PubMed · 2023 · 10 citations · 0 references
EngineeringAutomotive EngineeringEnvironmental EngineeringEnergy PolicyInternal Combustion EnginesLife Cycle AssessmentEnergy Management StrategiesFuel CellsLife Cycle Carbon AssessmentLife-cycle Energy AnalysisVehicle EmissionsVehicle Propulsion SystemsBattery Electric VehiclesCarbon Emission AssessmentEnergy System Life Cycle AssessmentFuel EconomyHybrid Electric VehiclesHybrid Vehicle EmissionsLife-cycle Emissions ReductionMild Hybrid Systems
, respectively. By 2035, BEV and FCV were predicted to have a significant reduction of 69.1% and 49.3%, respectively, compared with ICEV. The carbon emission factor of electricity structure had the most significant influence on BEV life cycle carbon emissions. In terms of different hydrogen production methods of FCV, hydrogen demand should be mainly supplied by industrial hydrogen by-product purification in the short-term future, whereas hydrogen energy production by water electrolysis and hydrogen production from fossil energy combined with carbon capture, utilization, and storage technology should be used to meet the hydrogen demand of FCV in the long-term future, so as to achieve a significant improvement in the life cycle carbon reduction benefits of FCV.