Abstract
In this study, the energy characteristics of BEV and HEV were presented. Original experimental results for energy consumption are presented. The life cycle assessment of main types of ecological vehicles was done. As a base of comparison, the primary energy and CO2 emissions of conventional gasoline vehicle was used. An area, concerning vehicles, which are more effective in economic and ecological aspects, at average Emission factor of EU-28, is defined. For a separate country, this area will be different, depend on value of its Emission factor of electricity production. The study gives the evidences for the hypothesis that electric vehicles do not generate emissions at the place, where it runs, can be used for resolving the local problems with air pollutions, but not global.
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References
Steps Toward Carbon-Free Transportation 2016 Frontier Group. https://uspirg.org/sites/pirg/files/reports/Frontier%20Group%20-%2050%20Steps%202016%5B1%5D_0.pdf
Chapman L (2006) Transport and climate change: a review. J Transp Geogr 15:354–367
Global Transportation Energy and Climate Roadmap (2012) International Council on Clean Transportation. https://theicct.org/publications/global-transportation-energy-and-climate-roadmap
Urban Transport and Climate Change. Deutsche Gesellschaft fur Internationale Zusammenarbeit. (2014). http://www.sutp.org/files/contents/documents/resources/A_Sourcebook/SB5_Environment%20and%20Health/GIZ_SUTP_SB5e_Transport-and-Climate-Change_EN.pdf
Climate change effects on the land (2009) NZ Transport Agency Research Report 378. NZ Transport Agency. https://www.nzta.govt.nz/resources/research/reports/378/
Climate change: implications for transport (2014) University of Cambridge. https://europeanclimate.org/climate-change-implications-for-transport/
Larminie J, Lowry J (2012) Electric vehicle technology explained. 2nd edn. Wiley
Bansal R (2014) Electric vehicles department of electrical, electronic and computer engineering. https://www.researchgate.net/publication/43517238_Electric_Vehicles
Evtimov I (2015) Electrombility—a reality for sustainable development of the transport and environment protection. University of Ruse
Gordić M, Stamenković D, Popović V, Muždeka S, Mićović A (2017) Electric vehicle conversion: optimisation of parameters in the design process. Tehnički vjesnik 24(4):446–454
Kaleg S, Hapid A, Redho KM (2015) Electric vehicle conversion based on distance, speed and cost requirements. Energy Procedia 68:446–454
Leitmen S, Brant B (1994) Build your own electric vehicle. McGraw-Hill
Gis W, Zóltowski A, Bochenska A (2012) Testing of the electric vehicle in driving cycles. J KONES Powertrain Transp 19:207–221
UN-ECE-R101-Fuel-Consumption. https://www.unece.org/fileadmin/DAM/trans/main/wp29/wp29regs/r101r2e.pdf
Air—Density and Specific Weight. http://www.engineeringtoolbox.com/air-density-specific-weight-d_600.html
Ivanov R, Sapundzhiev M, Kadikyanov G, Staneva G (2018) Energy characteristics of Citroen Berlingo converted to electric vehicle. Transp Probl 3:151–161
Del Duce A, Egede P, Öhlschläger G, Dettmer T, Althaus H, Bütler T, Szczechowicz E (2013) Guidelines for the LCA of electric vehicles. http://www.elcar-project.eu/fileadmin/dokumente/Guideline_versions/eLCAr_guidelines.pdf
Energy consumption of full electric vehicles. https://ev-database.org/cheatsheet/energy-consumption-electric-car
Evtimov I, Ivanov R (2016) Electromobiles. Ruse University
Technical Characteristic of Toyota Yaris Hybrid. www.auto-data.net
Toyota Hybrid System THS II (2003) Compiled by: Toyota Motor Corporation
Zhang H, Zhu Y, Tian G, Chen Q, Chen Y (2004) Optimal energy management strategy for hybrid electric vehicles, Tech Rep 2004-01-0576. SAE, Warrendale, PA
Ивaнoв P, Eвтимoв И, Ивaнoв Я (2016) Изcлeдвaнe paзxoдa нa гopивo нa xибpидeн и клacичecки aвтoмoбил в гpaдcки ycлoвия нa движeниe. Pyce, Hayчни тpyдoвe нa Pyceнcки Унивepcитeт, тoм 55, cepия 4, Pyce [In Bulgarian: Ivanov, R., Evtimov, I., Ivanov, Y. Investigation of the fuel consumption of the hybrid and conventional car in urban conditions]
Conlon B (2005) Comparative analysis of single and combined hybrid electrically variable transmission operating modes. SAE, Warrendale, PA Tech. Rep. 2005-01-1162
Ivanov Y, Ivanov R, Kadikyanov G, Staneva G, Danilov I (2019) Study the fuel consumption of hybrid car Toyota Yaris. Transp Probl 1:155–167
Mattson J (2012) Use of alternative fuels and hybrid vehicles by small urban and rural transit systems. Transportation Institute North Dakota State University. http://www.ugpti.org/pubs/pdf/DP250.pdf
Toyota Yaris Hybrid Technical Specifications. www.carfolio.com/specifications/models/car/?car=389873
Jeeninga H, Van Arkel WG, Volkers CH (2002) Performance and acceptance of electric and hybrid vehicles. Determination of attitude shifts and energy consumption of electric and hybrid vehicles used in the ELCIDIS project. ECN-C–02-080
MDI Compressed Air Engine. http://www.air-volution.com.au/technology/compressed-air-engine/
Ehsani M et al (2003) Impact of hybrid electric vehicles on the world’s petroleum consumption and supply. In: Society of automotive engineers (SAE) future transportation technology conference. Paper no. 2003-01-2310
Ehsani M, Gao Y, Emadi A (2010) Modern electric, hybrid electric and fuel cell vehicles. In: Fundamentals, theory and design. 2nd edn. CRC Press
Ehsani M, Gao Y, Miller M (2007) Hybrid electric vehicles: Architecture and motor drives. In: Proceedings of the IEEE, Special issue on Electric, hybrid and fuel cells vehicle 95(4):719–728
Manzie C, Watson H, Halgamuge S (2007) Fuel economy improvements for urban driving: Hybrid versus intelligent vehicles. Department of Mechanical and Manufacturing Engineering, The University of Melbourne, Vic. 3010, Australia, Transportation Research Part C15. P. 1–16. http://www-07.ibm.com/ innovation/ au/think/traffic/pdf/hybrid_vs_intelligent_vehicles
Jinming L, Huei P (2008) Modeling and control of a power-split hybrid vehicle. IEEE Trans Control Syst Technol 16(6):1242–1251
Бългapcкитe кapти. https://www.bgmaps.com [In Bulgarian: Bulgarian maps]
Bike Safety as Social Justice. http://raisethehammer.org/article/1407/bike_safety_as_social_justice
Peгиcтpиpaнитe aвтoмoбили в Бългapия ca нaд 4 млн. https://www.actualno.com/cars/registriranite-avtomobili-v-bylgarija-sa-nad-4-mln-news_552154.html [In Bulgarian: Registrated vehicles in Bulgaria are over 4 mln.]
The Promotion of Cycling (2010). https://ecf.com/sites/ecf.com/files/European-Parliament-2010_Promotion-of-Cycling.pdf
Urban Mobility on a Human Scale—Promoting and Facilitating Active Travel in Cities. https://www.swecourbaninsight.com/urban-move/urban-mobility-on-a-human-scale/
PiCycle Factory Tour and Ride Report. https://www.electricbike.com/picycle/
Bicycling resources. https://smarttripsaustin.org/bicycling-resources/
Evtimov I, Ivanov R, Valov N (2012) Research on the energy cost by electric bicycle at different moving regimes. Sozopol BulTrans-2012.20
IS0 14040/44:2006 Environmental management—Life cycle assessment
Schaltz E (2011) Electrical vehicle design and modeling. Electric vehicles—modelling and simulations. https://www.intechopen.com/books/electric-vehicles-modelling-and-simulations/electrical-vehicle-design-and-modeling
EV auxiliary systems impacts. http://avt.inl.gov/sites/default/files/pdf/fsev/auxiliary.pdf
Santiangeli A, Fiori C, Zuccari F, Dell’Era A, Orecchini F, D’Orazio A (2014) Experimental analysis of the auxiliaries consumption in the energy balance of a pre-series plug-in hybrid-electric vehicle. Energy Procedia 45:779–788
Schoettle B, Sivak M, Fujiyama Y (2008) Leds and power consumption of exterior automotive lighting: implications for gasoline and electric vehicles. Report No. UMTRI-2008-48
Vražić M, Barić O, Virtič P (2014) Auxiliary systems consumption in electric vehicle. Przegląd elektrotechniczny 12:172–175
Real-World Nissan LEAF Fleet Data Reveals… http://insideevs.com/real-world-nissan-leaf-fleet-data-reveals
Do Electric Cars Work in Cold Weather? Get the Facts… http://blog.ucsusa.org/dave-reichmuth/electric-cars-cold-weather-temperatures
Maшкoв П, Бepкaнт Г (2016) Изcлeдвaнe нa тoплиннoтo нaтoвapвaнe нa cвeтoдиoдни лaмпи зa aвтoмoбилни фapoвe. Hayчнa кoнф. PУ-CУ, тoм 5, cepия 4, P. 66–70 [In Bulgarian: Mashkov P, Gyoch B (2016) Thermal loading investigation of led bulbs for automotive headlights]
Maшкoв П, Гьoч Б, Ивaнoв P (2016). Изcлeдвaнe xapaктepиcтики нa cвeтoдиoдни кpyшки зa aвтoмoбилни фapoвe, Бyлтpaнc-2016. P. 118–123 [In Bulgarian: Mashkov P, Gyoch B, Ivanov R (2016) An investigation on characteristics of led bulbs for car headlights]
Evtimov I, Ivanov R, Staneva G, Kadikyanov G (2015) A study on electric bicycle energy efficiency. Transp Probl 3:131–140
Mammosser D, Boisvert M, Micheau P (2013) Designing regenerative braking strategies for electric vehicles with an efficiency map. In: 21eme Congres Francais de Mecanique
Ishihara K, Kihira N, Terada N, Iwahori T (2013) Environmental burdens of large lithium-ion batteries. Developed in a Japanese National Project, Central Research Institute of Electric Power Industry, Tokyo, Japan
Bakey K (2015) The production of hydrogen gas: steam methane reforming. ENGL 202C—Process Description
Burmistrz P, Czepirsk L, Gazda-Grzywacz M (2016) Carbon dioxide emission in hydrogen production technology from coke oven gas with life cycle approach. In: E3S web of conferences 10
Granovskii M, Dincer I, Rosen M (2006) Life cycle assessment of hydrogen fuel cell and gasoline vehicles. Int J Hydrogen Energy 31:337–352
Mehmeti A et al (2018) Life cycle assessment and water footprint of hydrogen production methods: from conventional to emerging technologies. Environments 5(2):24
Ruether J et al (eds) (2005) Life-cycle analysis of greenhouse gas emissions for hydrogen fuel production in the United States from LNG and coal. DOE/NETL-2006/1227. National Energy Technology Laboratory, NETL
Peng TD, Zhou S, Yuan Z, Ou XM (2017) Life cycle greenhouse gas analysis of multiple vehicle fuel pathways in China. Sustainability 9(2183):1–24
Efficient Seawater Desalination and Hydrogen Production Possible with New Catalyst (2019). https://scitechdaily.com/efficient-seawater-desalination-and-hydrogen-production-possible-with-new-catalyst/
Hydrogen production—Steam Methane Reforming (SMR) (2015) New York State Energy Research and Development Authority. Hydrogen Fact Sheet. https://inside.mines.edu/~jjechura/EnergyTech/07_Hydrogen_from_SMR.pdf
Пapo-гaзoви eлeктpoцeнтpaли (2010) Cп. Eнepджи peвю, бp. 3. https://www.energy-review.bg/bg/paro-gazovi-elektrocentrali/2/58 [In Bulgarian: Steam-gas power stations (2010) Energy Review. 3]
Energy production 2005 and 2015 (2017). https://ec.europa.eu/eurostat/statistics-explained/index.php?_2005_and_2015_(million_tonnes_of_oil_equivalent)_YB17.png&oldid=345041
Moro A, Lonza L (2017) Electricity carbon intensity in European Member States: impacts on GHG emissions of electric vehicles. Transp Res Part D: Transp Environ 64:5–14
Jechura J (2015) Hydrogen production natural gas via steam methane reforming (SMR). Colorado School of mines. https://inside.mines.edu/~jjechura/EnergyTech/07_Hydrogen_from_SMR.pdf
Aguirre K, Eisenhardt L, Lim Ch, Nelson B, Norring A, Slowik P, Tu N (2012) Lifecycle analysis comparison of a battery electric vehicle and a conventional gasoline vehicle. https://www.ioes.ucla.edu/wp-content/uploads/ev-vs-gasoline-cars-practicum-final-report.pdf
Hydrogen Made by the Electrolysis of Water is Now Cost-Competitive and Gives us Another Building Block for the Low-Carbon Economy (2017) https://www.carboncommentary.com/blog/2017/7/5/hydrogen-made-by-the-electrolysis-of-water-is-now-cost-competitive-and-gives-us-another-building-block-for-the-low-carbon-economy
Thomas CE (2008) Fuel cell and battery electric vehicles compared. Comparison of transportation options in a carbon-constrained world: hydrogen, plug-in hybrids and biofuels. In: The national hydrogen association annual meeting, Sacramento
Bakker D (2010) Battery electric vehicles. Performance, CO2 emissions, lifecycle costs and advanced battery technology development. Master thesis. Sustainable Development, Energy and Resources, Copernicus institute University of Utrecht
Brennan J, Barder T (2016) Battery electric vehicles versus internal combustion engine vehicles. A United States-based comprehensive assessment, Arthur D. Little 48
Evtimov I, Ivanov R, Kadikyanov G (2016) A comparative analysis of the vehicles energy performance. BulTrans-2016, Sozopol
Evtimov I, Ivanov R, Kadikyanov G, Staneva G (2018) Life cycle assessment for electric and conventional cars concerning energy consumption and CO2 emissions. In: MATEC web of conferences, 234, 02007, pp 1–5
Ivanov R, Evtimov I, Ivanova D, Staneva G, Kadikyanov G, Sapundjiev M (2019) Impact of renewable energy on the environmental efficiency of electric vehicles. Wroclaw, ISC RESRB-19
Nemes A, Dobó Z, Árpád BP (2014) Fully electric vehicles in practice. Mater Sci Eng 39(2):69–75
Palou-Rivera I et al (2011) Updates to petroleum refining and upstream emissions. Center for Transportation Research Argonne National Laboratory, CTR/Argonne
Petroleum diesel life cycle energy demand. https://www.nrel.gov/docs/legosti/fy98/24772.pdf
The European Union Automotive Fuel Economy Policy. https://www.globalfueleconomy.org/transport/gfei/autotool/case_studies/europe/EU%20CASE%20STUDY.pdf
Fischer R, Elfgren E, Toffolo A (2018) Energy supply potentials in the northern counties of Finland, Norway and Sweden towards sustainable Nordic electricity and heating sectors. Energy Engineering, Luleå University of Technology
Real world hydropower calculation (2019) The renewable energy website. http://www.reuk.co.uk/wordpress/hydro/calculation-of-hydro-power/
Scott A, Wedmaier R (2019) The assessment and control of coal damage and loss. Project Number C3017 University of Queensland. https://www.acarp.com.au/abstracts.aspx?repId=C3017
Skaalbones S (2015) Electricity disclosure. https://www.nve.no/energy-market-and-regulation/retail-market/electricity-disclosure-2015/
Wang M (2008) Estimation of energy efficiencies of U.S. petroleum refineries. Center for Transportation Research, Argonne National Laboratory
UK Government GHG Conversion Factors for Company Reporting (2015) Department for Business, Energy & Industrial Strategy. https://assets.publishing.service.gov.uk/government/uploads/system/uploads/attachment_data/file/507942/Emission_Factor_Methodology_Paper_-_2015.pdf
Louwen A (2011) Comparison of life cycle greenhouse gas emissions of shale gas with conventional fuels and renewable alternatives. Comparing a possible new fossil fuel with commonly used energy sources in the Netherlands. https://www.ebn.nl/wp-content/uploads/2017/11/A-Louwen_thesis_Final_PDF.pdf
Comparison of Lifecycle Greenhouse Gas Emissions of Various Electricity Generation Sources (2011) WNA Report. World Nuclear Association. http://www.world-nuclear.org/uploadedFiles/org/WNA/Publications/Working_Group_Reports/comparison_of_lifecycle.pdf
Weisser D (2007) A guide to life-cycle greenhouse gas (GHG) emissions from electric supply technologies. Energy 32(9):1543–1559
Yun H (2016) Lifecycle greenhouse gas emissions from power generation: a comparative analysis between the United States and the European Union and its implication for developing economies using the example of China. https://jscholarship.library.jhu.edu/bitstream/handle/1774.2/40170/Hoon%20Yun.pdf?sequence=1&isAllowed=y
Share of energy from renewable sources in gross final consumption of energy, 2004–2017 (%).png. https://ec.europa.eu/eurostat/statistics-explained/index.php?title=File:Share_of_energy_from_renewable_sources_in_gross_final_consumption_of_energy,_2004-2017_(%25).png
5-Share of renewable energy sources in transport 2004–2017.png. https://ec.europa.eu/eurostat/statistics-explained/images/9/9a/Table_5-Share_of_renewable_energy_sources_in_transport_2004-2017.png
Askari MB et al (2015) Types of solar cells and application. Am J Opt Photonics 3(5):94–113
Pehnt M (2003) Life-cycle analysis of fuel cell system components. Volume 4, Part 13 in Handbook of fuel cells—fundamentals, technology and applications. Wiley, Chichester, pp 1293–1317
Dhanushkodi S, Mahinpey N, Srinivasan A, Wilson M (2008) Life cycle analysis of fuel cell technology. J Environ Inf 11(1):36–44
Braga LB et al (2017) Hydrogen production processes. In: Silveira JL (ed) Sustainable hydrogen production processes green energy and technology. Springer
Eriksson O (2017) Nuclear power and resource efficiency—a proposal for a revised primary energy factor. Department of Building, Energy and Environmental Engineering, Faculty of Engineering and Sustainable Development, University of Gävle SE 801 76 Sweden
Dodds PE, McDowall WAS (2012) A review of hydrogen production technologies for energy system models. UCL Energy Institute University College London. UKSHEC Working Paper No. 6
Biagini E et al (2008) Process optimization of hydrogen production from coal gasification. In: 29th meeting on combustion, Conference paper. https://www.researchgate.net/figure/Comparison-of-the-sensitivity-analysis-results_tbl1_267822888
Cumulative efficiency of coal power plant. https://www.youtube.com/watch?v=ZvJmP63hkuU
Stala-Szlugaj K, Grudzinski Z (2016) Energy efficiency and steam coal transport over long distances. In: E3S web of conferences 10, SEED 00089
Ptasinski K (2008) Efficiency analysis of hydrogen production methods from biomass. Int J Alterna Propuls 2(1):39–49
Bhandari R, Trudewind C, Zapp P (2014) Life cycle assessment of hydrogen production methods—a review. Forschungszentrum Jülich, Institute of Energy and Climate Research—Systems Analysis and Technology Evaluation (IEK-STE)
Pehnt M (2002) Life cycle assessment of fuel cell systems. Erscheint in fuel cell handbook. Volume 3—Fuel cell technology and applications. J. Wiley
Bartolozzi I, Rizzi F, Frey M (2013) Comparison between hydrogen and electric vehicles by life cycle assessment: a case study in Tuscany. Appl Energy 101:103–111
Mirabal S (2003) An economic analysis of hydrogen production technologies using renewable energy resources. A thesis, presented to the graduate school of the University of Florida for the Degree of Master of science, University of Florida
Bossel U, Eliasson B (2003) Energy and the hydrogen economy, ABB Switzerland Ltd. Corporate Research. https://afdc.energy.gov/files/pdfs/hyd_economy_bossel_eliasson.pdf
Makridis S (2016) Hydrogen storage and compression. Chapter 1, University of Western Macedonia, GR50132 Kozani, Greece, CH001
Petitpas G, Simon AJ (2017) Liquid hydrogen infrastructure analysis. DOE hydrogen and fuel cells annual merit review. Washington D.C. LLNL-PRES-727907, Project ID#: PD135 June 6th
Bielaczyc P, Szczotka A, Woodburn J (2016) A comparison of exhaust emissions from vehicles fuelled with petrol LPG and CNG. In: Scientific conference on automotive vehicles and combustion engines (KONMOT 2016) IOP Conf. Series: Mater Sci Eng 148(1):012060, pp 1–10
Learn about the environmental and economic benefits of natural gas vehicles. https://www.socalgas.com/for-your-business/natural-gas-vehicles/benefits
Natural Gas Vehicle Emissions. Alternative Fuels Data Center. U.S. Department of Energy. https://www.afdc.energy.gov/vehicles/natural_gas_emissions.html
Tollefson J (2013) Methane leaks erode green credentials of natural gas. Nature 493. https://www.nature.com/news/methane-leaks-erode-green-credentials-of-natural-gas-1.12123#auth-1
Seebregts AJ (2010) Gas-fired power. Energy Tech. System Analysis Program (IEA-ETSAP), Agency Energy Tech
McKain K, Down A, Raciti SM, Budney J, Hutyra LR, Floerchinger C, Herndon SC, Nehrkorn T, Zahniser MS, Jackson RB, Phillips N, Wofsy SC (2015) Methane emissions from natural gas infrastructure and use in the urban region of Boston, Massachusetts. PNAS 112(7):1941–1946
Conoco Phillips (2015) Value chain methane loss update. Review of publicly available studies. http://static.conocophillips.com/files/resources/methanestudies112015.pdf
Environmental Impacts of Natural Gas. Union of Concerned Scientists. Science for a Healthy Planet and Safer World (2014). https://www.ucsusa.org/clean-energy/coal-and-other-fossil-fuels/environmental-impacts-of-natural-gas
Abdelmajeed MA, Onsa MH, Rabah AA (2009) Management of evaporation losses of gasoline’s storage tanks. Sudan Eng Soc J 55(52):39–43
Magaril E (2015) Reducing gasoline loss from evaporation by the introduction of a surface-active fuel additive. Urban Transp XXI. WIT Trans Built Environ 146:233–242
Kimeu JM (2012) Development of optimum energy use model for a petrol station. A research project report submitted in partial fulfillment for the degree of master of science (energy management) of the University of Nairobi
Liquified Natural Gas (LNG). SPE International (2018). https://petrowiki.org/Liquified_natural_gas_(LNG)
Oil Tanker Spill Statistics (2018) ITOPF, promoting effective spill response. https://www.itopf.org/knowledge-resources/data-statistics/statistics/
Unnasch S, Goyal L (2017) Life cycle analysis of LPG transportation fuels under the Californian LCFS. LCA.8103.177.2017
Meтoдикa зa oпpeдeлянe интeнзитeтa нa eмиcиитe нa пapникoви гaзoвe oт цeлия жизнeн цикъл нa гopивaтa и eнepгиятa oт нeбиoлoгичeн пpoизxoд в тpaнcпopтa (2017). https://www.moew.government.bg/static/media/ups/tiny/2017/07/Metodika_final.pdf [In Bulgarian: Methodology for density determination of green gases emissions during life cycle of fuels and energy from non-biological sources in the transport]
Paczuski M, Marchwiany M, Puławski R, Pankowski A, Kurpiel K, Przedlacki M (2016) liquefied petroleum gas (LPG) as a fuel for internal combustion engines. Alternative fuels, technical and environmental conditions. https://www.intechopen.com/books/alternative-fuels-technical-and-environmental-conditions/liquefied-petroleum-gas-lpg-as-a-fuel-for-internal-combustion-engines
Димитpoв A, Бoгдaнoв К (2002) Eкcплoaтaциoнни мaтepиaли в тpaнcпopтнaтa тexникa. Bapнa [In Bulgarian: Dimitrov A, Bogdanov K (2002) Exploatation materials in transport machinery]
Pimentel D et al (2009) Food versus biofuels: environmental and economic costs. Hum Ecol 37:1–12
Pawlowska M, Pawlowski A (2017) Advances in Renewable Energy Research. CRC Press, Science
Биoдизeл - aлтepнaтивa зa дизeлoви двигaтeли (2011) Eнepгия. III(6). http://energia.elmedia.net/bg/2011-6/editorials/биoдизeл-aлтepнaтивa-зa-дизeлoви-двигaтeли_00337.html [In Bulgarian: Biodiesel—an alternative for diesel engines]
Joseph H Jr (2013) Flex fuel vehicles in Brazil. ANFAVEA Energy & Environment Affairs Commission. http://www.globalbioenergy.org/fileadmin/user_upload/gbep/docs/2013_events/GBEP_Bioenergy_Week_Brasilia_18-23_March_2013/4.5_JOSEPH.pdf
Nogueira T et al (eds) (2015) Bioethanol and biodiesel as vehicular fuels in Brazil—Assessment of atmospheric impacts from the long period of biofuels use. https://www.intechopen.com/books/biofuels-status-and-perspective/bioethanol-and-biodiesel-as-vehicular-fuels-in-brazil-assessment-of-atmospheric-impacts-from-the-lon
Abhay T (2015) Converting a diesel engine to dual-fuel engine using natural gas. Int J Energy, Sci Eng 1(5):163–169
Weaver C, Turner S (1994) Dual fuel natural gas/diesel engines: technology, performance and emissions. In: SAE international, international congress & exposition, Technical Paper 940548
Papson A, Creutzig F, Schipper L (2010) Compressed air vehicles. Drive-cycle analysis of vehicle performance, environmental impacts and economic costs. Transp Res Record: J Transp Res Board 2191:67–74
Creutzig F, Papson A, Schipper L, Kammen DM (2009) Economic and environmental evaluation of compressed-air cars. Environ Res Lett 4(4):044011. PP 1–9
Dimitrova Z, Marechal F (2015) Gasoline hybrid pneumatic engine for efficient vehicle powertrain hybridization. Appl Energy 151(C):168–177
Dimitrova Z, Lourdais P, Marecha F (2015) Performance and economic optimization of an organic rankine cycle for a gasoline hybrid pneumatic powertrain. Energy 86:574–588
Kumar S, Karthik A (2016) Design and fabrication of compressed air engine bike. Int J Eng Sci Comput 6(7):182–188
Midhun VS, Ramesh A, Sathyanandan M (2014) Comparison of fully pneumatic and pneumatic—electric hybrid configurations for propulsion of a refrigerated vehicle. J Green Eng 1:49–70
Qihui Yu, Cai Maolin (2015) Experimental analysis of a compressed air engine. J Flow Control, Meas Vis 03(04):144–153
Evtimov I, Ivanov R, Sapundjiev M (2017) Energy consumption of auxiliary systems of electric cars. In: MATEC web of conferences 133, 06002, pp 1–5
Evtimov I, Ivanov R, Stanchev H, Kadikyanov G, Staneva G (2019) Life cycle assessment of fuel cells electric vehicles. In: XI international scientific conference, transport problems, Katowice
Evtimov I, Ivanov R, Stanchev H (2019) Life cycle assessment of vehicles, using LPG and NG. BulTrans 48–58
Evtimov I, Ivanov R, Kadikyanov G, Staneva G (2019) Life cycle assessment for compressed air and conventional cars concerning energy consumption and CO2 emissions. In: 58th science conference of Ruse University
Padula AD et al (eds) (2014) Liquid biofuels: emergence development and prospects, Lecture Notes in Energy 27. Springer, London
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Evtimov, I., Ivanov, R., Stanchev, H., Kadikyanov, G., Staneva, G., Sapundzhiev, M. (2020). Energy Efficiency and Ecological Impact of the Vehicles. In: Sładkowski, A. (eds) Ecology in Transport: Problems and Solutions. Lecture Notes in Networks and Systems, vol 124. Springer, Cham. https://doi.org/10.1007/978-3-030-42323-0_4
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