EFFICIENT URBAN FREIGHT BEST PRACTICES

This guide, published by RMI and the Ministry of Housing and Urban Affairs (MoHUA), provides a comprehensive framework for improving urban freight efficiency. It identifies key performance indicators (KPIs) to monitor logistics performance, details best practices for reducing congestion and emissions, and offers a policy workbook for municipal authorities to implement data-driven planning and stakeholder engagement.

• Urban freight efficiency can be improved through strategic industrial planning that designates regional manufacturing and industrial centers (MICs) outside dense residential areas. This approach, exemplified by Seattle's Vision 2040 and Delhi's Master Plan Vision 2021, keeps heavy truck traffic on infrastructure capable of handling high volumes and away from urban roads.
• To reduce through-freight—goods neither produced nor consumed in a city—policymakers can implement bypasses, ring roads, or modal shifts. For example, the Alameda Corridor in Los Angeles eliminated approximately 12 million truck trips per year by replacing at-grade branch lines with a high-capacity below-grade rail line, while the Port of Rotterdam shifts nearly 40% of containers to inland waterways.
• Selective relaxation of weight limits and the promotion of night-time deliveries can reduce the number of trips and overall logistics costs. In Barcelona, allowing 40-ton trucks to make night-time deliveries replaced seven daytime trips by medium trucks, resulting in a payback period of one and a half to three years for modified noise-reducing trucks.
• Logistics density can be increased through the development of logistics parks and urban consolidation centers (UCCs). While UCCs in Europe have shown weight-based load factor increases (e.g., from 45% to 70% in Freiburg), many closed after subsidies expired due to added complexity. Conversely, private sector collaborative warehousing can reduce transportation costs by 25–30%.
• Delivery productivity is hindered by insufficient parking and unloading infrastructure. Barcelona addressed this by mandating off-street loading in building codes and creating multi-use lanes that serve as freight loading zones during the workday, reducing truck travel times by 12–15%.
• Intelligent Transportation Systems (ITS) and congestion pricing can optimize routing and reduce delays. In London, a congestion charge led to a 20% drop in traffic in the zone, while commercial vehicle travel volume remained constant, increasing its share of total traffic from 17% to 20%.
• To mitigate truck-related casualties and emissions, cities can implement hierarchical road networks, low-emission zones (LEZs), and access incentives for zero-emissions vehicles. Shenzhen promotes electric trucks by allowing them 24-hour access to most urban roads, while diesel vehicles remain subject to daytime entry bans.
• Effective urban freight management requires a data-driven approach combining GPS logs, business registrations, surveys, and manual counts. The document highlights the 'gold standard' French Urban Goods Movements surveys, which use a multi-stage methodology to calibrate simulation tools like FRETURB.
• Funding for urban logistics infrastructure can be achieved through Public-Private Partnerships (PPP), project finance, and value capture. Examples include the CREATE program in Chicago, which used a PPP to fund rail projects, and the Alameda Corridor, which uses a $48 per container fee to service debt.

APA

Mullaney, D., Shiledar, S., Ghate, A., & Stranger, C. (2019). EFFICIENT URBAN FREIGHT BEST PRACTICES. RMI. https://rmi.org/wp-content/uploads/2019/07/rmi-efficient-urban-freight.pdf

Chicago

Mullaney, Dave, Samhita Shiledar, Akshima Ghate, and Clay Stranger. EFFICIENT URBAN FREIGHT BEST PRACTICES. RMI, 2019. https://rmi.org/wp-content/uploads/2019/07/rmi-efficient-urban-freight.pdf.

Wikipedia

{{cite report |last1=Mullaney |first1=Dave |last2=Shiledar |first2=Samhita |last3=Ghate |first3=Akshima |last4=Stranger |first4=Clay |title=EFFICIENT URBAN FREIGHT BEST PRACTICES |publisher=RMI |date=2019 |url=https://rmi.org/wp-content/uploads/2019/07/rmi-efficient-urban-freight.pdf |access-date=17 August 2026 |via=Climate Insights Directory}}

BibTeX

@techreport{mullaney2019efficient, author = {Mullaney, Dave and Shiledar, Samhita and Ghate, Akshima and Stranger, Clay}, title = {{EFFICIENT URBAN FREIGHT BEST PRACTICES}}, institution = {RMI}, year = {2019}, url = {https://rmi.org/wp-content/uploads/2019/07/rmi-efficient-urban-freight.pdf}, urldate = {2026-08-17}, note = {Indexed by Climate Insights Directory} }