The authors present a novel way of oral language training by embedding the English as a foreign language (EFL) learning process into a generic 3D Cooperative Virtual Reality (VR) Game. Due to lack of time, resources and innovation, the language classroom is limited in its possibilities of promoting authentic communication. Therefore, the researchers investigated how to induce a VR setting with information gaps, for which they designed a template which intrinsically promotes communication and the students' confidence in using EFL. Thereby, VR enables the simulation of real life situations, creating both comfortable and authentic training environments. The game content is based on the internationally approved Graded Examination in Spoken English (GESE) Trinity Exam and can be adapted to the needs of the learners or the given curricula. The empirical analysis shows that the designed game trains the students' communication skills, evoking a high amount of speech and a qualitative linguistic output.

The authors present a novel way of oral language training by embedding the English as a foreign language (EFL) learning process into a generic 3D Cooperative Virtual Reality (VR) Game. Due to lack of time, resources and innovation, the language classroom is limited in its possibilities of promoting authentic communication. Therefore, the researchers investigated how to induce a VR setting with information gaps, for which they designed a template which intrinsically promotes communication and the students' confidence in using EFL. Thereby, VR enables the simulation of real life situations, creating both comfortable and authentic training environments. The game content is based on the internationally approved Graded Examination in Spoken English (GESE) Trinity Exam and can be adapted to the needs of the learners or the given curricula. The empirical analysis shows that the designed game trains the students' communication skills, evoking a high amount of speech and a qualitative linguistic output.

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We present a system to simulate the dynamic object behavior of an automation plant within an interactive virtual environment. The area of application is the field of industrial training and educational software systems. Our contribution is a method to simulate the material flow through the plant in real time using a time discrete game physics simulator in combination with a petri net based state model. The dynamic behavior of virtual objects and the user interaction with the virtual environment is described using a component-and data flow based approach. We conducted several test series to assess the physical plausibility of our model.

No abstract