Exploring Game Complexity Through AI-Driven Player Modeling: A Computational Approach
Thomas Clark 2025-01-31

Exploring Game Complexity Through AI-Driven Player Modeling: A Computational Approach

Thanks to Thomas Clark for contributing the article "Exploring Game Complexity Through AI-Driven Player Modeling: A Computational Approach".

Exploring Game Complexity Through AI-Driven Player Modeling: A Computational Approach

This paper investigates the use of mobile games and gamification techniques in areas beyond entertainment, such as education, healthcare, and corporate training. It examines how game mechanics are applied to encourage desired behaviors, improve productivity, and enhance learning outcomes. The study also analyzes the effectiveness and challenges of gamification strategies, highlighting case studies from various industries.

This research explores the intersection of mobile gaming and behavioral economics, focusing on how in-game purchases influence player decision-making. The study analyzes common behavioral biases, such as the “anchoring effect” and “loss aversion,” that developers exploit to encourage spending. It provides insights into how these economic principles affect the design of monetization strategies and the ethical considerations involved in manipulating player behavior.

The debate surrounding the potential impact of violent video games on behavior continues to spark discussions and research within the gaming community and beyond. While some studies suggest a correlation between exposure to violent content and aggressive tendencies, the nuanced relationship between media consumption, psychological factors, and real-world behavior remains a topic of ongoing study and debate.

This research investigates how mobile gaming influences cognitive skills such as problem-solving, attention span, and spatial reasoning. It analyzes both positive and negative effects, providing insights into the potential educational benefits and drawbacks of mobile gaming.

This paper applies Cognitive Load Theory (CLT) to the design and analysis of mobile games, focusing on how game mechanics, narrative structures, and visual stimuli impact players' cognitive load during gameplay. The study investigates how high levels of cognitive load can hinder learning outcomes and gameplay performance, especially in complex puzzle or strategy games. By combining cognitive psychology and game design theory, the paper develops a framework for balancing intrinsic, extraneous, and germane cognitive load in mobile game environments. The research offers guidelines for developers to optimize user experiences by enhancing mental performance and reducing cognitive fatigue.

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