Enhancing Coordination and Decision Making in Humanitarian Logistics Through Artificial Intelligence: A Grounded Theory Approach
Abstract
1. Introduction
2. Literature Review
2.1. AI-Enhanced Decision Making in Humanitarian Response
2.2. AI in Humanitarian Supply Chains
2.3. Ethical, Legal and Other Considerations of AI in Humanitarian Settings
3. Methodology
3.1. Grounded Theory
3.2. Expert Selection
- Expert A—24 October 2024;
- Expert B—24 October 2024;
- Expert C—1 November 2024;
- Expert D—6 November 2024;
- Expert E—13 November 2024.
3.3. Content Analysis
- Initial coding of transcripts: The interview transcripts, prepared from conversations with logistics professionals and humanitarian practitioners, served as the foundation for analysis. In accordance with GT principles, coding began with an open, exploratory phase. Open coding involved closely examining the text without any predefined framework. Codes were created freely to reflect distinct concepts emerging from the data. This phase allowed for a wide variety of ideas to be identified and documented. Selective coding followed, where attention shifted toward identifying broader, more meaningful patterns. Related codes were grouped, refined and organized at this stage to reveal recurring themes and deeper insights.
- Structuring the coding framework: As the analysis progressed, the coding system was refined through multiple rounds of selective coding. Concepts were organized in a hierarchical format using parent and sub-codes, which helped clarify relationships among emerging ideas. This structure made it easier to navigate the complexity of the data and ensured consistency in interpretation.
- Thematic grouping and categorization: Similar concepts were brought together under broader thematic categories. These categories served as the building blocks of the developing theory. They offered a way to organize abstract ideas into a more structured format, highlighting the underlying connections and relationships reflected across the interviews.
- Developing the theory: With the categories in place, the next step was to explore how they related to each other. Theoretical sampling helped refine and extend the developing framework. By focusing on the most significant connections among categories, the study moved toward forming a cohesive and grounded understanding of the phenomenon under investigation.
4. Data Analysis and Findings
4.1. Overview of Data Collected
4.2. Thematic Key Areas
4.2.1. Balance Between Experience and Data Constraints in Humanitarian Coordination and Decision Making
4.2.2. Barriers to Accessing Reliable Data in Time-Sensitive Humanitarian Decisions
4.2.3. The Essential Role of Coordination and Relationships in Logistics Management Across Humanitarian Stakeholders
4.2.4. Using AI to Improve Planning and Efficiency in Humanitarian Logistics
4.2.5. Strengthening Humanitarian Preparedness and Mitigation Through Responsible Use of AI
4.2.6. Confronting the Real-World Barriers to Using AI in Humanitarian Logistics
4.2.7. Bridging Human and Technological Gaps to Support Real-Time Use of AI in Humanitarian Logistics
4.2.8. Encouraging Inclusive AI Integration to Support Culturally Attuned and Coordinated Humanitarian Action
4.2.9. Addressing the Hidden Struggles of Data and Information Use in Humanitarian Decision Making
4.2.10. Thematic Synthesis of the Empirical Findings
4.3. Thematic Synthesis
5. Discussion
5.1. Comparative Analysis
5.2. Synthesis of Findings
5.2.1. How Decisions and Coordination Are Handled in Humanitarian Logistics (RQ1)
5.2.2. How AI Can Help Improve Planning and Coordination in Supply Chains (RQ2)
5.2.3. What Makes It Hard to Use AI in Humanitarian Logistics (RQ3)
5.3. Implications for Researchers, Practitioners and Policy Makers
5.4. Limitations and Future Research
6. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
Abbreviations
AI | Artificial intelligence |
RQ | Research question |
Appendix A
Main Question 1: How do you currently approach decision-making and coordination in humanitarian logistics within operations? |
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Main Question 2: How can AI assist in optimizing humanitarian logistics networks, specifically in the planning and coordination of supply chains? |
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Main Question 3: How do you perceive the possible challenges of integrating AI into humanitarian logistics operations? |
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No. | Question | Objective |
RQ1 | How are decision making and coordination currently practiced in humanitarian logistics operations? | To understand existing decision-making and coordination methods. |
RQ2 | In what ways can AI enhance planning and coordination in humanitarian logistics networks? | To explore how AI might enhance supply-chain planning and coordination. |
RQ3 | What are the main challenges to integrating AI in humanitarian logistics operations? | To identify barriers to AI integration in humanitarian logistics. |
Expert | Professional Expertise |
---|---|
A | Regional logistics coordinator with the French Red Cross in the southwest Indian Ocean. Experienced in supply-chain management, procurement and emergency-response operations. |
B | Head of the ICT Community Solutions Team. Oversees global humanitarian IT projects, including AI-based systems for preparedness, logistics and information management. |
C | Long-standing volunteer with the Lebanese Red Cross. Deployed internationally on multiple logistics missions. Also trained logisticians in Arabic-speaking countries. |
D | Professor in humanitarian logistics and Academic Director at a university research center. Focuses on the intersection of regional development, logistics and technological integration. |
E | CEO of Relief Applications, a company dedicated to developing digital tools for humanitarian organizations. Former head of emergency operations with practical field experience. |
No. | Emerging Theme | Description |
---|---|---|
1. | Evolving AI’s role in humanitarian work | Exploring how AI contributes to smarter planning, improved coordination and faster decisions while facing real-world limitations. |
2. | Obstacles to embracing AI | Identifying practical and organizational obstacles, such as limited training, constrained budgets and hesitation to shift away from familiar systems. |
3. | Strengthening collaborative networks | Emphasizing the need for stronger alliances among agencies, often complicated by politics, culture and incompatible technologies. |
4. | AI’s operational boundaries | Highlighting the reduced effectiveness of AI during time-sensitive emergencies, when reliable data are scarce and human judgment takes precedence. |
5. | Ethical and privacy imperatives | Addressing the critical need for secure data practices, compliance with regulations and awareness of AI’s environmental footprint. |
6. | Human attitudes toward technological change | Recognizing emotional and professional concerns among staff, which must be addressed through meaningful involvement and skill-building. |
7. | Adapting AI for challenging environments | Designing solutions that function reliably in areas where connectivity, power and infrastructure are unpredictable or limited. |
8. | Improving data foundations | Addressing inconsistencies in data collection, volume and accuracy issues and preventing system overload during emergencies. |
9. | Cultivating confidence in AI outputs | Ensuring that human validation remains central to decisions supported by AI to reduce the risks of flawed or biased recommendations. |
10. | Understanding cultural and linguistic contexts | Promoting respectful and accurate communication across diverse communities, supported by culturally aware and multilingual AI systems. |
11. | Bridging technological gaps across systems | Focusing on creating shared standards and systems to allow smooth exchange of information and broader AI adoption. |
12. | Harmonizing automation with human insight | Striking a balance between technological support and the irreplaceable value of empathy, flexibility and human-led decision making. |
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Pantiris, P.; Pallis, P.L.; Chountalas, P.T.; Dasaklis, T.K. Enhancing Coordination and Decision Making in Humanitarian Logistics Through Artificial Intelligence: A Grounded Theory Approach. Logistics 2025, 9, 113. https://doi.org/10.3390/logistics9030113
Pantiris P, Pallis PL, Chountalas PT, Dasaklis TK. Enhancing Coordination and Decision Making in Humanitarian Logistics Through Artificial Intelligence: A Grounded Theory Approach. Logistics. 2025; 9(3):113. https://doi.org/10.3390/logistics9030113
Chicago/Turabian StylePantiris, Panagiotis, Petros L. Pallis, Panos T. Chountalas, and Thomas K. Dasaklis. 2025. "Enhancing Coordination and Decision Making in Humanitarian Logistics Through Artificial Intelligence: A Grounded Theory Approach" Logistics 9, no. 3: 113. https://doi.org/10.3390/logistics9030113
APA StylePantiris, P., Pallis, P. L., Chountalas, P. T., & Dasaklis, T. K. (2025). Enhancing Coordination and Decision Making in Humanitarian Logistics Through Artificial Intelligence: A Grounded Theory Approach. Logistics, 9(3), 113. https://doi.org/10.3390/logistics9030113