How Will VR Enter University Classrooms? Multi-stakeholders Investigation of VR in Higher Education

Document Title

How Will VR Enter University Classrooms? Multi-stakeholders Investigation of VR in Higher Education

Document Information

• Topic Area: Application and implementation of virtual reality technology in higher education classrooms
• Keywords: Virtual reality, higher education, multi-stakeholders, educational VR, collaboration, social VR

Research Background and Issues

• Identified Challenges:

  • The potential of virtual reality (VR) in education has been widely discussed, especially in the context of the rise of the "metaverse," but challenges remain in terms of technological maturity, practical classroom applications, and coordination among multiple stakeholders.
  • Existing research primarily focuses on VR applications for specific educational goals or laboratory settings, without adequately addressing the integration challenges of VR in higher education classrooms.
  • Higher education is a complex ecosystem, and the adoption of technology involves interactions and strategic planning among various stakeholders, adding complexity to the classroom application of VR.

• Research Significance:

  • VR has the potential to enhance social presence, enrich teaching content, and overcome limitations of learning environments, aligning with constructivist learning theory. However, its application still faces issues of accessibility and universality.
  • Understanding the perspectives of multiple stakeholders can facilitate the effective integration of VR into higher education and help design VR technologies that better meet classroom needs.

• Research Motivation and Related Work:

  • Investigate the challenges and potential strategies needed for VR to become a standard classroom tool.
  • Focus on the perspectives and needs of different roles in the higher education environment, such as professors, students, and technical support staff.
  • Complement previous research that emphasizes single-stakeholder perspectives, aiming to provide comprehensive insights from the stakeholder ecosystem.

Solutions

• Proposed Solutions:

  • Employ a multi-method research approach, including interviews and participatory design workshops, to identify priorities and technological possibilities for implementing VR in classrooms with multiple stakeholders.
  • Focus on immersive VR (head-mounted devices), prioritizing commercial availability and natural immersion, to study its technological design directions and classroom application barriers.

• Innovative Aspects:

  • Understand the integration of VR in higher education from the perspective of multiple stakeholders, rather than limiting the focus to students or teachers alone.
  • Provide technical recommendations on design, management, and resource creation to address key barriers such as accessibility, cost, and health concerns.

• Implementation Steps:

  1. First Round of Interviews: Conduct separate interviews with professors and students to explore their views and needs regarding educational VR, identifying preliminary stakeholder groups.
  2. Participatory Design Workshops:
     • Technology Feasibility Workshop: Allow participants to experience available VR educational applications and discuss usage scenarios.
     • Creative Workshop: Facilitate thematic discussions, prioritize needs, and design ideal educational VR features.
  3. Second Round of Interviews: Recruit key stakeholders identified in the first round of workshops (e.g., IT support staff) to further explore the complexities of multi-stakeholder collaboration.
  4. Qualitative Content Analysis: Code and analyze data from interviews and workshops to derive higher-level findings and recommendations.

Research Outcomes

• Specific Outcomes:

  • Identified Stakeholders: Not only teachers and students but also technical support staff, digital accessibility advocates, and content creation teams.
  • Key Drivers for VR Applications: Examples include enhancing social presence, accessing otherwise inaccessible learning environments, supporting visual and spatial knowledge comprehension, promoting embodied learning, and attracting students through technological novelty.
  • Main Challenges: High course design investment, financial costs, health issues (e.g., dizziness, headaches), and technical management difficulties (e.g., device maintenance and classroom organization).

• Advantages Compared to Existing Solutions:

  • Provides a comprehensive understanding from multiple stakeholder perspectives, enhancing the directionality of technological solution design.
  • Stimulates creativity through workshops, exploring ways to improve educational VR functionality.

• Experimental or Evaluation Results:

  • Identified multiple design directions and technical requirements, such as VR support for safe space settings, optimizing avatar realism, and effective classroom device management.
  • Proposed 24 design ideas to address health issues, including lightweight headset designs and features to alleviate motion sickness.

• Limitations and Future Directions:

  • Limitations: The study is primarily based on a sample from a Midwestern university, lacking representation of diverse educational environments and cultures.
  • Future Directions:
    • Expand exploration of educational VR formats, such as CAVE virtual reality systems.
    • Strengthen quantitative research on the needs of different disciplines.
    • Consider further enhancement of VR creation and content customization support.

Design Direction Recommendations

1. Focus on Equity:
   • Develop adaptive VR features to address differences in gender and physical abilities (e.g., adjustable screen distance and portable devices).
   • Support cross-platform collaboration to reduce equipment costs.
2. Enhance Collaborative Social Experiences:
   • Improve the realism of virtual avatars to avoid the "uncanny valley" effect.
   • Design dynamic role perspectives tailored to different classroom formats.
3. Promote Institutional Support:
   • Create university-level VR resource libraries and training platforms to support long-term sustainable applications.
   • Provide course design templates and interdisciplinary creative environments to reduce the content creation burden on professors.