Virtual Transcendent Dream: Empowering People through Embodied Flying in VR
Authors
Document Title
Virtual Transcendent Dream: Empowering People through Embodied Flying in Virtual Reality
Document Information
- Subject Area: Transcendent experiences in virtual reality and user perception design
- Keywords: Dream flying, self-transcendence, flight simulation, gravity imagery, virtual reality, self-efficacy, bodily perception, sensorimotor illusion
Research Background and Issues
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Identified Problems or Challenges:
- Dream flying is an important experience with self-transcendent characteristics, but it is difficult for people to actively induce such dream experiences through conventional means.
- Virtual reality (VR) is considered effective in supporting profound emotional experiences, but how to design VR flying experiences to simulate the unique characteristics of dream flying remains unclear.
- Existing flight interfaces lack bodily perception elements, which may fail to effectively promote self-transcendent emotions and self-efficacy.
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Significance:
- Self-transcendent experiences can reduce ego salience, enhance overall mental health, and promote altruistic behavior and social harmony.
- The empowerment in dream flying can enhance psychological resilience and confidence by increasing individuals' sense of success in tasks.
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Research Motivation:
- To explore the design of VR flying experiences to simulate the emotional benefits of dream flying.
- To compare different flight interfaces to evaluate whether bodily perception can enhance self-transcendence and self-efficacy.
Solution
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Methods or Solutions:
- This study designed an innovative VR dream flying experience and compared two flight interfaces:
- Handheld Controller: Representing a low-embodiment interface.
- HeadJoystick: Representing a high-embodiment interface that provides motion perception cues.
- This study designed an innovative VR dream flying experience and compared two flight interfaces:
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Innovations:
- Combining self-transcendent emotions (e.g., awe, serenity, connectedness) with empowerment (a sense of control through bodily perception).
- Creating a multisensory environment (e.g., lighting and sound) to simulate dream flying scenarios.
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Implementation Steps and Key Technologies:
- Flight Scene Design: Gradual transitions from a dark room to the sky, clouds, outer space, and a luminous forest.
- Multisensory Setup: Providing lighting and sound elements, with lighting indicating the next stage of the experience.
- User Interface Comparison: Completing flight tasks using the HeadJoystick and handheld controller.
- Experimentation and Data Collection:
- Using questionnaires to quantify changes in users' self-transcendence and self-efficacy experiences.
- Collecting subjective user feedback on the flight experience through interviews.
Research Findings
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Specific Findings:
- Compared to the handheld controller, the HeadJoystick significantly enhanced users' sense of self-efficacy and self-transcendence (especially non-dual awareness and connectedness).
- The HeadJoystick significantly increased users' bodily engagement and sensorimotor illusions.
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Advantages over Existing Solutions:
- The HeadJoystick reduced cognitive load and enhanced a seamless flying experience.
- It provided a more intuitive and embodied flight control method, resulting in a more authentic self-transcendent experience.
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Experimental or Evaluation Results:
- Quantitative data indicated that the HeadJoystick better supported users' self-efficacy (with a significant increase in average efficacy scores).
- Subjective interviews revealed that bodily perception enhanced immersion and emotional engagement with the virtual environment.
- No fully significant differences in emotions like "awe" were observed, but users generally perceived the VR environment as transcendent.
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Limitations and Future Directions:
- Some experimental data were affected by limitations due to COVID-19, and the sample size was relatively small.
- The flight experience may require further testing in cross-cultural contexts to avoid the influence of a single cultural background.
- Interface adjustments (e.g., reducing physical fatigue from the HeadJoystick) are a direction for future optimization.
- Future research could explore integrating dream research techniques (e.g., targeted memory reactivation) into devices to enhance VR emotional experiences.
Systematic Design Recommendations
- Ambiguity: Design abstract and open virtual scenes that allow users to assign meaning based on their personal background.
- Lighting Element Design: Dynamic "non-natural lighting" can provide a sense of vitality and appeal, enhancing transcendent experiences.
- Environmental Setup and Transitional Rituals: Designing guided meditation and gradual transitional scenes before the experience can provide users with a more complete emotional connection.
Research Questions / Practical Problems
Question signals indexed for this paper.
Research Questions
3- How can flying experiences in virtual reality be designed to simulate the unique characteristics and emotional benefits of dream flight?Category: XR Embodied Interaction and Body MappingSimilar questionsarrow_forward
- Do high-embodiment flying interfaces (e.g., HeadJoystick) enhance users' self-efficacy and self-transcendence more than low-embodiment interfaces (e.g., handheld controllers)?Category: XR Embodied Interaction and Body MappingSimilar questionsarrow_forward
- How do multisensory settings in flight scenes (e.g., lighting and sound) affect users' immersion and emotional engagement?Category: XR Embodied Interaction and Body MappingSimilar questionsarrow_forward
Practical Problems
1- People cannot autonomously experience the emotional benefits of dream flight through traditional means.Category: XR Embodied Interaction and Body MappingSimilar questionsarrow_forward
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