Implementing SUM services in rural areas requires significant attention to technology and infrastructure challenges. Rural regions often face limited cellular and broadband connectivity, outdated infrastructure, and scattered populations that make it difficult to deliver modern transportation services effectively. Overcoming these technological barriers is essential for SUM services to succeed in providing improved mobility options for rural residents, including those with limited access to personal vehicles. This chapter focuses on identifying the critical infrastructure improvements, technology integration, and operational strategies needed to support SUM services in rural communities.
Addressing the technology and infrastructure challenges is crucial for the sustainability and scalability of SUM services in rural areas. Reliable cellular and broadband coverage is essential for effective service delivery, enabling communication between riders and providers, as well as real-time scheduling and route optimization. Moreover, rural road conditions can impact vehicle performance and service reliability, requiring investments in roadway infrastructure. Ensuring that rural areas have the necessary technological support and infrastructure helps create access to transportation and enhances the quality of life for residents.
In rural areas, gaps in smartphone ownership and access to reliable cellular and broadband coverage are common challenges that can limit customer access to SUM services. To mitigate these issues, it is crucial to provide supplemental assistance that helps ensure accessibility for all customers. One effective strategy is offering travel training programs that teach residents how to use the technology associated with SUM services, including mobile apps, web-based tools, and other technology platforms. Additionally, establishing central coordination centers that handle phone calls and scheduling is essential for users in low-internet or poor cellular service areas. These centers can provide human-assisted trip booking services, ensuring that even those without internet access can still use SUM services.
To enhance customer access, it is important for SUM service partners to offer human or automated telephone-operated scheduling systems. These systems enable rural customers to connect to SUM services, facilitating dynamic scheduling queries similar to those available through smartphone applications. By incorporating telephonic scheduling options, agencies can ensure that customers in areas with limited internet access can still participate in SUM services and receive up-to-date trip information.
BCGo by Battle Creek Transit
Battle Creek Transit
BCGo successfully utilized existing cellular infrastructure to provide on-demand microtransit services, addressing transportation gaps in rural and low-density areas. By relying on available technology, BCGo expanded mobility options for residents who previously lacked access to reliable transportation. This case highlights the importance of utilizing existing infrastructure to bridge the connectivity gap and offer more inclusive transportation solutions in rural communities. The success of BCGo underscores how effective integration of technology and infrastructure can enable the scalability and sustainability of SUM services to enable real-time ride hailing and route optimization.
Agencies can explore opportunities for partnerships and funding aimed at improving customer connectivity, particularly for populations who may lack access to smartphones or internet services. Various federal and state funding programs, such as the FTAʼs Section 5310 and 5311 grants, provide resources for improving mobility options in rural and underserved communities. These programs can be used to support initiatives like providing smartphones or subsidized internet services to ensure that disadvantaged populations can access the technology necessary for SUM services.
In areas with limited cellular or broadband coverage, agencies can consider implementing human or automated telephone-operated scheduling systems, similar to those used in urban areas with better connectivity. These systems enable rural residents to schedule trips and receive real-time service information without requiring internet access or smartphones. Public-private partnerships with telecommunications companies can also be explored, where service providers invest in expanding network infrastructure or offer reduced-cost services as part of a regional initiative to improve connectivity.
Agencies may also establish service centers where staff can assist residents with trip planning and booking, providing an alternative means to access SUM services. This can be particularly beneficial in communities with persistent connectivity challenges. By leveraging these funding sources and partnerships, agencies can bridge the digital divide and ensure that connectivity gaps do not prevent rural residents from accessing essential transportation services. These solutions contribute to greater inclusivity, helping ensure that all community members, regardless of their technological access, can benefit from the transportation options available through SUM services.
Michigan DOT MaaS Platform
Michigan DOT has taken significant steps in enhancing customer access through the development of a mobility as a service (MaaS) platform, which integrates application programming interfaces between the software platforms of three different rural transit agencies. This platform enables rural transit agencies to connect their scheduling software, allowing users to book rides seamlessly between providers making it easier for residents to plan and complete trips. The potential for this platform to expand statewide, leveraging data connectivity across various agencies, demonstrates how technology can greatly enhance SUM services, creating a more seamless mobility experience in rural regions.
One of the key operational challenges for SUM services in rural areas is the lack of consistent cellular and broadband coverage. In areas with limited or no reception, customers may struggle to make trip reservations or cancellations, and service providers face difficulties in using GPS to track vehicle locations and find pickup addresses. These coverage issues can disrupt the reliability and efficiency of SUM services, necessitating the implementation of backup communication options for dispatching. This may include the use of radio communication, hardline telephones, or offline scheduling systems to ensure that services continue uninterrupted, even in areas with poor connectivity.
Another significant challenge is scaling on-demand service models to fit the specific needs of rural areas. In urban settings, on-demand services often operate with shorter wait times and tight scheduling windows, but in rural regions, longer wait times are more practical due to larger distances between stops and fewer available vehicles. For example, a 30-minute wait time with buffers between appointments could be more reasonable in some rural areas to meet service demand effectively. By adjusting service models to account for rural logistics, agencies can offer more reliable and predictable transportation for customers while ensuring that vehicles and staff are utilized efficiently.
In many rural areas, the physical infrastructure of the roadways presents additional challenges. The condition of the roads, compounded by the layout of the roadway network, can significantly affect the ability of SUM services to operate smoothly. Roads in a poor state of repair may delay travel times, increase vehicle maintenance needs, and pose safety risks. To overcome these challenges, agencies should develop routing considerations and select appropriate vehicle equipment designed to handle the unique conditions of rural roadways. This could involve using more rugged vehicles, optimizing routes to avoid problematic areas, and coordinating with local governments on roadway improvements to support more efficient service delivery.
A key aspect of improving SUM services in rural areas involves maintaining an inventory of connectivity needs to help prioritize investments in expanding cell phone access and internet connectivity. Both public and private sectors should be engaged in addressing these gaps. States can leverage major infrastructure projects, such as road and bridge construction, as opportunities to include provisions for upgrading cellular and internet services. By integrating connectivity improvements into these large-scale projects, approval processes can incorporate the expansion of broadband and cellular networks, ensuring that rural areas benefit from enhanced communication infrastructure as part of broader development initiatives.
The scalability of SUM services in lower-density, rural communities is more likely when financing for SUM partnerships is coordinated alongside investments in supporting infrastructure, such as broadband and active mobility projects. For example, building separate bicycle lanes and improving broadband access can increase the viability and appeal of SUM services utilizing those features, making them more accessible and attractive to a wider range of users. Infrastructure upgrades for SUM services can often “piggyback” on other major events or development projects happening in the region, maximizing the impact of funding and ensuring that improvements in transportation, communication, and mobility infrastructure occur concurrently. This coordination creates a more integrated and supportive environment for SUM services to thrive.
Scalability of technology and infrastructure improvements is a key factor in the success of SUM services in rural areas, where sparse populations and limited infrastructure present unique challenges. To ensure that SUM services can scale effectively, it is essential to adopt flexible technological solutions that can be adapted to varying levels of demand. For example, scalable technology platforms such as ridehailing apps, GPS tracking systems, and dynamic scheduling tools allow agencies to optimize service delivery in both low- and high-demand scenarios. These platforms can be expanded to accommodate more vehicles, additional routes, or new services without requiring significant overhauls to the system.
Infrastructure improvements also play a critical role in scalability. Rural areas often face barriers such as poor broadband connectivity or limited cellular networks, which can hinder the adoption of SUM services. However, by leveraging existing infrastructure and forming partnerships with telecommunications companies, agencies can make targeted investments in expanding broadband and cellular networks. These infrastructure improvements not only support the operation of SUM services but also provide long-term benefits for the broader community by enhancing digital access. Additionally, modular improvements like expanding vehicle fleets and installing charging stations for electric vehicles can be scaled incrementally as service demand grows.
Replicability is equally important for expanding technological and infrastructure solutions to other rural areas. SUM models that have successfully integrated technology and infrastructure improvements in one region can be replicated in other rural regions with similar characteristics. By documenting best practices, such as integrating cellular infrastructure with on-demand microtransit or employing data-driven tools like trip planners, agencies can adapt successful models to new contexts while retaining core technological features. This approach ensures that SUM services remain adaptable to different geographic, demographic, and economic conditions, creating a scalable and replicable transportation network that meets the mobility needs of rural residents across a broad range of communities.
The agreement templates described in Appendix B provide essential support for addressing technology and infrastructure needs in SUM services. Templates such as the RFIs and RFPs enable agencies to specify technical and infrastructure requirements when selecting vendors,
ensuring compatibility with rural connectivity and operational challenges. The Service Agreement templates formalize partnerships with vendors, detailing requirements for technology integration, such as APIs for scheduling systems or data-sharing protocols. Additionally, the Intergovernmental Agreement template facilitates collaboration between agencies to coordinate infrastructure investments like broadband expansion or shared-use facilities, which are critical for rural SUM services.
The Implementation Checklist described in Appendix C offers important considerations related to technology and infrastructure needs (for example, Step 1: Goal Setting suggests an assessment of technology comfort and access among passenger groups).