Search arXivSearch

arXiv · 2605.03873

Bodyless Presence: Reconsidering the Minimal Self in Immersive Video

Abstract

Immersive video, namely 180-degree and 360-degree video designed to be viewed through head-mounted displays, constitutes an important boundary case between interactive VR and conventional two-dimensional video viewing for reconsidering self-experience in XR. In immersive video, the user can select the direction of the viewpoint through head rotation, while being unable to actively change the recorded environment through walking, approaching, grasping, or manipulating. In many cases, no explicit body or avatar corresponding to the user is provided. This paper reinterprets presence in immersive video not as bodily extension or body ownership of an avatar, but as a form of self-experience in which self-location becomes relatively dominant under conditions of reduced body schema availability. This paper calls this condition a self-location-dominant state. In this state, viewpoint-directed agency is retained, whereas environment-directed agency and body ownership are constrained. Nevertheless, events such as viewpoint motion, impact, contact, and direct address may be experienced not merely as changes within an image, but as events concerning the viewpoint position at which the self is located. This paper examines this structure by connecting research on presence, the sense of embodiment, bodily self-consciousness, and the minimal self. The minimal self in immersive video is thereby redescribed not primarily in terms of agency or ownership, but in terms of viewpoint-based self-location established under conditions in which the contribution of the body schema is reduced. This perspective provides a basis for theorising self-experience in non-interactive immersive media and for reconsidering the relation between body, viewpoint, and presence in XR.

Explore related subjects

Keep this discovery

Explore connections, maps & timelines

BibTeXRIS

Koichi Toida. 2026-05-29. Bodyless Presence: Reconsidering the Minimal Self in Immersive Video. https://arxiv.org/abs/2605.03873

Cite the original work for its findings. Save a collection to share your selection of sources.

KEEP EXPLORING

Related papers

TrialCompass: Visual Analytics for Enhancing the Eligibility Criteria Design of Clinical Trials

Eligibility criteria play a critical role in clinical trials by determining the target patient population, which significantly influences the outcomes of medical interventions. However, current approaches for designing eligibility criteria have limitations to support interactive exploration of the large space of eligibility criteria. They also ignore incorporating detailed characteristics from the original electronic health record (EHR) data for criteria refinement. To address these limitations, we proposed TrialCompass, a visual analytics system integrating a novel workflow, which can empower clinicians to iteratively explore the vast space of eligibility criteria through knowledge-driven and outcome-driven approaches. TrialCompass supports history-tracking to help clinicians trace the evolution of their adjustments and decisions when exploring various forms of data (i.e., eligibility criteria, outcome metrics, and detailed characteristics of original EHR data) through these two approaches. This feature can help clinicians comprehend the impact of eligibility criteria on outcome metrics and patient characteristics, which facilitates systematic refinement of eligibility criteria. Using a real-world dataset, we demonstrated the effectiveness of TrialCompass in providing insights into designing eligibility criteria for septic shock and sepsis-associated acute kidney injury. We also discussed the research prospects of applying visual analytics to clinical trials.

cs.HC

Mirror Skin: In Situ Visualization of Robot Touch Intent on Robotic Skin

Effective communication of robot touch intent is essential for safe and predictable physical human-robot interaction. While intent communication has been widely studied, existing approaches lack the spatial specificity and semantic depth necessary to efficiently convey robot touch intent. We present Mirror Skin, a cephalopod inspired concept that mirrors in-situ visual representations of a human's body parts onto the corresponding robot's touch region to communicate who shall initiate touch, where it will occur, and when it is imminent. We informed the design of Mirror Skin through a structured design exploration with experts and demonstrate the real-world feasibility of Mirror Skin with a proof-of-concept prototype. User studies in VR and with the physical prototype showed that Mirror Skin significantly improves accuracy and response times for interpreting touch intent and improves the user experience during physical human-robot interactions.

cs.HC

VisCanvas: A Node-Based Interface for Exploratory Visualization Authoring with LLMs

Visual data analysis involves both open-ended exploration and targeted question answering. Visualization authoring tools support this process by enabling users to create visualizations for these tasks. With the rise of large language models (LLMs), substantial effort has been devoted to developing visualization authoring tools that use natural language instructions. However, existing systems are typically based on a linear chat interface, which is not well suited to exploratory visual analysis workflows. In this paper, we introduce VisCanvas, a node-based interface for exploratory visualization authoring with LLMs. VisCanvas allows users to create, revise, branch, and merge visualizations in a non-linear way, enabling more efficient exploration of multiple analytical directions. We conducted a user study with 20 participants to evaluate the effectiveness of VisCanvas compared to a baseline chat-based interface. The results show that VisCanvas facilitates more diverse data interaction while maintaining performance levels (i.e., cognitive load and usability) that are indistinguishable from current prevailing methods. We then distill design principles for future AI-assisted visualization authoring environments. All supplemental materials required to reproduce the study are available at https://osf.io/gsxhn.

cs.HC