C$^{4}$Net: Contextual Compression and Complementary Combination Network for Salient Object Detection

22 Oct 2021  ยท  Hazarapet Tunanyan ยท

Deep learning solutions of the salient object detection problem have achieved great results in recent years. The majority of these models are based on encoders and decoders, with a different multi-feature combination. In this paper, we show that feature concatenation works better than other combination methods like multiplication or addition. Also, joint feature learning gives better results, because of the information sharing during their processing. We designed a Complementary Extraction Module (CEM) to extract necessary features with edge preservation. Our proposed Excessiveness Loss (EL) function helps to reduce false-positive predictions and purifies the edges with other weighted loss functions. Our designed Pyramid-Semantic Module (PSM) with Global guiding flow (G) makes the prediction more accurate by providing high-level complementary information to shallower layers. Experimental results show that the proposed model outperforms the state-of-the-art methods on all benchmark datasets under three evaluation metrics.

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Results from the Paper


 Ranked #1 on RGB Salient Object Detection on PASCAL-S (mean E-Measure metric)

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Task Dataset Model Metric Name Metric Value Global Rank Result Benchmark
RGB Salient Object Detection DUT-OMRON C4Net MAE 0.047 # 7
mean F-Measure 0.788 # 4
mean E-Measure 0.865 # 4
RGB Salient Object Detection DUTS-TE C4Net MAE 0.029 # 7
mean E-Measure 0.937 # 4
mean F-Measure 0.886 # 4
RGB Salient Object Detection ECSSD C4Net MAE 0.029 # 4
mean F-Measure 0.939 # 2
mean E-Measure 0.957 # 1
RGB Salient Object Detection HKU-IS C4Net MAE 0.025 # 4
mean F-Measure 0.931 # 2
mean E-Measure 0.961 # 1
RGB Salient Object Detection PASCAL-S C4Net MAE 0.055 # 5
mean F-Measure 0.861 # 2
mean E-Measure 0.904 # 1

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