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A vector-agent approach to (spatiotemporal) movement modelling and reasoning.

Saeed Rahimi1, Antoni B Moore2, Peter A Whigham3

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This study introduces a vector-agent model to understand complex movement patterns, like those of football players. Analyzing contextual factors revealed how agent-based modeling enhances insights into spatiotemporal dynamics.

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Area of Science:

  • Computational Social Science
  • Agent-Based Modeling
  • Movement Ecology

Background:

  • Modeling complex systems requires understanding spatiotemporal context, individual interactions, and internal states.
  • Agent-based models, particularly vector-agents, are suitable for explicating causal interrelationships in dynamic systems.

Purpose of the Study:

  • To present a design guideline for an implemented vector-agent model based on conceptual foundations of agent space-time and reasoning.
  • To apply agent-based modeling to a constrained case study (football player movement) to understand emergent patterns.

Main Methods:

  • Developed a vector-agent model incorporating spatiotemporal context, individual states, and interactions.
  • Utilized sensitivity-variability analysis to assess the impact of system configurations on emergent movement patterns.
  • Focused on football player movement due to its inherent spatial, temporal, and action constraints.

Main Results:

  • The vector-agent model demonstrated the influence of contextual actors (player role-areas) on emergent movement patterns.
  • Model output exhibited greater variability when contextual conditions were manipulated, highlighting the importance of environmental factors.
  • Sensitivity-variability analysis quantified the performance of different system configurations.

Conclusions:

  • Agent-based modeling, exemplified by this vector-agent approach, offers a robust method for studying complex movement phenomena.
  • The study provides causally relevant evidence for understanding movement dynamics within spatiotemporally constrained environments.
  • The football case study effectively illustrates the utility of agent-based modeling in generating insights into collective behavior.