), Advanced and conventional internal combustion engine materials, Alternative Fuels and Advanced Vehicle Technologies for Improved Environmental Performance: Towards Zero Carbon Transportation, 370-392.10.1533/9780857097422.2.370 Search in Google Scholar

88. Myung C.L., Lee H., Choi K., Lee Y.J., Park S. (2009), Effects of gasoline, diesel, LPG, and low-carbon fuels and various certification modes on nanoparticle emission characteristics in light-duty vehicles, International Journal of Automotive Technology, Vol. 10, 537–544. Search in Google Scholar

89. Nabil T. (2019), Investigation and implementation of compressed air powered motorbike engines, Engineering Reports, Vol. 1, 1–13. Search in Google Scholar

90. Olesky L.M., Lavoie G.A., Assanis D.N., Wooldridge M.S., Martz J.B. (2014), The effects of diluent composition on the rates of HCCI and spark assisted compression ignition combustion, Applied Energy, Vol. 124, 186–198. Search in Google Scholar

91. Onishi S., Jo S.H., Shoda K., Jo P.D., Kato S. (1979), Active Thermo-Atmosphere Combustion (ATAC) - A new combustion process for internal combustion engines, SAE Technical Papers, 790501, 1-12.10.4271/790501 Search in Google Scholar

92. Papson A., Creutzig F., Schipper L. (2010), Compressed air vehicles: Drive-cycle analysis of vehicle performance, environmental impacts, and economic costs, Transportation Research Record, Vol. 2191, 67–74. Search in Google Scholar

93. Pavlovic J., Marotta A., Ciuffo B. (2016), CO2 emissions and energy demands of vehicles tested under the NEDC and the new WLTP type approval test procedures, Applied Energy, 177, 661-670.10.1016/j.apenergy.2016.05.110 Search in Google Scholar

94. Pesaran A. (2001), Battery Thermal Management in EVs and HEVs : Issues and Solutions, Advanced Automotive Battery Conference, Vol. 10, 1-10. Search in Google Scholar

95. Puškár M., Jahnátek A., Kádárová J., Šoltésová M., Kovanič Ľ., Krivosudská J. (2019), Environmental study focused on the suitability of vehicle certifications using the new European driving cycle (NEDC) with regard to the affair “dieselgate” and the risks of NO x emissions in urban destinations, Air Quality, Atmosphere and Health, Vol. 12, No. 2, 251–257. Search in Google Scholar

96. Radhakrishna L., Gopikrishna N. (2017), Prefabricating and testing of air driven engine, International Journal of Mechanical Engineering and Technology, Vol. 8, 238–251. Search in Google Scholar

97. Raslavičius L., Azzopardi B., Keršys A., Starevičius M., Bazaras Ž., Makaras R. (2015), Electric vehicles challenges and opportunities: Lithuanian review, Renewable and Sustainable Energy Reviews, Vol. 42, 786–800. Search in Google Scholar

98. Raslavičius L., Keršys A., Makaras R. (2017), Management of hybrid powertrain dynamics and energy consumption for 2WD, 4WD, and HMMWV vehicles, Renewable and Sustainable Energy Reviews, Vol. 68, 380–396. Search in Google Scholar

99. Reitz R.D., Duraisamy G. (2015), Review of high efficiency and clean reactivity controlled compression ignition (RCCI) combustion in internal combustion engines, Progress in Energy and Combustion Science, Vol. 46, 12–71. Search in Google Scholar

100. Robertson D., Prucka R. (2019), A Review of Spark-Assisted Compression Ignition (SACI) Research in the Context of Realizing Production Control Strategies, SAE Technical Papers, 2019-24-0027, 1-18.10.4271/2019-24-0027 Search in Google Scholar

101. Saiteja P., Ashok B. (2021), A critical insight review on homogeneous charge compression ignition engine characteristics powered by biofuels, Fuel, Vol. 285, 1-34. Search in Google Scholar

102. Santos H., Costa M. (2008), Evaluation of the conversion efficiency of ceramic and metallic three way catalytic converters, Energy Conversion and Management, Vol. 49, 291–300. Search in Google Scholar

103. Sen B., Onat N.C., Kucukvar M., Tatari O. (2019), Material footprint of electric vehicles: A multiregional life cycle assessment, Journal of Cleaner Production, Vol. 209, 1033-1043. Search in Google Scholar

104. Sergaliyev A.S., Khajiyeva L.A. (2017), Experimental Research and Mathematical Modeling of Scroll Machine in Air Motor Mode, Advances in Mechanism Design II, 145–151.10.1007/978-3-319-44087-3_19 Search in Google Scholar

105. Shi Y., Li F., Cai M., Yu Q. (2016), Literature review: Present state and future trends of air-powered vehicles, Journal of Renewable and Sustainable Energy, Vol. 8.10.1063/1.4944970 Search in Google Scholar

106. Shuai S., Ma X., Li Y., Qi Y., Xu H. (2018), Recent Progress in Automotive Gasoline Direct Injection Engine Technology, Automotive Innovation, Vol. 1, 95-113. Search in Google Scholar

107. Sileghem L., Bosteels D., May J., Favre C., Verhelst S. (2014), Analysis of vehicle emission measurements on the new WLTC, the NEDC and the CADC, Transportation Research Part D: Transport and Environment, Vol. 32, 70–85. Search in Google Scholar

108. Szoka W., Szpica D. (2012), Adaptation of classic combustion engines to compressed air supply, Acta Mechanica et Automatica, Vol. 6, 68-73. Search in Google Scholar

109. Szpica D. (2019), Coefficient of Engine Flexibility as a Basis for the Assessment of Vehicle Tractive Performance, Chinese Journal of Mechanical Engineering (English Edition), Vol. 32, 1-9. Search in Google Scholar

110. Szpica D., Korbut M. (2019), Modelling Methodology of Piston Pneumatic Air Engine Operation, Acta Mechanica et Automatica, Vol. 13, 271–278. Search in Google Scholar

111. Szpica D., Korbut M. (2020), Model assessment of inlet timing system impact on cylinder indicated pressure course of piston pneumatic engine, Engineering for Rural Development, Vol. 19, 711–720. Search in Google Scholar

112. Szpica D., Piwnik J., Sidorowicz M. (2014), The motion storage characteristics as the indicator of stability of internal combustion engine - receiver cooperation, Mechanika, Vol. 20, No. 1, 108-112. Search in Google Scholar

113. Thipse S.S. (2008), Compressed air car, Tech Monitor, 6, 33–37. Search in Google Scholar

114. Thiruvengadam A., Besch M., Padmanaban V., Pradhan S., Demirgok B. (2018), Natural gas vehicles in heavy-duty transportation - A review, Energy Policy, Vol. 122, 253-259. Search in Google Scholar

115. Usman M., Farooq M., Naqvi M., Saleem M.W., Hussain J., Naqvi S.R., Jahangir S., Jazim Usama H.M., Idrees S., Anukam A. (2020), Use of gasoline, LPG and LPG-HHO blend in SI engine: A comparative performance for emission control and sustainable environment, Processes, Vol. 8, No. 74, 1-15.10.3390/pr8010074 Search in Google Scholar

116. Varella R., Duarte G., Baptista P., Sousa L., Villafuerte P. (2017), Comparison of Data Analysis Methods for European Real Driving Emissions Regulation, SAE Technical Papers, 2017-01-0997, 1-14.10.4271/2017-01-0997 Search in Google Scholar

117. Wagner W.C. (1975), US4124978A Compressed air engine. Search in Google Scholar

118. Wang J., Lu K., Ma L., Wang J., Dooner M., Miao S., Li J., Wang D. (2017), Overview of compressed air energy storage and technology development, Energies, Vol. 10, 1-22. Search in Google Scholar

119. Wang Y.W., You J.J., Sung C.K., Huang C.Y. (2014), The applications of piston type compressed air engines on motor vehicles, Procedia Engineering, Vol. 79, 61–65. Search in Google Scholar

120. Wang Z., He X., Wang J.X., Shuai S., Xu F., Yang D. (2010), Combustion visualization and experimental study on spark induced compression ignition (SICI) in gasoline HCCI engines, Energy Conversion and Management, Vol. 51, No. 5, 908–917. Search in Google Scholar

121. Warguła Ł., Kukla M. (2020), Determination of maximum torque during carpentry waste comminution, Wood Research, Vol. 65, 771-784. Search in Google Scholar

122. Wasbari F., Bakar R.A., Gan L.M., Tahir M.M., Yusof A.A. (2017), A review of compressed-air hybrid technology in vehicle system, Renewable and Sustainable Energy Reviews, Vol. 67, 935–953. Search in Google Scholar

123. Weaver C.S. (1989), Natural gas vehicles - A review of the state of the art, SAE Technical Papers, 892133, 1-24.10.4271/892133 Search in Google Scholar

124. Wittig K. (1925), US1726462A Compressed-air engine. Search in Google Scholar

125. Wu W., Wang S., Wu W., Chen K., Hong S., Lai Y. (2019), A critical review of battery thermal performance and liquid based battery thermal management, Energy Conversion and Management, Vol. 182, 262-281. Search in Google Scholar

126. Xia W., Zheng Y., He X., Yang D., Shao H., Remias J., Roos J., Wang Y. (2017), Catalyzed Gasoline Particulate Filter (GPF) Performance: Effect of Driving Cycle, Fuel, Catalyst Coating, SAE Technical Papers, 2017-01-2366, 1-9.10.4271/2017-01-2366 Search in Google Scholar

127. Xingcai L., Libin J., Junjun M., Chen H., Zhen H. (2008), Effects of an In-Cylinder Active Thermo-Atmosphere Environment on Diesel Engine Combustion Characteristics and Emissions, Energy Fuels, Vol. 22, No. 5, 2991–2996. Search in Google Scholar

128. Yang J., Roth P., Durbin T.D., Johnson K.C., Cocker D.R., Asa-Awuku A., Brezny R., Geller M., Karavalakis G. (2018), Gasoline Particulate Filters as an Effective Tool to Reduce Particulate and Polycyclic Aromatic Hydrocarbon Emissions from Gasoline Direct Injection (GDI) Vehicles: A Case Study with Two GDI Vehicles, Environmental Science and Technology, 52(5), 3275-3284.10.1021/acs.est.7b0564129446927 Search in Google Scholar

129. Yang Q.C., Zhao Y.Y., Li L.S., Qian Z.G. (2013), Investigation on working characteristics of micro compressed air energy storage system, Institution of Mechanical Engineers - 8th International Conference on Compressors and Their Systems, 151-159.10.1533/9781782421702.2.151 Search in Google Scholar

130. Yeh S. (2007), An empirical analysis on the adoption of alternative fuel vehicles: The case of natural gas vehicles, Energy Policy, Vol. 35, No. 11, 5865-5875. Search in Google Scholar

131. Zhang C., Yan B., Wieberdink J., Li P.Y., Van De Ven J.D., Loth E., Simon T.W. (2014), Thermal analysis of a compressor for application to Compressed Air Energy Storage, Applied Thermal Engineering, Vol. 73, No. 2, 1402-1411. Search in Google Scholar

132. Zhao C., Zhang B., Zheng Y., Huang S., Yan T., Liu X. (2020), Hybrid Battery Thermal Management System in Electrical Vehicles: A Review, Energies, Vol. 13, 1-18.10.3390/en13236257 Search in Google Scholar

133. Zhou Q., Du D., Lu C., He Q., Liu W. (2019), A review of thermal energy storage in compressed air energy storage system, Energy. Vol. 188.10.1016/j.energy.2019.115993 Search in Google Scholar

134. Zhou, S. Walker P., Zhang N. (2020), Parametric design and regenerative braking control of a parallel hydraulic hybrid vehicle, Mechanism and Machine Theory, Vol. 146, 1-15. Search in Google Scholar

135. Zwierzchowski J. (2017), Design type air engine Di Pietro, EPJ Web of Conferences, Vol. 143, 1-6. Search in Google Scholar