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In the last decade, with the increased concerns about the global environment, attempts have been made to promote the replacement of fossil fuels with sustainable sources. For transport, which accounts for around a quarter of total greenhouse gas emissions, meeting climate neutrality goals will require replacing existing fleets with electric or hydrogen-propelled vehicles. However, the lack of adequate decision support approach makes the introduction of new propulsion technologies in the transportation sector a complex strategic decision problem where distorted non-optimal decisions may easily result in long-term negative effects on the performance of logistic operators. This research addresses the problem of transport fleet renewal by proposing a multi-criteria decision-making approach and takes into account the multiple propulsion technologies currently available and the objectives of the EU Green Deal, as well as the inherent scenario uncertainty. The proposed approach, based on the TOPSIS model, involves a novel decision framework referred to as a generalized life cycle evaluation of the environmental and cost objectives, which is necessary when comparing green and traditional propulsion systems in a long-term perspective to avoid distorted decisions. Since the objective of the study is to provide a practical methodology to support strategic decisions, the framework proposed has been validated against a practical case referred to the strategic fleet renewal decision process. The results obtained demonstrate how the decision maker's perception of the technological evolution of the propulsion technologies influences the decision process, thus leading to different optimal choices. [ABSTRACT FROM AUTHOR]

In the last decade, with the increased concerns about the global environment, attempts have been made to promote the replacement of fossil fuels with sustainable sources. For transport, which accounts for around a quarter of total greenhouse gas emissions, meeting climate neutrality goals will require replacing existing fleets with electric or hydrogen-propelled vehicles. However, the lack of adequate decision support approach makes the introduction of new propulsion technologies in the transportation sector a complex strategic decision problem where distorted non-optimal decisions may easily result in long-term negative effects on the performance of logistic operators. This research addresses the problem of transport fleet renewal by proposing a multi-criteria decision-making approach and takes into account the multiple propulsion technologies currently available and the objectives of the EU Green Deal, as well as the inherent scenario uncertainty. The proposed approach, based on the TOPSIS model, involves a novel decision framework referred to as a generalized life cycle evaluation of the environmental and cost objectives, which is necessary when comparing green and traditional propulsion systems in a long-term perspective to avoid distorted decisions. Since the objective of the study is to provide a practical methodology to support strategic decisions, the framework proposed has been validated against a practical case referred to the strategic fleet renewal decision process. The results obtained demonstrate how the decision maker’s perception of the technological evolution of the propulsion technologies influences the decision process, thus leading to different optimal choices.

In this work, the results of carbon footprint evaluation of both an internal combustion engine vehicle (ICEV) and battery electric vehicle (BEV), considering the Ecuador energy scene, is presented. For this purpose, Well-to-Wheel analysis was used, firstly determining the electric energy generation matrix of the country. First, the KIA Soul vehicle and KIA Soul EV (electric version) were considered study cases. Then, manufacturers' technical characteristics were used to determine each vehicular technology's carbon footprint and considerations such as util life-route driving, fuel path, util life-time and replacement of batteries, and emissions due to chassis and body vehicle. Obtained results allowed for determining that greenhouse gas emissions in Ecuador due to the ICEV is 236.16 gCO2/km. On the other hand, the BEV emitted 63.14 gCO2/km, significantly barely 27%of emissions. These results represent a positive impact on reducing ambient contamination indices and reinforce the necessity for accelerating the change in the country's energy matrix toward a cleaner and more sustainable energy generation

The real environment impacts the fuel and energy consumption of any vehicle: technology, physical and social phenomena, traffic, drivers' behaviour, and so on; many of them are difficult to quantify. The authors' methodology was used to test the real impact of vehicles in "standard" urban conditions, and many generations of hybrid powertrains are compared. One of the latest performance indexes is the percentage of time the vehicle runs with zero emissions (ZEV). For example, the hybrid vehicle tested ran up to 80% with no emissions and fuel consumption below 3 L per 100 km. A few energy performance indicators were compared between five vehicles: one battery electric vehicle (BEV), two hybrid gasoline–electric vehicles (HEVs), and two traditional vehicles (one diesel and one gasoline). Their potential to use only renewable energy is unrivalled, but today's vehicles' performances favour hybrid power trains. This paper summarises the most sustainable powertrain for urban use by comparing experimental data from on-road testing. It also evaluates the benefits of reducing emissions by forecasting the Italian car fleet of 2025 and three use cases of the evolution of car fleets, with a focus on Rome. [ABSTRACT FROM AUTHOR]

Abstract The option of decarbonizing urban freight transport using battery electric vehicle (BEV) seems promising. However, there is currently a strong debate whether fuel cell electric vehicle (FCEV) might be the better solution. The question arises as to how a fleet of FCEV influences the operating cost, the greenhouse gas (GHG) emissions and primary energy demand in comparison to BEVs and to Internal Combustion Engine Vehicle (ICEV). To investigate this, we simulate the urban food retailing as a representative share of urban freight transport using a multi-agent transport simulation software. Synthetic routes as well as fleet size and composition are determined by solving a vehicle routing problem. We compute the operating costs using a total cost of ownership analysis and the use phase emissions as well as primary energy demand using the well to wheel approach. While a change to BEV results in 17–23% higher costs compared to ICEV, using FCEVs leads to 22–57% higher costs. Assuming today’s electricity mix, we show a GHG emission reduction of 25% compared to the ICEV base case when using BEV. Current hydrogen production leads to a GHG reduction of 33% when using FCEV which however cannot be scaled to larger fleets. Using current electricity in electrolysis will increase GHG emission by 60% compared to the base case. Assuming 100% renewable electricity for charging and hydrogen production, the reduction from FCEVs rises to 73% and from BEV to 92%. The primary energy requirement for BEV is in all cases lower and for higher compared to the base case. We conclude that while FCEV have a slightly higher GHG savings potential with current hydrogen, BEV are the favored technology for urban freight transport from an economic and ecological point of view, considering the increasing shares of renewable energies in the grid mix.

Renewable hydrogen and batteries are pivotal not only for promoting renewable energy adoption but also for serving as key components in electric vehicles. While multiple hydrogen-based and battery-based pathways exist for linking renewable energy to automotive powertrains, comprehensive evaluations of them are lacking, especially in the context of long-distance energy transmission in China. This study aims to fill this gap by offering an in-depth well-to-wheel (WTW) analysis of costs and CO 2 emissions across various pathways. The pathways involve two energy storage mediums - hydrogen and battery, five transport options, and three automotive powertrains - Internal Combustion Engine Vehicle (ICEV), Fuel Cell Electric Vehicle (FCEV), and Battery Electric Vehicle (BEV). How the electricity price, storage duration, and transport distance influence these pathways is also examined. The results show that the battery-based pathway offers the lowest WTW cost and CO 2 emissions in BEV applications. Hydrogen-based pathways are not economically feasible for ICEVs. Importantly, the indirect use of hydrogen in BEVs - H 2 for power generation - outperforms its direct use in FCEVs and ICEVs in both cost and emissions. The battery-based pathway is significantly affected by storage duration and becomes less feasible for durations exceeding one day. The most cost-efficient hydrogen transport methods are identified for different transport distances and electricity prices. This research may provide valuable insights for the planning of the hydrogen industry, automotive decarbonization and renewable energy development in China. [Display omitted] • A holistic Well-to-Wheel analysis is conducted on renewable energy-based pathways. • The Battery-based pathway shows lowest cost and emissions. • Indirect hydrogen use for power generation outperforms direct hydrogen refueling. • Hydrogen pathways excel for day-long energy storage. • Various hydrogen pathways are compared under different scenarios. [ABSTRACT FROM AUTHOR]

The option of decarbonizing urban freight transport using battery electric vehicle (BEV) seems promising. However, there is currently a strong debate whether fuel cell electric vehicle (FCEV) might be the better solution. The question arises as to how a fleet of FCEV influences the operating cost, the greenhouse gas (GHG) emissions and primary energy demand in comparison to BEVs and to Internal Combustion Engine Vehicle (ICEV). To investigate this, we simulate the urban food retailing as a representative share of urban freight transport using a multi-agent transport simulation software. Synthetic routes as well as fleet size and composition are determined by solving a vehicle routing problem. We compute the operating costs using a total cost of ownership analysis and the use phase emissions as well as primary energy demand using the well to wheel approach. While a change to BEV results in 17–23% higher costs compared to ICEV, using FCEVs leads to 22–57% higher costs. Assuming today's electricity mix, we show a GHG emission reduction of 25% compared to the ICEV base case when using BEV. Current hydrogen production leads to a GHG reduction of 33% when using FCEV which however cannot be scaled to larger fleets. Using current electricity in electrolysis will increase GHG emission by 60% compared to the base case. Assuming 100% renewable electricity for charging and hydrogen production, the reduction from FCEVs rises to 73% and from BEV to 92%. The primary energy requirement for BEV is in all cases lower and for higher compared to the base case. We conclude that while FCEV have a slightly higher GHG savings potential with current hydrogen, BEV are the favored technology for urban freight transport from an economic and ecological point of view, considering the increasing shares of renewable energies in the grid mix. [ABSTRACT FROM AUTHOR]

The present study explores net carbon-neutral road transport options in the EU27 in 2050 from a well-to-wheel (WtW) perspective. To this aim, three scenarios have been developed regarding the evolution of the road vehicle fleet composition in terms of the degree of electrification of powertrains, and technical measures such as vehicle efficiency improvements, transport flow, and transport volumes have been considered. The fleet scenarios are further combined with four scenarios deploying different mixes of alternative fuels in 2050, including electricity, e-fuels, liquid/gaseous advanced biofuels and remaining fossil fuel components. Two different electricity production pathways are considered, as well, one of them assuming fully renewable electricity production, and an alternative one including residual shares of nuclear and natural gas power plants plus carbon capture and storage. The Joint Research Centre's DIONE model was used for the scenario calculations. From a tank-to-wheel (TtW) perspective, each scenario reduces energy consumption, mainly due to powertrain electrification, with EU27 TtW road vehicle energy consumption in 2050 ranging from roughly 650 to 1650 TWh, which is 20%–53% of that of 2019. For the most strongly electrified fleet scenario with optimistic assumptions on measures to improve vehicle efficiency, transport flow and transport volumes and renewable electricity production, well-to-tank (WtT) energy consumption is around 110–160 TWh, depending on the fuel scenario. If a moderately electrified fleet is propelled with e-fuels, even when assuming fully renewable electricity and optimistic measures, the WtT energy consumption increases ten times or more, to 1300 TWh (2150 TWh with pessimistic measures). The results show that fleet electrification is the strongest lever for WtW transport energy consumption reduction among the options considered. Other efficiency measures contribute significantly to energy savings, but their benefit decreases with increasing fleet electrification. The production pathways of fuels make a substantial difference for WtW fleet energy requirement if the fleet is moderately electrified, in which case e-fuels require significant amounts of additional renewable electricity. Nevertheless, fuel production pathways become irrelevant from an energetic point of view under very ambitious electrification scenarios since fuel volumes become marginal. The economic feasibility and the societal acceptability of different pathways towards WtW carbon-neutrality of road transport is out of scope of this paper and requires further investigation. • The study examines well-to-wheel scenarios for 2050 carbon neutral road transport. • Electrification is the strongest driver in transport energy consumption reduction. • Vehicle efficiency and activity impacts decrease with fleet electrification. • With high fleet electrification fuel production barely impacts energy consumption. • E-fuels require particularly large amounts of additional renewable electricity. [ABSTRACT FROM AUTHOR]

Long‐haul transportation demand is predicted to increase in the future, resulting in higher carbon dioxide emissions. Different drivetrain technologies, such as hybrid or battery electric vehicles, electrified roads, liquefied natural gas and hydrogen, might offer solutions to this problem. To assess their ecological and economic impact, these concepts were simulated including a weight and cost model to estimate the total cost of ownership. An evolutionary algorithm optimizes each vehicle to find a concept specific optimal solution. A model calculates the minimum investment in infrastructure required to meet the energy demand for each concept. A well‐to‐wheel analysis takes into account upstream and on‐road carbon dioxide emissions, to compare fully electric vehicles with conventional combustion engines. Investment in new infrastructure is the biggest drawback of electrified road concepts, although they offer low CO2 emissions. The diesel hybrid is the best compromise between carbon reduction and costs. [ABSTRACT FROM AUTHOR]

Environmental issues are an increasingly important aspect of management in the transport sector; new methods have been developed for assessment of the environment in the transport sector using the life cycle approach. The paper presents the application of Well to Wheel (WTW) and Life Cycle Assessment (LCA) in the transport sector. The WTW method focuses on energy analysis and greenhouse gas emissions during the life cycle of fuels. WTW is used to support decision-making on the environmental aspects of transport, particularly with regard to fuel life cycle management, but this method omits important stages in the life cycle, particularly the ones regarding important circular economy guidelines such as reduction of natural resource consumption, impact on human health, etc. The LCA method provides a much broader approach to environmental assessment than WTW. LCA takes into consideration environmental impact in the whole life cycle of the vehicle, from the stage of production, through the period of exploitation, and finally its disposal.

Interests in evaluating lifecycle energy use in urban transport have been growing as a research topic. Various studies have evaluated the relationship between the intracity transport energy use and population density and commonly identified its negative correlation. However, a diachronic transition in an individual city has yet to be fully analyzed. As such, this study employed transport energy intensity widely used for evaluating transport energy efficiency and obtained the transport energy intensity for each transportation means including walk, bicycle, automobile (conventional vehicles, electric vehicles, hybrid vehicles, and fuel cell vehicles), bus and electric train by considering the lifecycle energy consumption. Then, the intracity lifecycle transport energy intensity of 38 cities in Japan in 1987–2015 was computed, assuming that the cause of diachronic transition of intracity transport energy efficiency is the modal shifting and electricity mix change. As a result, the greater level of population density was associated with the lower intracity transport energy intensity in Japanese cities. The negative slope of its regression line increased over time since the intracity lifecycle transport energy intensity in cities with low population density continuously increased without any significant change of population density. Finally, this study discussed the strategic implications particularly in regional areas to improve the intracity lifecycle transport energy efficiency.

Hydrogen (H 2) storage, transport, and end-user provision are major challenges on pathways to worldwide large-scale H 2 use. This review examines direct versus indirect and onboard versus offboard H 2 storage. Direct H 2 storage methods include compressed gas, liquid, and cryo-compression; and indirect methods include physical and chemical adsorption and chemical carriers. In this review paper, we examine these different systems, identifying and discussing challenges related to safe and efficient storage, operating conditions, and applications. Research and development activities related to the economic, safety, and environmental aspects of H 2 storage and transportation in North America are also examined in detail. Technically, pressurized H 2 storage tanks (350 and 700 bar) have not reached the technical onboard applications target of 0.050 kgH 2 /L, where tanks' mass, size, and price are critical limiting factors. High specific energy consumption (SEC) and inevitable boil-off H 2 losses in liquefaction systems reduce their performance. H 2 liquefaction plants can be considered an efficient method for hydrogen storage by reducing energy consumption to less than 6 kWh/kgLH 2 and increasing the capacity of liquefaction systems more than 100 t/day. Various studies are ongoing despite the drawbacks of the irreversibility of H 2 adsorption/desorption operations (100–400 ˚C), successive cooling and heating cycles, and slow refueling in synthesized metal hydride (MH) systems. Insights and recommendations for H 2 storage and transportation in North America suggest short-, medium-, and long-term strategies. Short-term scenarios focus on compressed H 2 in light and heavy vehicles, energy consumption reduction in the provision of liquefied H 2 for ship and truck transport, and using existing natural gas (NG) transmission infrastructures for H 2 /NG mixtures (5–20 vol%). Medium-term scenarios address high-volume H 2 storage for stationary applications using compressed gas storage in upstream and underground tanks, liquid storage in large, insulated tanks, and higher purity H 2 transfer in NG pipelines. Long-term scenarios focus on large-volume subsurface geological storage and basement space use. Additionally, various standards and codes for H 2 storage technologies in North America are categorized. [Display omitted] • This review paper focuses on different H 2 storage strategies and their performance improvement. • Challenges related to safe and efficient storage conditions of H 2 are highlighted. • Various research and engineering potentials of H 2 storage in North America are discussed. • The salt/rock caverns and pipelines for H 2 bulk storage in North America are examined. • Standards/codes and future prospects for H 2 storage technologies in North America are classified. [ABSTRACT FROM AUTHOR]

Environmental issues are an increasingly important aspect of management in the transport sector; new methods have been developed for assessment of the environment in the transport sector using the life cycle approach. The paper presents the application of Well to Wheel (WTW) and Life Cycle Assessment (LCA) in the transport sector. The WTW method focuses on energy analysis and greenhouse gas emissions during the life cycle of fuels. WTW is used to support decision-making on the environmental aspects of transport, particularly with regard to fuel life cycle management, but this method omits important stages in the life cycle, particularly the ones regarding important circular economy guidelines such as reduction of natural resource consumption, impact on human health, etc. The LCA method provides a much broader approach to environmental assessment than WTW. LCA takes into consideration environmental impact in the whole life cycle of the vehicle, from the stage of production, through the period of exploitation, and finally its disposal. [ABSTRACT FROM AUTHOR]

This study modelled the Passenger (PC) fleet and other categories of road transport in Ireland from 2015 to 2035 to assess the impact of current and potential greenhouse gas mitigation policies on CO 2 emissions. Scenarios included the shift of purchasing towards diesel PCs over gasoline PCs. Scrappage rates were also calculated and applied to the fleet to predict future sales of PCs. Seven future policy scenarios were examined using different penetrations of PC sales for different vehicle technologies under current and alternative bio-fuel obligations. Tank to Wheel (T2W) tailpipe and Well to Wheel (W2W) CO 2 emissions, and energy demand were modelled using COPERT 4v11.3 and a recently published W2W CO 2 emissions model. A percentage reduction of conventional diesel and petrol vehicles, in different scenarios compared to a baseline scenario in the W2W model was applied to estimate the likely changes in T2W emissions at the tailpipe up to 2035. The results revealed that the biofuel policy scenario was insufficient in achieving a significant reduction of CO 2 emissions. However, without a fixed reduction target for CO 2 from the road transport sector, the success of policy scenarios in the long run is difficult to compare. The current Electric vehicle (EV) policy in Ireland is required to be implemented to reduce CO 2 emissions by a significant level. Results also show that a similar achievement of CO 2 emission reduction could be possible by using alternative vehicle technologies with higher abatement cost. However, as EV based policies have not been successful so far, Ireland may need to search for alternative pathways. [ABSTRACT FROM AUTHOR]

The increase of public attention, scientific research and political interest in environmental problems associated with transportation has provided the motivation for re-invention of electric vehicles. However the usage of grid-dependent EVs with a high-carbon electricity grid might produce more damage to the environment. This study aims to provide an environmental impact comparison of ICEVs, HEVs and EVs during their usage cycle, by modeling their energy consumption (electricity or fuel) and the supply chains of the supplied energy, (well-to-wheel) based on a life cycle assessment. The results show that running EVs with the existing mixed sources of electrical energy produce larger impacts on the environment 60% of the time; when compared to HEVs. When compared to ICEVs, EVs produce a larger environmental impact on 7 out of 15 environmental impact categories. Overall the environmental impacts of EVs are substantial based on the well-to-wheel analysis. It will continue to be so if no change is made to the methods of electricity generation in the near future. Given that the environmental profile of EVs is linked with the existing national electricity generation mix, the national electricity supply must be made cleaner before the electrification of the urban transport system. [ABSTRACT FROM AUTHOR]

Based on the analysis and research achievements of domestic and foreign scholars regarding the vehicle life cycle assessment, in combination with the research data of relevant enterprises, the research has objectively assessed well to wheel energy efficiency of hydrogen fuel cell vehicle, and performed comparative analysis with conventional gasoline vehicle, conventional diesel vehicle, natural gas vehicle, methanol vehicle and battery electric vehicle. The research results show that the range of well to wheel energy efficiency of hydrogen fuel cell vehicle is between 6.8% and 29.2%, which depend much on the difference of source and transport mode of hydrogen, and the range covers several technical routes of vehicles other than battery electric vehicle which uses green electricity. The well to wheel energy efficiency under the scenario of hydrogen production from water electrolysis using renewable power such as photovoltaic and wind power is relatively high (21.9%–29.2%). The scenarios of hydrogen from methanol and grid power electrolysis are lower than other scenarios (6.8%–12.5%). The choice of hydrogen transportation mode is closely related to the distance between the production and use sites. For short and medium-distance, long-tube trailers can be used to transport gas hydrogen, and in the case of long-distance transportation, such as more than 800 km, the use of liquefaction or pipeline transportation can better ensure the energy efficiency advantage of hydrogen fuel cell vehicle. Nevertheless, for the same transport distance, the energy efficiency of well to wheel can be improved less effectively by increasing the hydrogen transportation capacity, and more effectively by improving the energy efficiency of the vehicle operation, the feedstock production and the hydrogen production. • HFCV WTW efficiency depends more on vehicle operation, feedstocks production, etc. • H 2 from Renewable energy has high efficiency, from grid or MeOH have less benefits. • H 2 transportation mode is closely related to the distance of production-use sites. [ABSTRACT FROM AUTHOR]

Abstract: Replacing petroleum fuels with biofuels such as ethanol and biodiesel has been shown to reduce greenhouse gas (GHG) emissions. These GHG benefits can potentially be traded in the fledgling carbon markets, and methodologies for quantifying and trading are still being developed. We review the main challenges in developing such carbon trading frameworks and outline a proposed framework for the US, the main features of which include, lifecycle assessment of GHG benefits, a combination of project-specific and standard performance measures, and assigning GHG property rights to biofuel producers. At carbon prices of 10 $ t−1, estimated monetary benefits from such trading can be 4.5 M$ hm−3 and 17 M$ hm−3 of corn ethanol and cellulosic ethanol respectively. [Copyright &y& Elsevier]

Abstract: The most well-known reason of global warming is equivalent carbon dioxide (CO2equ) emitted from fossil fuels combustion in on-road and off-road vehicles. An appreciable portion of off-road pollution is allocated to farm implements. All cited studies have shown that renewable based electric vehicles (EVs) decrease petroleum consumption and consequently reduce criteria emissions under nearly all circumstances. Considering this, a Solar Assist Plug-in Hybrid electric Tractor (SAPHT) was designed, constructed and evaluated. This research evaluated the life cycle analysis of SAPHT project and compared the results with that of an internal combustion engine tractor (ICET). The life cycle was analyzed based on economical cost and environmental emissions. The externality of environmental pollutions was calculated to derive the life-cycle costs (LCC). The results showed that substituting each ICET by SAPHT can prevent 14ton CO2equ emission to atmosphere annually. Also it prevents a high volume of other emissions such as CO, NO x and PM10 entering the atmosphere. LCC assessment emphasizes on economical effectiveness of SAPHT rather than ICET at any diesel fuel price, therefore, increasing fuel unit prices leads to more effectiveness. It is concluded that levelized cost of energy (LCE) in €/kWh for ICET is almost twice as that of SAPHT. Some of these advantages for SAPHT are offset in part by high purchase costs, heavy and massive batteries and low operating range. [ABSTRACT FROM AUTHOR]

The combined impacts of progressive urban planning and transit are shown to lead to a future higher fraction of commercial vehicles within cities. Personal cars have only been eliminated in European cities where there was an overriding financial reason. Clean personal vehicles will still play a role. Well-to-wheel analysis can be used to select technology and fuel options where hybridisation and biofuels are lower cost means of reducing greenhouse gases. Some options listed, natural gas, hydrogen and electric vehicles, are most easily implemented by centrally refuelled fleets resulting in a natural synergy with the growing faction of commercial vehicles within cities. Life cycle costing of commercial vehicles enables the selection of clean technologies using financial benefits from fuel savings and maintenance. The fuel savings from vehicle weight reduction are described. It is concluded that transportation greenhouse gas savings in cities can well exceed 40% with a combination of the factors discussed. [ABSTRACT FROM AUTHOR]

Interests in evaluating lifecycle energy use in urban transport have been growing as a research topic. Various studies have evaluated the relationship between the intracity transport energy use and population density and commonly identified its negative correlation. However, a diachronic transition in an individual city has yet to be fully analyzed. As such, this study employed transport energy intensity widely used for evaluating transport energy efficiency and obtained the transport energy intensity for each transportation means including walk, bicycle, automobile (conventional vehicles, electric vehicles, hybrid vehicles, and fuel cell vehicles), bus and electric train by considering the lifecycle energy consumption. Then, the intracity lifecycle transport energy intensity of 38 cities in Japan in 1987–2015 was computed, assuming that the cause of diachronic transition of intracity transport energy efficiency is the modal shifting and electricity mix change. As a result, the greater level of population density was associated with the lower intracity transport energy intensity in Japanese cities. The negative slope of its regression line increased over time since the intracity lifecycle transport energy intensity in cities with low population density continuously increased without any significant change of population density. Finally, this study discussed the strategic implications particularly in regional areas to improve the intracity lifecycle transport energy efficiency. [ABSTRACT FROM AUTHOR]