Potential of e-bikes to replace passenger car trips and reduce greenhouse gas emissions

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Abstract

In Sweden, the transport sector accounts for 32% of greenhouse gas emissions, with passenger cars contributing to 62% of these. In this context, electric bikes, commonly known as e-bikes, have emerged as a promising solution for reducing carbon emissions in the transport sector. This paper explores the potential of e-bikes in substituting passenger car trips and reducing transportation-related emissions. To achieve this objective, we use a synthetic population in the Västra Götaland (VG) region, Sweden, with daily activity schedules and simulate an average weekday of travelling with e-bikes instead of their private cars. For assessing the potential for e-bike substitution, the current literature often relies on trip-level analysis, which does not adequately consider people’s daily travel-activity plans, resulting in an unrealistic estimation of replaceable trips and their carbon emissions reduction. Combining an e-bike speed model by agents’ characteristics and an open-source routing engine, our simulation identifies potential car trips that can be replaced with e-bikes, considering all activities and the travel between them for an average weekday. The simulation results suggest that e-bikes could replace 57.6% of car trips. Building on this, we explore the potential reduction in greenhouse gas emissions from car trips taken by residents in the study area. If the top 70% of feasible car users, ranked by shortest to longest daily travel distances, switch to e-bikes, emissions could be reduced by 10.1% compared to 2018 levels. If all feasible car users adopt e-bikes, a reduction of up to 22.8% in emissions could be achieved, representing the upper limit presented by our study. The findings also reveal that males under 40 years old provide the highest e-bike substitution rates in their daily activity schedules, and in areas with a high population density, replaceable car trips are more common than in rural areas. This research provides valuable insights into e-bike substitution and its impact on emission reduction. It contributes to the existing literature through its modelling approach that realistically considers individuals’ socio-demographic characteristics and daily activity schedules when assessing the substitution potential.

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电动自行车替代乘用车出行和减少温室气体排放的潜力
在瑞典,交通部门的温室气体排放量占 32%,其中乘用车占 62%。在这种情况下,电动自行车(俗称电动自行车)已成为减少交通部门碳排放的一种有前途的解决方案。本文探讨了电动自行车在替代乘用车出行和减少交通相关排放方面的潜力。为了实现这一目标,我们在瑞典韦斯特拉戈塔兰(VG)地区使用了一个具有日常活动时间表的合成人口,并模拟了一个使用电动自行车代替私家车出行的平均工作日。为了评估电动自行车的替代潜力,目前的文献通常依赖于出行层面的分析,这种分析没有充分考虑人们的日常出行活动计划,导致对可替代出行及其碳减排量的估算不切实际。我们的模拟结合了电动自行车速度模型和开放源码路由引擎,考虑到一个普通工作日的所有活动和活动之间的出行,确定了可以用电动自行车替代的潜在汽车出行。模拟结果表明,电动自行车可替代 57.6% 的汽车出行。在此基础上,我们探讨了研究区居民汽车出行可能减少的温室气体排放量。如果前 70% 的可行汽车用户(按最短到最长的每日出行距离排序)改用电动自行车,与 2018 年的水平相比,排放量可减少 10.1%。如果所有可行的汽车用户都采用电动自行车,则排放量最多可减少 22.8%,这是我们研究提出的上限。研究结果还显示,40 岁以下的男性在日常活动中使用电动自行车的替代率最高,在人口密度高的地区,可替代的汽车出行比农村地区更为普遍。这项研究为电动自行车替代及其对减排的影响提供了宝贵的见解。该研究的建模方法在评估替代潜力时真实地考虑了个人的社会人口特征和日常活动安排,为现有文献做出了贡献。
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