toplogo
Sign In

Investigating the Influence of Text Descriptions on Visual Attention: A Database and Predictive Model


Core Concepts
Text descriptions significantly influence human visual attention on corresponding images, and integrating both image and text features can improve the performance of saliency prediction models.
Abstract
The authors conducted a comprehensive study on text-guided image saliency (TIS) from both subjective and objective perspectives. They first constructed a new TIS database named SJTU-TIS, which includes 1200 text-image pairs and the corresponding eye-tracking data. The SJTU-TIS database was designed to investigate the influence of various text descriptions on visual attention. The authors then analyzed the effects of different text descriptions on visual attention and found that image saliency is significantly influenced by text descriptions. They also established a benchmark for the SJTU-TIS database using state-of-the-art saliency models. To address the impact of text descriptions on visual attention, the authors proposed a text-guided saliency (TGSal) prediction model. The TGSal model extracts and integrates both image features and text features to predict the image saliency under various text-description conditions. Experimental results demonstrate that the TGSal model significantly outperforms the state-of-the-art saliency models on both the SJTU-TIS database and pure image saliency databases.
Stats
The SJTU-TIS database contains 600 images and 1200 text descriptions, resulting in 1200 text-image pairs.
Quotes
"Text descriptions can significantly influence the corresponding visual attention to visual stimuli." "It is obvious that text descriptions can significantly influence the corresponding visual attention to visual stimuli."

Deeper Inquiries

How can the proposed TGSal model be extended to handle more complex text-image relationships, such as multi-sentence descriptions or dynamic text changes

The proposed TGSal model can be extended to handle more complex text-image relationships by incorporating advanced natural language processing (NLP) techniques and image processing methods. Multi-Sentence Descriptions: To handle multi-sentence descriptions, the model can be modified to process and extract features from each sentence separately. This can involve using recurrent neural networks (RNNs) or transformers to encode the sequential information from multiple sentences. The extracted text features can then be fused with image features at different levels to capture the nuanced relationships between the text and image. Dynamic Text Changes: For dynamic text changes, the model can be designed to adapt in real-time to the evolving text descriptions. This can be achieved by implementing a mechanism that continuously updates the text features based on the changing text input. Attention mechanisms can be utilized to focus on relevant parts of the text and image during inference, allowing the model to dynamically adjust its predictions based on the evolving text guidance. By incorporating these enhancements, the TGSal model can effectively handle more complex text-image relationships, such as multi-sentence descriptions and dynamic text changes, leading to more accurate and context-aware visual saliency predictions.

What are the potential applications of the text-guided saliency prediction beyond the image domain, such as in video or augmented reality scenarios

The potential applications of text-guided saliency prediction extend beyond the image domain to various other domains, including video analysis and augmented reality scenarios. Video Analysis: In the context of video analysis, text-guided saliency prediction can be utilized to predict the most visually salient regions in videos based on accompanying text descriptions. This can be beneficial in video summarization, content recommendation, and video editing, where understanding the visual importance of different segments in a video is crucial. Augmented Reality (AR) Scenarios: In AR scenarios, text-guided saliency prediction can enhance the user experience by highlighting relevant visual elements based on textual cues. For instance, in AR applications that overlay digital information on the physical world, text-guided saliency prediction can help in identifying key points of interest and guiding users' attention to specific areas of the augmented environment. By integrating text-guided saliency prediction into video analysis and AR scenarios, it can facilitate more personalized and context-aware experiences, leading to improved content understanding and user engagement.

How can the insights from this study on the influence of text on visual attention be applied to improve human-computer interaction and user experience design

The insights from the study on the influence of text on visual attention can be applied to improve human-computer interaction (HCI) and user experience design in various ways: Content Presentation: By understanding how text descriptions influence visual attention, HCI designers can optimize the presentation of textual and visual content on interfaces. This can involve strategically placing text to guide users' attention to important visual elements or using text to provide context for images, enhancing the overall user experience. Interactive Systems: Incorporating text-guided saliency prediction into interactive systems can enable more intuitive and responsive interfaces. For example, in gaming applications, text descriptions can be used to dynamically adjust the visual focus based on user interactions, creating a more engaging and immersive experience. Accessibility: Understanding the impact of text on visual attention can also benefit accessibility design. By considering how text descriptions influence the perception of visual content, designers can create interfaces that cater to users with diverse cognitive abilities and preferences, ensuring a more inclusive user experience. Overall, leveraging the insights from text-guided saliency prediction can lead to more effective and user-centric HCI designs, enhancing the interaction between users and digital systems.
0
visual_icon
generate_icon
translate_icon
scholar_search_icon
star