ORCID
0009-0004-5398-6659
Keywords
Last-mile delivery, Traffic congestion prediction, machine learning (deep learning), Intelligent transport systems, Dynamic optimization (dynamic routing), Agent-based simulation
Abstract
Supply chain management has become increasingly critical as transportation costs rise and urban delivery systems place additional pressure on already congested networks. Last-mile delivery—the movement of goods from distribution centers to end users—represents the most expensive and operationally complex segment of the logistics process, particularly in underdeveloped megacities characterized by unpredictable traffic, limited infrastructure, and sparse real-time data. This dissertation proposes an integrated framework for optimizing last-mile delivery in such environments by combining social media–based traffic intelligence, machine learning, and deep reinforcement learning. The framework leverages unstructured, real-time data from social media platforms to enhance traffic prediction and incorporates these predictions into a reinforcement learning model that formulates the delivery problem as a Markov Decision Process. This approach enables dynamic routing decisions that adapt to evolving traffic conditions, with the objective of reducing delivery time, operational cost, and fuel consumption. The proposed framework is evaluated through a case study of Bogotá, Colombia, demonstrating its effectiveness in improving routing efficiency and mitigating the impact of urban traffic uncertainty. The results highlight the potential of integrating alternative data sources with adaptive learning techniques to enhance last-mile delivery performance in data-scarce urban environments.
Completion Date
2026
Semester
Spring
Committee Chair
Rabelo, Luis
Degree
Doctor of Philosophy (Ph.D.)
College
College of Engineering and Computer Science
Department
Industrial Engineering
Format
Document Type
Thesis
Identifier
DP0053169
STARS Citation
Bhat, Vasanth, "An Integrated Framework For Last-Mile Delivery Optimization Using Reinforcement Learning And Social Media-Based Traffic Prediction In Underdeveloped Megacities" (2026). Graduate Studies Theses and Dissertations 2026. 35.
https://stars.library.ucf.edu/gradstudies_etd_2026/35
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