Opportunities for Human-AI Collaboration in Remote Sighted Assistance
Authors
Voice AccessibilityAR Navigation & Context AwarenessDeaf & Hard-of-Hearing Support (Captions, Sign Language, Vibration)Community Health WorkersAssistive Technology Specialists
Title of the Paper
"Opportunities for Human-AI Collaboration in Remote Sighted Assistance"
Paper Information
- Subject Area: Human-AI Collaboration, Assistive Navigation Technology for the Visually Impaired, Applications of Computer Vision
- Keywords: Visually Impaired, Remote Sighted Assistance, Conversational Assistive Technology, Artificial Intelligence, Computer Vision, Smartphones, Navigation Technology, 3D Maps, Augmented Reality
Research Background and Issues
-
Identified Problems or Challenges:
- Remote Sighted Assistance (RSA) technology for people with visual impairments (PVI) faces several operational challenges in terms of technology and navigation:
- Assistants struggle with accurately locating users and determining their orientation.
- Difficulty in identifying the user's surrounding environment and obstacles, particularly in tracking and recognizing dynamic and static obstacles.
- Unstable network connections further impact video transmission quality.
- Assistants lack contextual knowledge of the environment and access to detailed map data.
- In navigation scenarios, the real-time and multimodal support required by visually impaired individuals is still limited by current technology.
- Literature reviews and user studies indicate that navigation challenges cannot be fully addressed solely from a technological or human perspective, highlighting the need for new collaborative solutions between technology and humans.
- Remote Sighted Assistance (RSA) technology for people with visual impairments (PVI) faces several operational challenges in terms of technology and navigation:
-
Significance of the Research:
- Enabling visually impaired individuals to move independently and safely in complex navigation environments is critical.
- The increasing complexity of tasks in current RSA systems demands advanced technological development.
- Addressing the limitations of existing computer vision technologies to better support visually impaired users has the potential to significantly improve current assistive systems.
-
Motivation and Related Work:
- The authors reviewed the state of assistive technologies based on smartphones, GPS, and computer vision (CV), as well as their development over the years.
- Existing work primarily focuses on unidirectional assistance for users rather than integrated, cross-disciplinary technological capabilities.
- The authors emphasize the need to advance related technologies through "Human-Computer Vision Collaboration."
Solutions
-
Proposed Methods or Solutions:
- Develop a new interaction framework using computer vision technology and 3D maps.
- Enhance video streaming and navigation information delivery to improve the visual processing capabilities of remote assistants.
- Propose five emerging areas of collaboration to bridge the gap between humans and AI, enabling more advanced RSA services.
-
Innovative Aspects of the Solution:
- Utilize AR devices (e.g., smartphones with integrated LiDAR) to generate high-quality 3D maps, improving environmental understanding for navigation.
- Propose the development of "blind-aware" computer vision systems, allowing AI to comprehend more complex human behaviors.
- Emphasize "Human-AI" collaboration to address the limitations of current AI technologies in dynamic environments.
-
Implementation Steps and Key Technologies:
-
3D Map Construction:
- Use ARKit or ARCore frameworks to build 3D maps of the user's environment, supporting real-time navigation.
-
Map Enhancement and Annotation:
- Incorporate multimodal data annotations from volunteers to integrate precise information into the maps.
-
Map-Based Localization and Trajectory Prediction:
- Use AI algorithms to predict user paths and dynamic obstacle trajectories.
-
Enhancing Video and Interaction:
- Align enhanced video with landmarks and the real-time environment.
- Improve the efficiency of voice and video communication.
-
Research Outcomes
-
Specific Achievements:
- Reinterpreted challenges in spatial and node processing, proposing improved pathways for technical feasibility.
- Introduced five new research questions for Human-Computer Vision Collaboration:
- Creating Blind-Aware Algorithms: Ensure AI navigation systems can understand the language and behavioral patterns of visually impaired users.
- User Localization in Poor Network Conditions: Develop "offline distributed navigation" with low bandwidth requirements.
- Digital Display Reading: Enhance AI's ability to recognize content on LCD and dynamic screens.
- Reading Text on Irregular Surfaces: Optimize algorithms for distorted or curved surfaces.
- External Obstacle Trajectory Prediction: Predict trajectories of potential objects outside the field of view.
-
Comparative Advantages Over Existing Solutions:
- Enables RSA assistants to access more comprehensive contextual visual information in real time.
- Reduces uncertainty caused by unfamiliar environments through the use of assistive maps (e.g., 3D maps).
- Enhances task automation and reliability, reducing cognitive load.
-
Experimental or Evaluation Results:
- Validated existing issues through interviews based on users' actual needs for RSA services.
- Proposed a theoretical framework for AI + human joint task design, encouraging the research community to further validate the model's applicability.
-
Limitations and Future Directions:
- Limitations:
- The practicality of current AR technology is still constrained by accuracy issues.
- Lack of quantitative experimental evidence on user acceptance of the new model.
- Future Directions:
- Provide more robust and adaptive solutions for dynamic scenarios.
- Further develop open datasets with semantic annotations to support innovative research.
- Expand to a broader diversity of users, including road adaptation experiments in multicultural contexts.
- Limitations:
Research Questions / Practical Problems
Question signals indexed for this paper.
help
Research Questions
3- How can "blind-aware" algorithms be designed to understand the language and behavior patterns of visually impaired users?Category: Spatial Navigation, Orientation, and Mobility AssistanceSimilar questionsarrow_forward
- How can low-bandwidth offline distributed navigation be achieved under poor network conditions?Category: Spatial Navigation, Orientation, and Mobility AssistanceSimilar questionsarrow_forward
- How can AI optimize recognition of text on irregular surfaces (e.g., curved or warped surfaces)?Category: Spatial Navigation, Orientation, and Mobility AssistanceSimilar questionsarrow_forward
lightbulb
Practical Problems
1- Blind users have insufficient environmental awareness and obstacle avoidance when using remote visual assistance.Category: Spatial Navigation, Orientation, and Mobility AssistanceSimilar questionsarrow_forward
No related papers with ≥60% similarity
Based on Jaccard similarity of research subtopics & professions (≥60%)
Quick Actions
AdRecommended
Learn AI Coding at CodeNow
open_in_newOpen DOI Link
DOI: https://dl.acm.org/doi/10.1145/3490099.3511113
At a Glance
fact_checkPaper Snapshot
dataset
Source
IUI
calendar_month
Year
2022
emoji_events
Award
No award tagged
group
Authors
5 authors
sell
Subtopics
Voice Accessibility, AR Navigation & Context Awareness, Deaf & Hard-of-Hearing Support (Captions, Sign Language, Vibration)
work
Professions
Community Health Workers, Assistive Technology Specialists
article
Content Status
Full text indexed
hub
Related Papers
0 related papers