Virtual worlds and the learner hero

2009 ◽  
Vol 7 (2) ◽  
pp. 214-223 ◽  
Author(s):  
C. Scott Rigby ◽  
Andrew K. Przybylski
Keyword(s):  
Video Games ◽  
Learning Environments ◽  
Virtual Worlds ◽  
Leisure Activity ◽  
Self Determination Theory ◽  
Self Determination ◽  
Digital Learning ◽  
The World ◽  
New Research ◽  
Digital Learning Environments

Participation in expansive video games called `virtual worlds' has become a mainstream leisure activity for tens of millions of people around the world. The growth of this industry and the strong motivational appeal of these digital worlds invite a closer examination as to how educators can learn from today's virtual worlds in the development of next generation learning environments. Self-determination theory (SDT; Ryan and Deci, 2000) has shown value in explaining both the motivational dynamics of learning (Deci et al., 1994), as well as the strong motivational pull of video games and virtual worlds (Ryan et al., 2006). As such, SDT provides a framework that can bridge the gap between education and consumer virtual worlds and be applied to new research and development in how to best build virtual worlds for learning. The concept of the `learner hero' is introduced as a potentially useful unifying concept in considering how to leverage the high motivational appeal of commercial virtual worlds in building digital learning environments.

Frustration and Violence in Mobile Video Games

2020 ◽  
Vol 79 (2) ◽  
pp. 63-70
Author(s):  
Petr Květon ◽  
Martin Jelínek
Keyword(s):  
Video Games ◽  
Video Game ◽  
Implicit Association Test ◽  
Self Determination Theory ◽  
Psychological Needs ◽  
Basic Psychological Needs ◽  
Self Determination ◽  
Mobile Video ◽  
Violent Content ◽  
Before And After

Abstract. This study tests two competing hypotheses, one based on the general aggression model (GAM), the other on the self-determination theory (SDT). GAM suggests that the crucial factor in video games leading to increased aggressiveness is their violent content; SDT contends that gaming is associated with aggression because of the frustration of basic psychological needs. We used a 2×2 between-subject experimental design with a sample of 128 undergraduates. We assigned each participant randomly to one experimental condition defined by a particular video game, using four mobile video games differing in the degree of violence and in the level of their frustration-invoking gameplay. Aggressiveness was measured using the implicit association test (IAT), administered before and after the playing of a video game. We found no evidence of an association between implicit aggressiveness and violent content or frustrating gameplay.

scholarly journals Design and Development of a Video Game to Assess Problem-Solving Competence in Chemistry Education

2019 ◽  
Author(s):  
Amany Annaggar ◽  
Rüdiger Tiemann
Keyword(s):  
Problem Solving ◽  
Video Games ◽  
Video Game ◽  
Game Design ◽  
Chemistry Education ◽  
Self Determination Theory ◽  
Self Determination ◽  
Scientific Content ◽  
3D Game ◽  
Problem Solving Model

<p>The aim of this study is to present how to implement the constructive learning theory and self-determination theory into a video game. This video game is designed as a new kind of teaching tool for chemistry concepts and as an assessment tool for domain-specific problem-solving competence, by applying a problem-solving model and the factors of self-determination theory through game elements. These types of video games are designed not only to have fun and motivate students, but also to help the teachers and educators to assess their students according to their weaknesses and strengths in each particular phase of the competence. Thus, educators could improve their teaching strategy or use the tools to improve weak areas. Based on this idea, we developed ALCHEMIST. ALCHEMIST targeted the 9th-grade students in the German chemistry curriculum. The scientific content is about acids, bases, and indicators, and is designed and based on the problem-solving model to access this competence of the students. The 3D game framework was chosen for this game since it makes the game efficient, interactive and drives it into more virtual reality. The designing process was complicated, as it includes multidisciplinary work across psychology, design, scientific content, development and programming, which makes it challenging. To cover these points, we followed a game design model, adding some steps to cover the educational needs and the aim of the game.</p><p>In order to make the game more effective and interactive, and to drive it into a more virtual world, the 3D game framework was chosen for this game since for this age group a 3D educational game is expected to be more effective (Gunter et al, 2008; Terzidou et al, 2012) . Moreover, the use of avatars in the 3D virtual environment establishes non-verbal communication (NVC) features, which can foster collaboration interactions, and enhance the student’s ability to apply abstract knowledge later in reality (Dede, 1992; Tsiatsos and Terzidou, 2010). The log file provided shows the player points and gameplay path which indicates the performance levels for each problem set. Also, it can help teachers to evaluate each particular phase of problem-solving competence. After the success of the development of our game-based theoretical background, it will be tested and validated by experts in chemistry education. This validation process should examine if the problem-solving model is correctly applied and test the significance of the game design, scientific content and the game’s objective.</p><p>It may also be of interest to develop such video games with scientific content and educational background in other fields. It also would be a success for the scientist to apply the scientific content through a fantasy 3D video game to the students at different ages to have fun, to learn, and to assess their competencies.</p>

scholarly journals Notes on Corpoliteracy: Bodies in Post-digital Educational Contexts

2021 ◽  
pp. 167-182
Author(s):  
Gila Kolb
Keyword(s):  
Learning Environments ◽  
Teaching Practices ◽  
Power Relations ◽  
Teaching And Learning ◽  
Digital Art ◽  
Digital Learning ◽  
Conceptions Of Learning ◽  
Global Pandemic ◽  
Art Teaching ◽  
Digital Learning Environments

AbstractThis chapter demonstrates the potential to challenge power relations, and reconsider teaching practices and conceptions of learning bodies. How do bodies in a digital learning setting perform are read and observed? How they can be included in learning settings? Since teaching and learning increasingly take part in digital learning environments, especially since the outbreak of the COVID-19 global pandemic, digital art teaching needs rethinking toward the knowledge of learning bodies and of the perception of learning in the digital realm: a digital corpoliteracy.

Technology Integration in Digital Learning Environments

2018 ◽  
pp. 165-184
Author(s):  
Irene Mwingirwa Mukiri ◽  
Bonface Ngari Ireri
Keyword(s):  
Technology Integration ◽  
Learning Environments ◽  
Digital Literacy ◽  
Teaching And Learning ◽  
Digital Learning ◽  
Girls In Science ◽  
Learning Mathematics ◽  
Quasi Experimental ◽  
And Mathematics ◽  
Digital Learning Environments

Digital literacy indisputably plays a momentous role in our future lives (Allen, 2007). This chapter considers technology integration at various levels of school, ranging from primary to tertiary levels. It further shows results of a practical quasi experimental study done in Kenyan secondary schools showing how scores of students learning mathematics in a technology-based environment compared with those learning using conventional methods of teaching. The students' scores in examinations showed that the students learning using the selected application known as GeoGebra performed better and girls performed equally as well as boys when taught mathematics in a technology environment. The chapter underscores the importance of technology to improve teaching and learning process and it has promise to bridge the gap in performance between boys and girls in Science Technology Engineering and Mathematics (STEM).

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