'I Can See Forever!': Evaluating Real-time VideoLLMs for Assisting Individuals with Visual Impairments

Bibliographic Details
Title: 'I Can See Forever!': Evaluating Real-time VideoLLMs for Assisting Individuals with Visual Impairments
Authors: Zhang, Ziyi, Sun, Zhen, Zhang, Zongmin, Peng, Zifan, Zhao, Yuemeng, Wang, Zichun, Luo, Zeren, Zuo, Ruiting, He, Xinlei
Publication Year: 2025
Collection: Computer Science
Subject Terms: Computer Science - Computer Vision and Pattern Recognition, Computer Science - Artificial Intelligence, Computer Science - Human-Computer Interaction, Computer Science - Multimedia
Description: The visually impaired population, especially the severely visually impaired, is currently large in scale, and daily activities pose significant challenges for them. Although many studies use large language and vision-language models to assist the blind, most focus on static content and fail to meet real-time perception needs in dynamic and complex environments, such as daily activities. To provide them with more effective intelligent assistance, it is imperative to incorporate advanced visual understanding technologies. Although real-time vision and speech interaction VideoLLMs demonstrate strong real-time visual understanding, no prior work has systematically evaluated their effectiveness in assisting visually impaired individuals. In this work, we conduct the first such evaluation. First, we construct a benchmark dataset (VisAssistDaily), covering three categories of assistive tasks for visually impaired individuals: Basic Skills, Home Life Tasks, and Social Life Tasks. The results show that GPT-4o achieves the highest task success rate. Next, we conduct a user study to evaluate the models in both closed-world and open-world scenarios, further exploring the practical challenges of applying VideoLLMs in assistive contexts. One key issue we identify is the difficulty current models face in perceiving potential hazards in dynamic environments. To address this, we build an environment-awareness dataset named SafeVid and introduce a polling mechanism that enables the model to proactively detect environmental risks. We hope this work provides valuable insights and inspiration for future research in this field.
Comment: 12 pages, 6 figures
Document Type: Working Paper
Access URL: http://arxiv.org/abs/2505.04488
Accession Number: edsarx.2505.04488
Database: arXiv
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