混合现实
空间能力
虚拟现实
模式
增强现实
空间学习
人机交互
考试(生物学)
对象(语法)
接口(物质)
心理学
计算机科学
认知
人工智能
神经科学
生物
气泡
并行计算
古生物学
社会学
最大气泡压力法
社会科学
作者
Simon Ho,Pu Liu,Daniela J. Palombo,Todd C. Handy,Claudia Krebs
摘要
The use of mixed reality in science education has been increasing and as such it has become more important to understand how information is learned in these virtual environments. Spatial ability is important in many learning contexts, but especially in neuroanatomy education where learning the locations and spatial relationships between brain regions is paramount. It is currently unclear what role spatial ability plays in mixed reality learning environments, and whether it is different compared to traditional physical environments. To test this, a learning experiment was conducted where students learned neuroanatomy using both mixed reality and a physical plastic model of a brain (N = 27). Spatial ability was assessed and analyzed to determine its effect on performance across the two learning modalities. The results showed that spatial ability facilitated learning in mixed reality (β = 0.21, P = 0.003), but not when using a plastic model (β = 0.08, P = 0.318). A non-significant difference was observed between the modalities in terms of knowledge test performance (d = 0.39, P = 0.052); however, mixed reality was more engaging (d = 0.59, P = 0.005) and learners were more confident in the information they learned compared to using a physical model (d = 0.56, P = 0.007). Overall, these findings suggest that spatial ability is more relevant in virtual learning environments, where the ability to manipulate and interact with an object is diminished or abstracted through a virtual user interface.
科研通智能强力驱动
Strongly Powered by AbleSci AI