3260 papers • 126 benchmarks • 313 datasets
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Psychology studies and behavioural observation show that humans shift their attention from one location to another when viewing an image of a complex scene. This is due to the limited capacity of the human visual system in simultaneously processing multiple visual inputs. The sequential shifting of attention on objects in a non-task oriented viewing can be seen as a form of saliency ranking. Although there are methods proposed for predicting saliency rank, they are not able to model this human attention shift well, as they are primarily based on ranking saliency values from binary prediction. Following psychological studies, in this paper, we propose to predict the saliency rank by inferring human attention shift. Due to the lack of such data, we first construct a large-scale salient object ranking dataset. The saliency rank of objects is defined by the order that an observer attends to these objects based on attention shift. The final saliency rank is an average across the saliency ranks of multiple observers. We then propose a learning-based CNN to leverage both bottom-up and top-down attention mechanisms to predict the saliency rank. Experimental results show that the proposed network achieves state-of-the-art performances on salient object rank prediction. Code and dataset are available at https://github.com/SirisAvishek/Attention_Shift_Ranks
This work proposes a novel bi-directional method to unify spatial attention and object-based attention for saliency ranking, and shows that this approach outperforms existing state-of-the-art methods.
The ranking by partition paradigm, which segments unordered salient instances into partitions and then ranks them based on the correlations among these partitions, alleviates ranking ambiguities in a general sense, as it consistently improves the performance of other saliency ranking models.
An in-depth analysis of the causes and a whole-flow processing paradigm of saliency ranking task from the perspective of “GT data generation”, “network structure design” and “training protocol”, which outperforms existing state-of-the-art methods on the widely-used SALICON set.
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