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An Artificial Intelligence-Driven Temporal Network Analysis of Myanmar’s Cyber Scam Ecosystem

Eray Arda Akartuna ; Matthew Garnet Manning (2025) — Asian Journal of Criminology

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Synopsis

This publication presents an AI-assisted, temporal network analysis of Myanmar’s industrialized cyber scam ecosystem, focusing on how propagating linkages among criminals, enablers, and enforcers sustain globally consequential fraud operations. The study frames the problem within a broader Southeast Asian context where scam compounds staffed by trafficking victims operate in zones with limited governance, and where technologies such as artificial intelligence, deepfakes, and cryptocurrencies have accelerated criminal capabilities. The authors propose a horizon-scanning approach that uses large language models to construct dynamic networks from open-source reporting, aiming to illuminate operational infrastructures and relationships that underlie the scam economy. Methodologically, the researchers compare multiple commercial LLM tools for entity and relationship extraction, selecting Grok-4 as their primary parser after iterative testing against human coding. They build three interconnected datasets—entities, relationships, and sources—capturing actors, directional ties, quotes, and evidence. The resulting network comprises thousands of entity and relationship entries and is analyzed through centrality concepts and retroduction-informed interpretation, with human checks to manage bias and ambiguity in sources. The authors emphasize that their approach is intended to augment horizon-scanning efforts, not replace expert judgment, and they acknowledge data limitations given the fluid and politically contested reporting surrounding Myanmar’s conflict environment. Principal implications discussed include the resilience and displacement dynamics of the network under enforcement pressures, the practical challenges of direct punitive action against armed groups, and the value of network-informed foresight for anticipating future shifts in the ecosystem. The study also notes limitations related to incomplete edges, potential source bias, and the heuristic nature of centrality interpretations in criminal networks.

Identified Gaps

The paper identifies a gap in horizon-scanning methods: apart from desk research, existing approaches rarely directly incorporate on-the-ground insights about criminal infrastructure, relationships, and dynamic change. It also notes that prior social-network research often examines specific groups rather than a broad, multiplex ecosystem involving criminal syndicates, armed groups, businesses, governments, and scam compounds. Systematic validation and reproducibility testing of LLM tools for this task remain absent.

Methods

The study used LLM-assisted open-source intelligence collection and temporal social network analysis of Myanmar's cyber scam ecosystem. It identified 1,208 media and research sources through Boolean searches, tested Grok-4, GPT-5, and Gemini-2.5 Pro on five articles, then used Grok-4 to extract entities, relationships, and source quotations. Researchers manually deduplicated and checked the output, producing a directed network of 743 entities and 2,623 relationships. The analysis computed compound reach, bridge, and set-betweenness measures over time and used 50,000-permutation MRQAP models to assess associations between criminal connections and enforcement responses.

Limitations

The exploratory network is limited to Myanmar-focused open-source reporting, even though the scam ecosystem is regional; relevant Cambodia-linked material may therefore be missed. It only captures reported and publicly known relationships, not privileged evidence such as direct criminal communications. The single-model extraction approach was not systematically validated using standard performance metrics, and results from the small LLM test are not generalizable. Underlying reporting may also have political bias, particularly because sources sympathetic to Myanmar's Junta were virtually absent. The dataset cannot be publicly shared because it links people to alleged criminality.

Future Work

Replicate the approach in other contexts to help standardize best practices for integrating network analysis into foresight. Test advanced time-series analysis, predictive modeling, and multiplex centrality measures where network robustness permits. Conduct resilience analysis to anticipate displacement after hypothetical removal of relationships, such as electricity supplies. Future studies could also combine multiple LLMs and broaden source collection beyond Myanmar to build a more robust network foundation.

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