There are currently a number of models, frameworks and methodologies for serious games analysis and design that provide useful interpretations of the possibilities and limitations offered by serious games. However, these tools focus mostly on high-level aspects and requirements and do not help understand how such high-level requirements can be concretely satisfied. In this paper, we present a conceptual model, called Activity Theory-based Model of Serious Games (ATMSG), that aims to fill this gap. ATMSG supports a systematic and detailed representation of educational serious games, depicting the ways that game elements are connected to each other throughout the game, and how these elements contribute to the achievement of the desired pedagogical goals. Three evaluation studies indicate that ATMSG helped participants, particularly those with gaming experience, identify and understand the roles of each component in the game and recognize the game's educational objectives. We present a model for serious games analysis and conceptual design, called ATMSG.Activity theory is used as the underlying theoretical framework.ATMSG supports a systematic and detailed representation of educational serious games.ATMSG depicts how the combination of serious games elements supports pedagogical goals.A taxonomy of serious games elements is presented to assist the analysis of SGs.

An activity theory-based model for serious games analysis and-conceptual design

The Routledge Companion to Video Game Studies

Foreword Note on graphic conventions 0. Introduction-Toward a Logic of Culture 0.1. Design for a semiotic theory 0.2. 'Semiotics': field or discipline? 0.3. Communication and/or signification 0.4. Political boundaries: the field 0.5. Natural boundaries: two definitions of semiotics 0.6. Natural boundaries: inference and signification 0.7. Natural boundaries the lower threshold 0.8. Natural boundaries: the upper threshold 0.9. Epistemological boundaries 1. Signification and Communication 1.1. An elementary communicational model 1.2. Systems and codes 1.3. The s-code as structure 1.4. Information, communication, signification 2. Theory of Codes 2.1. The sign-function 2.2. Expression and content 2.3. Denotation and connotation 2.4. Message and text 2.5 Content and referent 2.6. Meaning as cultural unit 2.7. The interpretant 2.8. The semantic system 2.9. The semantic markers and the sememe 2.10. The KF model 2.11. A revised semantic model 2.12. The model \"Q\" 2.13. The format of the semantic space 2.14. Overcoding and undercoding 2.15. The interplay of codes and the message as an open form 3. Theory of Sign Production 3.1. A general survey 3.2. Semiotic and factual statements 3.3. Mentioning 3.4 The prolem of a typology of signs 3.5. Critique of iconism 3.6. A typology of modes of production 3.7. The aesthetic text as invention 3.8. The rhetorical labor 3.9. Ideological code switching 4. The Subject of Semiotics References Index of authors Index of subjects

A Theory of Semiotics

This study aimed to identify the impact of a game based learning (GBL) application using computer technologies on student engagement in secondary school science classrooms. The literature reveals that conventional Science teaching techniques (teacher-centered lecture and teaching), which foster rote learning among students, are one of the major concerns in Pakistan Education system. This leads to student disengagement in science lessons eventually resulting in student absenteeism and dropouts from the schools. This study consisted of five stages: (1) examining the impact of Digital Game-Based Learning (DGBL) and gamification on engagement, learning and gender difference, and literature related to using DGBL models for instructional design; (2) planning learning activities and developing a GBL application based on a specific content in Science; (3) conducting an intervention with a sample of 72 participants of 8th grade (aged 12---15) in a low cost private school of Pakistan following quasi-experimental research framework; (4) observing behaviour and emotions of the participants during science lessons; (5) conducting pre and post tests to assess the learning outcomes of participants followed by focus groups discussion. Analysis from Friedman test, Mann-Whitney U test, and Wilcoxon Signed Rank test show that the GBL application has a positive influence on student engagement. However, GBL application was not equally effective for all students since girls outperformed boys in terms of engagement and learning outcomes. This study gives insights into the development of better educational games to promote student learning.

Use of digital game based learning and gamification in secondary school science: The effect on student engagement, learning and gender difference

In this study, we examine digital game preferences by identifying game dynamics, i.e. player-game interaction modes, of 700 contemporary digital games, and players' N = 1717 desire to play games with specific types of dynamics. Based on statistical analysis of the data, 5 game dynamics preference categories "assault," "manage," "journey," "care," and "coordinate" and 7 player types were revealed. The results show that identifying player types requires including both preferred and undesired game dynamics categories in the analysis. The findings unveil digital gaming as a more multifaceted phenomenon than common stereotypes suggest. The original game preferences model we present in this study can be conceptualized as a complementary approach for motivations to play and player behavior studies.

https://onlinelibrary.wiley.com/doi/pdf/10.1111/jcc4.12181

Digital Game Dynamics Preferences and Player Types

This in-depth resource teaches you to craft mechanics that generate challenging, enjoyable, and well-balanced gameplay. Youll discover at what stages to prototype, test, and implement mechanics in games and learn how to visualize and simulate game mechanics in order to design better games. Along the way, youll practice what youve learned with hands-on lessons. A free downloadable simulation tool developed by Joris Dormans is also available in order to follow along with exercises in the book in an easy-to-use graphical environment. In Game Mechanics: Advanced Game Design, youll learn how to: * Design and balance game mechanics to create emergent gameplay before you write a single line of code. * Visualize the internal economy so that you can immediately see what goes on in a complex game. * Use novel prototyping techniques that let you simulate games and collect vast quantities of gameplay data on the first day of development. * Apply design patterns for game mechanicsfrom a library in this bookto improve your game designs. * Explore the delicate balance between game mechanics and level design to create compelling, long-lasting game experiences. * Replace fixed, scripted events in your game with dynamic progression systems to give your players a new experience every time they play. "I've been waiting for a book like this for ten years: packed with game design goodness that tackles the science without undermining the art." --Richard Bartle, University of Essex, co-author of the first MMORPG Game Mechanics: Advanced Game Design by Joris Dormans & Ernest Adams formalizes game grammar quite well. Not sure I need to write a next book now! -- Raph Koster, author of A Theory of Fun for Game Design.

/pdf/game-mechanics-advanced-game-design-23pl62mlvp.pdf

Joris Dormans

Papers

Game Mechanics: Advanced Game Design