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Improving Delivery Routing with Driver Preferences

This article discusses methods to enhance delivery routing by considering driver preferences.

― 5 min read


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Table of Contents

In delivery services, getting packages to customers quickly and efficiently is very important. One big challenge is planning the best routes for delivery drivers to take. This task is not so simple because there are many factors to consider. This article looks at ways to improve delivery routing by bringing in the preferences of drivers and the historical routes they have taken.

The Importance of Last-mile Delivery

Last-mile delivery refers to the final step of transporting goods from a transportation hub to the final delivery point, usually the customer's home or business. This part of the delivery process can be quite challenging and can affect customer satisfaction. Companies rely on efficient last-mile delivery to keep up with customer expectations and to maintain a competitive edge.

Understanding Vehicle Routing Problems

The Vehicle Routing Problem (VRP) is a common issue faced by logistics and transportation companies. It involves figuring out how to best route a fleet of vehicles to deliver goods to customers while minimizing costs. There are various versions of this problem, but most focus on reducing operational expenses.

The New Focus: Driver Preferences

Traditionally, delivery routing aimed mainly at reducing costs. Recently, more attention has been given to driver preferences and how they can influence routing decisions. This new focus aims to create routes that not only save money but also consider the preferences of the drivers who execute these routes.

Two Approaches to Routing

There are two ways to look at improving delivery routing:

  1. Visual Attractiveness: Some research suggests that routes should be visually appealing to drivers. This means planning routes that are close in distance and do not cross or create complicated paths. While it is hard to measure what makes a route visually attractive, certain features have been identified that can help.

  2. Data Mining: This approach uses historical data on driver behavior to improve route planning. By looking at the routes drivers have taken in the past, companies can find patterns and plan similar routes that drivers would prefer. This method uses data science techniques to analyze past delivery records.

Comparing the Approaches

To understand which approach works better, a comparison was made using real delivery data from a major company. During the analysis, it was found that using historical patterns is more effective than focusing on visual attractiveness alone. This insight opened the door to developing a method that combines both cost-saving routing and driver preferences.

The Bi-Objective Problem

When trying to find the best delivery routes, two goals often conflict. On one hand, there is a need to minimize delivery costs. On the other, there is a need to consider the preferences of drivers for the routes they will take. This leads to a bi-objective problem, where both factors must be balanced.

A New Algorithm for Routing

To tackle this bi-objective problem, a new algorithm was proposed. This algorithm combines two main processes:

  1. Greedy Randomized Adaptive Search Procedure (GRASP): This method is used to find good solutions by exploring different routing options.
  2. Heuristic Box Splitting: This approach divides the solution space into smaller parts, helping to find a set of options that balance costs and driver preferences better.

How the Algorithm Works

The algorithm works in a few key steps:

  1. Data Collection: Gathering information from past delivery routes involves analyzing data to create a better understanding of how routes have been taken in the past.

  2. Route Planning: Using this data to inform new route planning includes developing initial routing paths based on historical patterns.

  3. Optimization: The algorithm then optimizes these paths to make sure they are cost-effective while also being favorable for the drivers.

  4. Finding Solutions: Finally, the algorithm returns a range of non-dominated solutions that offer a good balance between costs and preferences, giving decision-makers choices that fit their needs.

Computational Experiments

Various tests were conducted to see how well the proposed method works. These experiments involved comparing the effectiveness of the historical patterns approach against the visual attractiveness approach.

The results showed that the method relying on historical data provided better predictions for routes that drivers preferred. These findings are crucial for logistics companies looking to enhance their delivery processes.

Conclusion

In the quest for better delivery routing, balancing costs with driver preferences has become an important goal. The new algorithm offers a way to accomplish this by using historical data and applying a bi-objective framework. The experiments conducted confirm the effectiveness of using past behavior to guide current route planning.

By focusing on both economic efficiency and driver satisfaction, logistics companies can significantly improve their last-mile delivery operations. This not only helps in cutting costs but also ensures that drivers are happier with the routes they take, potentially leading to better service for customers.

Future Directions

Looking ahead, there are several areas for future research. One suggestion is to further refine the Algorithms used for routing by incorporating advanced techniques from data science. Exploring other ways to extract insights from historical routes could also lead to even better solutions.

By continuously improving delivery routing methods, companies stand to benefit significantly, leading to enhanced efficiency and happier drivers and customers alike.

Original Source

Title: A Bi-Objective Approach to Last-Mile Delivery Routing Considering Driver Preferences

Abstract: The Multi-Objective Vehicle Routing Problem (MOVRP) is a complex optimization problem in the transportation and logistics industry. This paper proposes a novel approach to the MOVRP that aims to create routes that consider drivers' and operators' decisions and preferences. We evaluate two approaches to address this objective: visually attractive route planning and data mining of historical driver behavior to plan similar routes. Using a real-world dataset provided by Amazon, we demonstrate that data mining of historical patterns is more effective than visual attractiveness metrics found in the literature. Furthermore, we propose a bi-objective problem to balance the similarity of routes to historical routes and minimize routing costs. We propose a two-stage GRASP algorithm with heuristic box splitting to solve this problem. The proposed algorithm aims to approximate the Pareto front and to present routes that cover a wide range of the objective function space. The results demonstrate that our approach can generate a small number of non-dominated solutions per instance, which can help decision-makers to identify trade-offs between routing costs and drivers' preferences. Our approach has the potential to enhance the last-mile delivery operations of logistics companies by balancing these conflicting objectives.

Authors: Juan Pablo Mesa, Alejandro Montoya, Raul Ramos-Pollán, Mauricio Toro

Last Update: 2024-05-25 00:00:00

Language: English

Source URL: https://arxiv.org/abs/2405.16051

Source PDF: https://arxiv.org/pdf/2405.16051

Licence: https://creativecommons.org/licenses/by/4.0/

Changes: This summary was created with assistance from AI and may have inaccuracies. For accurate information, please refer to the original source documents linked here.

Thank you to arxiv for use of its open access interoperability.

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