Development of a Transportation Real-Time Technology Readiness Framework

Cantor, David E.; Hawkins, Neal; Foster, Neal · 2017 · ROSA P / Midwest Transportation Center

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Summary

This study addresses the lack of understanding regarding the motor carrier industry’s readiness to utilize real-time traffic operations data for commercial freight routing. While substantial investment has been made in state Traffic Operations Centers (TOCs), such as Iowa’s, little attention has been paid to how carriers collect, monitor, and route traffic based on real-time conditions. The research was motivated by the significant safety and financial impacts of traffic congestion, which cost the trucking industry approximately $49.6 billion annually in delays, and the potential for real-time data to mitigate these issues by enabling proactive rerouting away from congestion and hazards. To assess this readiness, the researchers developed a proof-of-concept technology framework through a qualitative study involving interviews with a diverse sample of motor carriers, including van, temperature-controlled, flatbed, and intermodal operators, as well as third-party logistics providers. The methodology involved a four-step process: reviewing existing literature, developing open-ended interview questions in consultation with academic and industry experts, and conducting 30-minute interviews between May and July 2016. The questions focused on transportation technologies, organizational practices, freight management processes, and predictive analytics to identify business, technical, and regulatory challenges associated with integrating real-time data feeds. The findings reveal that while the industry is increasingly technology-sophisticated, adoption is uneven, with large carriers possessing advanced Transportation Management Systems (TMS) and small carriers relying on mobile devices. Carriers identified several benefits of real-time data, including improved safety, operational efficiency, and financial gains by avoiding congestion-related delays and fines. However, significant barriers exist, including the need for nationwide data availability rather than state-specific feeds, and the requirement for open-access Application Programming Interface (API) standards to integrate data into existing platforms like Omnitracs or PeopleNet. The study also highlighted critical concerns regarding driver distraction, suggesting that audio notifications or road signs may be preferable to visual alerts. Additionally, carriers expressed a strong need for integrated parking availability information to help drivers comply with Hours of Service (HOS) regulations, noting that current parking scarcity exacerbates capacity and retention issues. The significance of this research lies in its development of a framework that outlines the specific data types carriers require and the challenges they face in integration. The authors conclude that real-time data, when combined with in-cab technologies and centralized IT capabilities, can yield substantial safety and operational benefits. They recommend that state Departments of Transportation collaborate with neighboring states to create nationwide data standards, form coalitions with industry leaders, and pilot real-time technology solutions. Furthermore, the study suggests that financial cost-benefit analyses and formal partnerships with technology vendors are necessary to market these services effectively, ultimately aiming to reduce congestion, improve driver retention, and enhance supply chain reliability.

Key finding

Carriers identified real-time traffic data integration with in-cab technology and electronic logbooks as a critical need to mitigate congestion-related delays, improve driver retention, and enhance safety through better route planning and parking availability.

Methodology

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Provenance

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