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MFP: Making Full Use of Probability Maps for Interactive Image Segmentation
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Proposes MFP, which modulates previous-round probability maps with gamma correction around user clicks and feeds them, late-fused with backbone features, into click-based interactive segmentation networks trained with recursive click sampling.
Problem
Previous-round probability maps are used as network input in click-based interactive segmentation, but their useful information (object shape) is not well propagated to current predictions.
Approach
Modulate the previous probability map with click-dependent gamma correction (increase probabilities near foreground clicks, decrease near background clicks), feed the modulated map as extra input, late-fuse probability features with backbone features, and train with a recursive click-sampling scheme.
Key results
- With ViT-B trained on SBD, MFP achieves NoC85 of 1.39 on Berkeley and 3.92 on DAVIS, versus 1.44 and 4.10 for SimpleClick.
- MFP (ViT-B) reports the best NoC95 on DAVIS (11.27 vs 12.24 for SimpleClick) when trained on SBD.
- Out of 36 settings comparing identical backbones, MFP shows superior results in 28 settings.
Measured effects reported in the paper
| What was changed | Where | Measured | Effect |
|---|---|---|---|
| add modulated probability-map input, late fusion, and recursive training (ablation) | ViT-B MFP · DAVIS | NoC@85: 4.10 -> 3.92 | Helped |
| add modulated probability-map input, late fusion, and recursive training (ablation) | ViT-B MFP · DAVIS | NoC@90: 5.60 -> 5.32 | Helped |
| add modulated probability-map input, late fusion, and recursive training (ablation) | ViT-B MFP · DAVIS | NoC@95: 11.58 -> 11.27 | Helped |
| add recursive training instead of the prior training procedure (ablation) | ViT-B MFP · DAVIS | NoC@85: 3.98 -> 3.92 | Helped |
| add recursive training instead of the prior training procedure (ablation) | ViT-B MFP · DAVIS | NoC@90: 5.35 -> 5.32 | No clear effect |
| add recursive training instead of the prior training procedure (ablation) | ViT-B MFP · DAVIS | NoC@95: 11.79 -> 11.27 | Helped |
Limitations
- Gains over the strongest baselines are often small (margins under 0.1 NoC in several settings).
- Relies on fixed hyperparameters (N=7, Rmax=100) chosen without a reported sensitivity study.
Experimental setup
Datasets: SBD COCO LVIS GrabCut Berkeley DAVIS
Benchmarks: GrabCut Berkeley DAVIS SBD
Metrics: NoC85 NoC90 NoC95 AUC of mIoU
Baselines: SimpleClick FocalClick EMC-Click CDNet RITM iCMFormer GPCIS PseudoClick FocusCut BRS f-BRS DynaMITe
Builds on: SimpleClick RITM f-BRS Xception
Closest papers by meaning
- TETRIS: Towards Exploring the Robustness of Interactive Segmentation (AAAI 2024 · similarity 0.86)
- RClicks: Realistic Click Simulation for Benchmarking Interactive Segmentation (NeurIPS 2024 · similarity 0.86)
- NTClick: Achieving Precise Interactive Segmentation With Noise-tolerant Clicks (CVPR 2025 · similarity 0.85)
- Repurposing Stable Diffusion Attention for Training-Free Unsupervised Interactive Segmentation (CVPR 2025 · similarity 0.85)
- Order-aware Interactive Segmentation (ICLR 2025 · similarity 0.85)
- Rethinking Interactive Image Segmentation with Low Latency High Quality and Diverse Prompts (CVPR 2024 · similarity 0.85)
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