Overview

Visual saliency asks where people look and which regions are most important, supporting applications such as scene understanding, assistive vision, and safety. Methods range from biologically inspired contrast and motion models to deep networks that predict gaze maps, detect salient objects, or explain a model’s decisions; newer approaches condition attention on language, task goals, or scene semantics. Evaluation relies on eye-tracking and crowdsourced fixation benchmarks, object masks, and tests of whether highlighted regions faithfully explain model behavior. A central challenge is that attention varies with motion, goals, and individual or demographic differences, while many benchmarks and metrics still favor static scenes or central viewing bias.

Latest papers

31 papers3 papers in the last four weeks, level with the four weeks before. 0.0% of all new papers.

Mar 3, 2026

Interpretable Motion-Attentive Maps: Spatio-Temporally Localizing Concepts in Video Diffusion Transformers

Video Diffusion Transformers (DiTs) have been synthesizing high-quality video with high fidelity from given text descriptions involving motion. However, understanding how Video DiTs convert motion words into video remains insufficient. Furthermore, while prior studies on interpretable saliency maps primarily target objects, motion-related behavior in Video DiTs remains largely unexplored. In this paper, we investigate concrete motion features that specify when and which object moves for a given motion concept. First, to spatially localize, we introduce GramCol, which adaptively produces per-frame saliency maps for any text concept, including both motion and non-motion. Second, we propose a motion-feature selection algorithm to obtain an Interpretable Motion-Attentive Map (IMAP) that localizes motion spatially and temporally. Our method discovers concept saliency maps without the need for any gradient calculation or parameter update. Experimentally, our method shows outstanding localization capability on the motion localization task and zero-shot video semantic segmentation, providing interpretable and clearer saliency maps for both motion and non-motion concepts.