Synchromodal Container Transportation Towards Maritime Logistics Resilience : A Strategic Analysis in Pursuit of Sustainable Maritime Development
The thesis attempts to consolidate existing literature on synchromodality through a comprehensive investigation into synchromodal container transportation systems within maritime ports, aiming to enhance operational efficiency and sustainability in the global trade landscape.
The first stage of the research methodology encompasses a thorough literature review and bibliometric analysis, exploring the current research landscape. The literature review examines research papers contributing to the field, extracting features, critical success factors, and synchromodal approaches developed through technology integration. Additionally, a bibliometric analysis systematically identifies and analyzes current trends in synchromodal logistics research, assessing its evolution and impacts on the broader supply chain.
The subsequent stage introduces an agent-based simulation model for maritime port synchromodal logistics, examining operational decision-making and offering insights into system flexibility and affordability. Through rigorous modeling and analysis, the model addresses the complexities of traditional seaport operations, paving the way for enhanced efficiency and competitiveness. Additionally, the research seeks to identify the enabling technologies crucial for effective synchromodality implementation. Furthermore, it highlights the literature gap pertaining to the implementation of synchromodal transportation systems in maritime ports. It proposes the integration of computer vision technology in shipping ports to enhance safety, operational efficiency, and environmental sustainability. By proposing a model framework for synchromodal transportation with integrated enabling technologies, the research contributes to advancing the efficiency and sustainability of goods transportation in the shipping industry.
History
Language
- English
Publication Year
- 2024
License statement
© The author. The author has granted HBKU and Qatar Foundation a non-exclusive, worldwide, perpetual, irrevocable, royalty-free license to reproduce, display and distribute the manuscript in whole or in part in any form to be posted in digital or print format and made available to the public at no charge. Unless otherwise specified in the copyright statement or the metadata, all rights are reserved by the copyright holder. For permission to reuse content, please contact the author.Institution affiliated with
- Hamad Bin Khalifa University
- College of Science and Engineering - HBKU
Degree Date
- 2024
Degree Type
- Master's