Framework for Scalable Content Development in Hands-On Virtual and Mixed Reality Science Labs

Kambiz M. Hamadani, Yuanyuan Jiang, A. Ahmadinia, A. Hadaegh, Juan Moraleja-Garcia, A.E. Mendez, Arshia Shaikh, Andres Lozano, Jane Huang, Ariel Aquino, Ryann Palacio, Maxwell Sheperd
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Abstract

Authentic hands-on laboratory research is essential for undergraduate STEM education. Yet the tactile authenticity required to impact affective, cognitive, or psychomotor learning outcomes associated with laboratory training remains underexplored. Virtual and mixed reality (VR/MR) have enabled increasingly realistic hands-on STEM training experiences. However, they still lack authenticity with regard to user manipulation of fully functional and realistic laboratory tools, analysis of realistic (i.e. user-acquired) noisy data, and the application of critical thinking skills to draw conclusions from such noisy (and possible faulty) data. Here we present efforts to develop such an approach while also providing faculty content experts tools for code-free customization of VR/MR training experiences via structured spreadsheets. This approach enables nuanced real-time user feedback on laboratory skills such as proper pipetting or sterile technique which are otherwise difficult to provide. It also offers complete safety from chemical, biological, and radiological hazards and is more cost-effective than a traditional lab. This Hands-On Virtual-Reality (HOVR) Lab platform is uniquely enabling and will be valuable in the physical and life sciences for both research and instructional applications.
框架可扩展的内容开发在动手虚拟和混合现实科学实验室
真正的动手实验室研究对本科STEM教育至关重要。然而,与实验室训练相关的影响情感、认知或精神运动学习结果所需的触觉真实性仍未得到充分探索。虚拟和混合现实(VR/MR)使STEM培训体验变得越来越现实。然而,在用户操作功能齐全且真实的实验室工具、分析真实的(即用户获得的)嘈杂数据以及应用批判性思维技能从这些嘈杂(和可能错误的)数据中得出结论方面,它们仍然缺乏真实性。在这里,我们展示了开发这种方法的努力,同时还通过结构化电子表格为教师内容专家提供无代码定制VR/MR培训体验的工具。这种方法能够对实验室技能(如正确移液或无菌技术)提供细微的实时用户反馈,否则很难提供这些反馈。它还提供完全安全的化学、生物和放射性危害,比传统实验室更具成本效益。这个动手虚拟现实(HOVR)实验室平台是独特的,将在物理和生命科学的研究和教学应用中有价值。
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