Exploring Game Complexity Through AI-Driven Player Modeling: A Computational Approach
Nancy Lewis 2025-02-01

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

Thanks to Nancy Lewis 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 study examines the ethical implications of loot boxes in mobile games, with a particular focus on their psychological impact and potential to foster gambling behavior. It provides a legal analysis of how various jurisdictions have approached the regulation of loot boxes and explores the implications of their inclusion in games targeted at minors. The paper discusses potential reforms and alternatives to loot boxes in the mobile gaming industry.

This research explores the convergence of virtual reality (VR) and mobile games, investigating how VR technology is being integrated into mobile gaming experiences to create more immersive and interactive entertainment. The study examines the technical challenges and innovations involved in adapting VR for mobile platforms, including issues of motion tracking, hardware limitations, and player comfort. Drawing on theories of immersion, presence, and user experience, the paper investigates how mobile VR games enhance player engagement by providing a heightened sense of spatial awareness and interactive storytelling. The research also discusses the potential for VR to transform mobile gaming, offering predictions for the future of immersive entertainment in the mobile gaming sector.

This paper investigates the use of artificial intelligence (AI) for dynamic content generation in mobile games, focusing on how procedural content creation (PCC) techniques enable developers to create expansive, personalized game worlds that evolve based on player actions. The study explores the algorithms and methodologies used in PCC, such as procedural terrain generation, dynamic narrative structures, and adaptive enemy behavior, and how they enhance player experience by providing infinite variability. Drawing on computer science, game design, and machine learning, the paper examines the potential of AI-driven content generation to create more engaging and replayable mobile games, while considering the challenges of maintaining balance, coherence, and quality in procedurally generated content.

This research investigates the environmental footprint of mobile gaming, including energy consumption, electronic waste, and resource usage. It proposes sustainable practices for game development and consumption.This study examines how mobile gaming serves as a platform for social interaction, allowing players to form and maintain relationships. It explores the dynamics of online communities and the social benefits of gaming.

This study examines the impact of cognitive load on player performance and enjoyment in mobile games, particularly those with complex gameplay mechanics. The research investigates how different levels of complexity, such as multitasking, resource management, and strategic decision-making, influence players' cognitive processes and emotional responses. Drawing on cognitive load theory and flow theory, the paper explores how game designers can optimize the balance between challenge and skill to enhance player engagement and enjoyment. The study also evaluates how players' cognitive load varies with game genre, such as puzzle games, action games, and role-playing games, providing recommendations for designing games that promote optimal cognitive engagement.

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