Exploring best practice for municipal e-scooter policy in the United States
Introduction
In 2017, electric scooters (e-scooters) began appearing in cities around the United States. Companies rushed to enter the market and get their vehicles on the streets, even though there were no regulations or permit requirements in place. While these platforms (which are sometimes referred to as micromobility) were viewed favorably by many as a new means of transportation, others soon viewed them as a nuisance with reports that scooters were blocking sidewalks, getting thrown in trash cans, and causing injuries (Levin, 2018). The private e-scooter companies such as Bird, Lime, Skip and Scoot all operated with similar business models (Clewlow, 2018). Specifically, each company sought to distribute their fleets across a city (with or without city authorization) and encouraged individuals use smartphone applications to gain access and use their scooters. Riders were then charged a fee to ride – typically, a $1.00 flat rate plus $0.15 per minute.
By summer 2018, many cities started investigating ways of regulating e-scooters. Cities began implementing a variety of regulatory measures: establishing permit requirements for operators to deploy their vehicles; issuing Request for Proposals (RFPs) for companies to operate vehicles under temporary pilot programs to study the use of scooters; and in some cases, issuing moratoriums or outright bans on the deployment and use of scooters.
Since this trend is quite recent, literature and review of the benefits and impacts of e-scooters has been limited. Moreover, many cities were caught off guard by the rapid deployment of e-scooters in 2018 without any policy in place dictating how scooters could be deployed similar to the way many cities were blindsided by ridesharing services and the transition to using digital technology for urban planning and transportation services (Aarian, 2018, Levin, 2018, Riggs, 2018, Riggs, 2016, Riggs and Gordon, 2015). In response, some cities chose to place outright bans on the rollout of e-scooter services (Fang & Agrawal, 2018). Scooters, however, offer a variety of benefits to users and to cities by giving access to travelers making short or last mile trips. For instance they (along with other forms of micromobility like docked and dockless bicycles) are believed to be a potential solution to addressing “the first and last mile issue” (Clewlow, 2018, Fang and Agrawal, 2018, McKenzie, 2019).
This concept connotes that scooters can help individuals connect readily with other transportation options. For instance, scooters can be used to replace a short vehicle trip from a prospective rider’s home to their local transit station. Similarly, instead of taking Uber or Lyft ride from the station to the workplace, an individual can use a scooter instead. These potential scenarios are supported by data that suggests that the majority of trips made via automobile in the US are short – in fact, 45% of trips in the US are under 3 miles in length, with the majority of those taken by single individuals (Clewlow and Mishra, 2017, Zarif and Kelman, 2019). Research shows that micromobility services can help address this issue and expand transportation options for people and that these services have had efficacy even during the 2020–2021 pandemic (Clewlow, 2018, Riggs and Appleyard, 2020, Riggs and Shukla, 2020).
Another potential benefit of scooters is their small physical footprint; especially compared to cars they require very little space for storage and parking; although there has been some debate over the how (particularly dockless) microbiology services can be parked in a manner safe to other roadway or sidewalk users (Brown et al., 2020). This could potentially free up some valuable real estate space for cities, which could then be used for other purposes. Other less-known and less-certain benefits include reductions in single occupancy vehicle (SOV) trips and a reduction in greenhouse gas emissions (GHGs); however, there is debate about this due to the fact that scooters need to be charged and redistributed. Often times, this is performed by someone moving the scooters around in a car or truck, therefore negating the total climate benefits of scooter trips (Riggs, 2019).
In this context, it is important for cities to develop policy to mitigate and prevent negative impacts associated with scooters such as blocking access on sidewalks while at the same time also capturing some of the benefits that scooters provide. Based on the limited body of research and understanding on this subject, this study seeks to provide a baseline understanding of how cities are addressing this issue from a policy perspective. While other work has attempted to benchmark this policy (Anderson-Hall et al., 2019) this work seeks to look at best practice. We identify 183 cities with some type of scooter, e-scooter or micromobility policy and classify data for sample of 61 of these cities to look for commonalities and best practice. The authors do a deep dive into equity questions, attempting to address whether mobility providers adhere to these policies, whether they achieve their goals, and propose additional policies that might enhance equity. We do find commonalities around the implementation of pilot programs, including policies on vendor limits or caps and discussions of equity. We also provide a deeper dive on equity programs and how they achieve goals and can be better connected to multimodal planners for all travelers. Ultimately, this may help cities develop more effective policy.
Section snippets
Background
The integration of disruptive transportation is happening ever more quickly in our cities (Riggs, 2019, Riggs and Beiker, 2020). Companies such as Bird, Lime and Spin offer first and last mile solutions to individuals in an easy, convenient way, through the touch of an app (Aarian, 2018). Bird, for example, has over $115 million in funding and has place over 1,600 scooters in San Francisco. The company “gave more than 95,000 rides to 32,000 different people in just its first 30 days of service
Methodology
This evaluation seeks to identify what cities are doing from a policy and regulatory perspective, if anything, to regulate the use and deployment of e-scooters. The evaluation aligns with the increasing body of work aimed at identifying best practices policies to facilitate and minimize the negative externalities from new and disruptive transportation innovations as they are deployed (Riggs, 2019). To guide the scope of the evaluation, and identify potential obstacles in the analysis, a logic
Pilot programs
Many cities have implemented pilot programs to study the effects and use of e-scooters before implementing a permanent permitting system. Results from the study sample found that 54% (33 municipalities) had a pilot program in place or had previously implemented a pilot program. Approximately 46% (28 municipalities) of the study sample had not implemented pilot programs to study the use of e-scooters within the community (Fig. 3), although they had established micromobility / e-scooter policy.
Discusssion
As seen in the data there has been a high degree of consistency in some areas of e-scooter policy, for example the use of cautious pilot deployments and the use of fleet caps to regulate their proliferation among many vendors competing for users, yet there have also been notable places where policies vary widely. Most notably this variance is in the area of equity policy and efforts to spatially distribute scooter resources through a city. While vendors have argued that fleet caps limit the
Conclusion
As illustrated by our results, there are distinct trends in how cities are regulating e-scooters and implementing policy. Many are implementing caps on the number of scooters allowed, and many are attempting to establish equity policy to make sure that these forms of mobility meet those who need it most. At the same time, many cities still may be evaluating their approach to new forms of disruptive mobility more broadly. Results indicate that there may not be a “one-size fits all” approach to
Credit authorship contribution statement
William Riggs: Conceptualization, Writing - original draft, Writing - review & editing, Investigation, Visualization, Supervision. Matt Kawashima: Conceptualization, Writing - original draft, Investigation, Visualization, Supervision. David Batstone: Writing - review & editing.
Declaration of Competing Interest
The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.
References (34)
- et al.
What influences travelers to use Uber? Exploring the factors affecting the adoption of on-demand ride services in California
Travel Behaviour and Society
(2018) - et al.
Impeding access: The frequency and characteristics of improper scooter, bike, and car parking
Transportation Research Interdisciplinary Perspectives
(2020) - et al.
Chapter Five—Transport Policy in the Era of Ridehailing and Other Disruptive Transportation Technologies
- et al.
Micromobility evolution and expansion: Understanding how docked and dockless bikesharing models complement and compete – A case study of San Francisco
J. Transp. Geogr.
(2020) Spatiotemporal comparative analysis of scooter-share and bike-share usage patterns in Washington, D.C
J. Transp. Geogr.
(2019)The Love of the People Isn’t Enough to Keep Shared Electric Scooters Rolling
Wired Magazine.
(2018)- et al.
Governing Micro-Mobility: A Nationwide Assessment of Electric Scooter Regulations
Transportation Research Board 98th Annual MeetingTransportation Research Board
(2019) - Brustein. (2018). Electric Scooters Are Giving U.S. Cities Uber Déjà Vu. Bloomberg....
- Bry, B. (2019). Micromobility Regulation Recommendations Memo....
- Circella, G., Fulton, L., Alemi, F., Berliner, R. M., Tiedeman, K., Mokhtarian, P. L., & Handy, S. (2016). What Affects...