SAT-RTS: A systematic framework for tactical knowledge extraction and visualization-based analysis in real-time strategy games

2026-06-29Artificial Intelligence

Artificial Intelligence
AI summary

The authors created a new system called SAT-RTS to better understand and explain how players make tactical decisions in real-time strategy (RTS) games. Their method breaks down complex game data into simpler, understandable parts and uses visual tools to show important patterns. They combine smart grouping techniques and rules to label player actions so it's easier to see strategies. Their approach helps analyze large amounts of game data quickly and offers clear insights about tactics in RTS games.

real-time strategy (RTS) gamestactical analysisstate-action sequencesvisualizationBK-tree algorithmmulti-label extractionpattern recognitionsequence dataclusteringinterpretability
Authors
Chunhui Bai, Changhe Li, Yuqiang Li, Lei Liu, Shoufei Han
Abstract
Efficient tactical knowledge extraction and analysis in real-time strategy (RTS) games micromanagement are constrained by the high-dimensional coupled state-action sequential data and the black-box decision-making process. Current research rarely provides a hierarchical visualization-based attribution analysis from the perspective of data decoupling and abstraction. To facilitate interpretable tactical knowledge extraction and visualization-based analysis in RTS games, a systematic framework named state-action-tactic analysis pipeline (SAT-RTS) is proposed. To decipher the deep-seated drivers of critical decisions in RTS learning systems, this work integrates interpretable visualization with the automated extraction of latent tactical patterns from high-dimensional sequence data. By adapting a cluster-centric BK-tree algorithm and incorporating specialized distance metrics designed to quantify multi-aspect similarities, the proposed framework facilitates robust state-stream abstraction. Furthermore, a rule-based multi-label extraction method is developed to transform unstructured state-action sequences into discrete and interpretable tactical labels, effectively bridging the gap between raw behavioral data and high-level tactical insights. By holistically integrating these computational methods into a hierarchical visualization-based pipeline, the proposed framework effectively addresses the challenges of processing massive real-time data streams while providing fitness landscape visualizations and analytical insights to decipher deep-seated tactical drivers. Comprehensive experiments demonstrate that the proposed SAT-RTS significantly enhances the interpretability and efficiency of tactical analysis in complex RTS environments.