The Trick is to Stay Behind?: Defining and Exploring the Design Space of Player Balancing Mechanics

Game UX & Player BehaviorSerious & Functional GamesGame Developers & DesignersEsports Players & Live StreamersEsports Athletes

Title of the Paper

The Trick is to Stay Behind?: Defining and Exploring the Design Space of Player Balancing Mechanics

Paper Information

  • Subject Area: Game Design and Human-Computer Interaction
  • Keywords: Game Design, Multiplayer Games, Balancing Mechanics, Difficulty Adjustment, Fairness, Competitive Experience, Design Space

Research Background and Problem

  • Problem or Challenge:
    • Skill disparities among players in multiplayer games can lead to imbalanced experiences, where high-skill players may frustrate lower-skill players, diminishing the enjoyment of cooperation or competition.
    • While some balancing mechanics (e.g., aim assist in shooting games) exist, the impact of different design choices on player experience has not been thoroughly explored.
  • Significance of the Research:
    • Maintaining balance in multiplayer games is crucial for enhancing player engagement and perceptions of fairness, especially when skill levels vary widely.
    • Exploring novel and inclusive game design approaches to foster more equitable gaming environments holds significant social importance.
  • Motivation and Related Work:
    • Although prior research has addressed dynamic difficulty adjustment and player experience, there is a lack of systematic and comprehensive understanding of the design space and the potential impact of design dimensions on player experience.
    • Building on a review of existing studies, the authors propose a new design framework to capture the design dimensions of game balancing mechanics and conduct empirical research to explore the impact of specific variables on player experience.

Solution

  • Method or Solution:
    • Propose a design space for multiplayer balancing mechanics, discussing key design elements across six high-level dimensions:
      1. Determination
      2. Timing
      3. Targeting
      4. Effect
      5. Feedback
      6. Information
    • Implement a multi-layered exploratory approach by constructing a design framework and validating it through operational game prototypes.
  • Innovations:
    • Introduced a systematic design space broadly applicable to the design, analysis, and study of multiplayer balancing mechanics.
    • Conducted in-depth exploration of core design dimensions such as "Targeting Direction" and "Effect Dependency on Skill."
  • Techniques and Steps:
    1. Reviewed existing research and balancing mechanics in commercial games, incorporating insights from game developers to create the design space.
    2. Developed an original ice-racing game prototype, incorporating seven balancing mechanisms to cover selected design variables.
    3. Conducted a mixed-methods study, collecting both quantitative and qualitative data through gameplay experiences, surveys, and focus group interviews.
    4. Analyzed player perceptions of the acceptability, enjoyment, fairness, and effectiveness of different balancing mechanisms.

Research Outcomes

  • Specific Findings:
    • Established a design space framework capturing all key variables of balancing mechanics and validated it through a game prototype.
    • User studies revealed that player acceptance of balancing mechanisms is influenced by context, perceived fairness, and the salience of the mechanism.
    • Preferences for specific mechanisms varied based on whether they relied on strategy and skill or preserved player agency.
  • Comparative Advantages Over Existing Solutions:
    • Provided a more comprehensive and systematic framework to help researchers analyze and design complex balancing mechanisms.
    • Extended prior research by focusing on the trade-offs and potential impacts behind design dimensions.
  • Experimental and Evaluation Results:
    • For instance, skill-based balancing mechanisms were perceived as better at maintaining a sense of achievement, while parameter-based adjustments were often seen as fair but less transparent.
    • Mechanisms that significantly reduced player agency (e.g., direct speed reduction) were less well-received by players.
  • Limitations and Future Directions:
    • Limited to two design dimensions; future work should validate other design variables more broadly.
    • The sample was predominantly young players, requiring further exploration of the mechanisms' generalizability across diverse demographic groups.
    • Future research will expand to balancing mechanisms in team-based scenarios, aiming to better understand the interaction between team collaboration and individual differences.

Conclusion

This study holds significant academic and practical value for designing more inclusive and equitable multiplayer games. By constructing and validating a design space, the authors have opened up new possibilities for integrating research with practical game design, while providing clear directions for optimizing future balancing mechanisms.

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https://hci.top/en/papers/chi/147203/2024

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DOI: https://doi.org/10.1145/3613904.3642441
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Source
CHI
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Year
2024
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Authors
6 authors
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Subtopics
Game UX & Player Behavior, Serious & Functional Games
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Game Developers & Designers, Esports Players & Live Streamers, Esports Athletes
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