Research Topic: The Final 50 Feet of the Urban Goods Delivery System
The Urban Freight Lab coined the term “Final 50 Feet” and defined it as the supply chain segment that begins when a delivery vehicle pulls into a parking space and stops moving — in public load/unload spaces at the curb or in an alley, or a building’s loading dock or internal freight bay. It tracks the delivery process inside buildings and ends where the customer takes receipt of their goods. This research analyzes processes, develops potential solutions, and tests operational improvements in the final segment of the urban goods delivery system.
Exploring the Sustainability Potential of Urban Delivery Microhubs and Cargo Bike Deliveries
Micro-consolidation implementations and pairing with soft transportation modes offer practical, economic, environmental, and cultural benefits. Early implementations of micro consolidation practices were tested but cities need to understand their implications in terms of efficiency and sustainability.
This study includes a research scan and proposes a typology of micro-consolidation practices. It focuses on assessing the performance of microhubs that act as additional transshipment points where the packages are transported by trucks and transferred onto e-bikes to complete the last mile.
The purpose of the study is to assess the performance of delivery operations using a network of microhubs with cargo logistics and identify the conditions under which these solutions can be successfully implemented to improve urban freight efficiencies and reduce emissions. The performance is evaluated in terms of vehicle miles traveled, tailpipe CO2 emissions, and average operating cost per package using simulation tools.
Şeyma Güneş and Anne Goodchild (2022). Exploring the Sustainability Potential of Urban Delivery Microhubs and Cargo Bike Deliveries. 9th International Urban Freight Conference (INUF), Long Beach, CA May 2022.
Year Two Progress Report: Technology Integration to Gain Commercial Efficiency for the Urban Goods Delivery System, Meet Future Demand for City Passenger and Delivery Load/Unload Spaces, and Reduce Energy Consumption
The objectives of this project are to develop and implement a technology solution to support research, development, and demonstration of data processing techniques, models, simulations, a smart phone application, and a visual-confirmation system to:
- Reduce delivery vehicle parking seeking behavior by approximately 20% in the pilot test area, by returning current and predicted load/unload space occupancy information to users on a web-based and/or mobile platform, to inform real-time parking decisions
- Reduce parcel truck dwell time in pilot test areas in Seattle and Bellevue, Washington, by approximately 30%, thereby increasing productivity of load/unload spaces near common carrier locker systems, and
- Improve the transportation network (which includes roads, intersections, warehouses, fulfillment centers, etc.) and commercial firms’ efficiency by increasing curb occupancy rates to roughly 80%, and alley space occupancy rates from 46% to 60% during peak hours, and increasing private loading bay occupancy rates in the afternoon peak times, in the pilot test area.
The project team has designed a 3-year plan to achieve the objectives of this project.
In Year 1, the team developed integrated technologies and finalized the pilot test parameters. This involved finalizing the plan for placing sensory devices and common parcel locker systems on public and private property; issuing the request for proposals; selecting vendors; and gaining approvals necessary to execute the plan. The team also developed techniques to preprocess the data streams from the sensor devices, and began to design the prototype smart phone parking app to display real-time load/unload space availability, as well as the truck load/unload space behavior model.
In Year 2, the team executed the implementation plan:
- oversaw installation of the in-road sensors, and collecting and processing data,
- managed installation, marketing and operations of three common locker systems in the pilot test area,
- tested the prototype smart phone parking app with initial data stream, and
- developed a truck parking behavior simulation model.
Urban Freight Lab (2021). Year Two Progress Report: Technology Integration to Gain Commercial Efficiency for the Urban Goods Delivery System.
A Mobile Application for Collecting Task Time Data for Value Stream Mapping of the Final 50 Feet of Urban Goods Delivery Processes
Delivery options have become very diverse with online shoppers demanding faster delivery options (e.g, 2-day delivery, same day delivery options) and more personalized services. For this reason, transportation planners, retailers, and delivery companies are seeking ways to better understand how best to deliver goods and services in urban areas while minimizing disruption to traffic, parking, and building operations. This includes understanding vertical and horizontal goods movements within urban areas.
The goal of this project is to capture the delivery processes within urban buildings in order to minimize these disruptions. This is achieved using a systems approach to understanding the flow of activities and workers as they deliver goods within urban buildings. A mobile application was designed to collect the start and stop times for each task within the delivery process for 31 carriers as they deliver goods within a 62-story office building.
The process flow map helped identify bottlenecks and areas for improvements in the final segment of the delivery operations: the final 50 feet. It also highlighted consistent tasks conducted by all carriers as well as differences with given carrier type. This information is useful to help decision-makers plan appropriately for the design of future cities that encompass a variety of delivery processes.
Kim, Haena, Linda Ng Boyle, and Anne Goodchild. (2018) "A Mobile Application for Collecting Task Time Data for Value Stream Mapping of the Final 50 Feet of Urban Goods Delivery Processes." In Proceedings of the Human Factors and Ergonomics Society Annual Meeting, 62(1), 1808–1812. https://doi.org/10.1177/1541931218621410
NYC Zero-Emission Freight and Green Loading Zone Market Research
(This project is being conducted under the Urban Freight Lab’s (UFL) Technical Assistance Program, where UFL contributes to the project by providing 1:1 match funds in terms of staff and/or research assistants to complete project tasks.)
This project is focused on conducting targeted freight industry market research to identify strategies that can support charting a pathway to zero-emission freight strategies for New York City by 2050 and identify the associated roadblocks/barriers to entry.
Partner Organization: New York City Department of Transportation
Project Goals:
- Understand the interests and concerns of freight industry and private sector stakeholders to enable collaboration and inform the development of NYC DOT’s Green Loading Zone pilot
- Actively engage NYC freight stakeholders to identify the greatest likelihood of accelerating the uptake and greater efficiency for zero-emission trucks.
- Improve NYC DOT’s understanding of the obstacles and roadblocks that impact progress towards achieving zero emissions urban freight in NYC.
Summary of Project Tasks:
Task 1: Research Scan
Review national and international best practices on zero-emission urban freight, and identify new and existing strategies that support achieving zero-emission freight in NYC, with a particular focus on loading zone and curb management.
Task 2: Market Research Survey Design
Develop a short survey for stakeholders (freight industry, consumer brands and parcel carriers, etc. serving NYC area) to better understand the potential scale, siting, and contextual implementation of the Green Load Zone (GLZ) pilot. The survey will collect data on:
- current trends and future estimations about the use of “green” vehicle fleet
- barriers and opportunities with prevailing market conditions
- key drivers and constraints for stakeholders
- needs, motivation and role of each stakeholder involved
Task 3: Freight Industry Market Research and Stakeholder Engagement
Distribute the survey, and summarize and synthesize survey findings. Findings will help NYCDOT:
- understand the interests and concerns of freight industry and other private stakeholders around the use of GLZs
- identify potential GLZ users and accelerate the uptake of it
- make informed decisions about implementation of the GLZ pilot
- chart a pathway to achieving zero-emission freight in NYC
Task 4: Final Report
Provide a final report to NYCDOT.
Urban Freight: Transitions and Opportunities
Can Real-Time Curb Availability Information Improve Urban Delivery Efficiency?
Parking cruising is a well-known phenomenon in passenger transportation, and a significant source of congestion and pollution in urban areas. While urban commercial vehicles are known to travel longer distances and to stop more frequently than passenger vehicles, little is known about their parking cruising behavior, nor how parking infrastructure affects such behavior.
In this study, we propose a simple method to quantitatively explore the parking cruising behavior of commercial vehicle drivers in urban areas using widely available GPS data, and how urban transport infrastructure impacts parking cruising times.
We apply the method to a sample of 2900 trips performed by a fleet of commercial vehicles, delivering and picking up parcels in downtown Seattle. We obtain an average estimated parking cruising time of 2.3 minutes per trip, contributing on average for 28 percent of total trip time. We also found that cruising for parking decreased as more curb-space was allocated to commercial vehicles load zones and paid parking and as more off-street parking areas were available at trip destinations, whereas it increased as more curb space was allocated to bus zone.
Giacomo Dalla Chiara, Klaas Fiete Krutein, and Anne Goodchild (2022). Can Real-Time Curb Availability Information Improve Urban Delivery Efficiency? 9th International Urban Freight Conference (INUF), Long Beach, CA May 2022.
Urban Goods Delivery Toolkit
This Toolkit is designed to help transportation professionals and researchers gather key data needed to make the Final 50 Feet segment function as efficiently as possible, reducing both the time trucks park in load/unload spaces and the number of failed first delivery attempts.
In addition, the toolkit can help transportation planners, traffic engineers, freight system managers, parking and operations strategists, and researchers build a fundamental knowledge base for planning; managing parking operations; managing emergency management and response; updating traffic, land use and building codes; and modeling future scenarios and needs.
In short, the toolkit can be used to help cities meet the ever-increasing demand for trucks and other load/unload activities.
Urban Freight Lab. (2020) Urban Goods Delivery Toolkit. https://depts.washington.edu/toolkit
From the Last Mile to the Last 800 Feet: Key Factors in Urban Pick-Up and Delivery of Goods
Pickup and delivery operations are an essential part of urban goods movements. However, rapid urban growth, increasing demand, and higher customer expectations have amplified the challenges of urban freight movement. In recent years, the industry has emphasized improving last-mile operations with the intent of focusing on what has been described as the last leg of the supply chain. In this paper, it is suggested that solving urban freight challenges requires an even more granular scale than the last mile, that is, the last 800 ft. The necessary operations in the last 800 ft require integration of diverse stakeholders, public and private infrastructure, and a diverse set of infrastructure users with multiple, varied objectives. That complexity has led to a gap in the needs of delivery operations and the characteristics of receiving facilities (i.e., unloading and loading facilities and pickup–drop-off locations). This paper focuses on accessibility for pickup and drop-off operations, taking a closer look at urban goods movement in the last 800 ft from the final customer. The paper presents and analyzes previously documented approaches and measures used to study the challenges at the proposed scale. Finally, it proposes a more holistic approach to address accessibility for urban pickup–delivery operations at the microscale to help develop more comprehensive urban freight transportation planning.
Butrina, Polina. Gabriela Del Carmen Girón-Valderrama, José Luis Machado-León, Anne Goodchild, and Pramod C. Ayyalasomayajula. From the Last Mile to the Last 800 ft: Key Factors in Urban Pickup and Delivery of Goods. Transportation Research Record 2609, no. 1 (2017): 85-92.
Roadblocks to Sustainable Urban Freight
Approach
Task 1: Research Scan (September-November 2020) Subtasks:
- identify an accepted and shared definition of sustainable urban freight;
- identify and classify the main agents of the urban freight system from both the private and public sectors and their main role in the last-mile ecosystem;
- identify and classify the main accepted strategies currently adopted towards sustainability.
Task 2: Private sector expert interviews (December 2020-April 2021)
- listing the current strategies adopted to reach sustainable urban freight;
- understanding what the impacts are of other private and public sectors agents’ decisions on their sustainability strategies;
- identifying agents’ needs and obstacles to achieve their stated sustainable goals.
Task 3: Public sector expert interviews (December 2020-April 2021)
- listing the current policies adopted by cities towards sustainable urban freight, including infrastructure investments and transport demand management;
- understanding what the obstacles are to achieve sustainability goals.