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CoMS-UNet: A Cohesive Multi-Scale Network for Semantic Reorganization and Scale-Aware Context Modeling in Remote
Yankai Wang1, Shaochen Jiang1, Liejun Wang1
1School of Computer Science and Technology, Xinjiang University, Huarui Street, Urumqi 830046, China.
Sensors (Basel, Switzerland)
|August 13, 2026
Summary
CoMS-UNet enhances semantic segmentation for remote sensing by improving feature coordination, scale-aware context, and channel information exchange. This cohesive multi-scale U-Net achieves superior land-cover interpretation accuracy.
Area of Science:
- Remote Sensing
- Computer Vision
- Artificial Intelligence
Background:
- Semantic segmentation is crucial for detailed land-cover analysis in high-resolution remote sensing imagery.
- Existing methods struggle with multi-stage feature integration, scale-aware context, and cross-channel communication in decoders.
Purpose of the Study:
- To propose CoMS-UNet, a novel U-Net architecture designed to overcome limitations in current semantic segmentation techniques for remote sensing.
- To enhance feature representation by integrating semantic reorganization, scale-aware context modeling, and channel-aware decoder reconstruction.
Main Methods:
- CoMS-UNet employs a Multi-Scale Semantic Reorganization Module (MSRM) for cross-scale semantic alignment via feature fusion-separation-refusion.
- A Scale-Aware Module (SAM) at the bottleneck provides scale-relevant semantic guidance using adaptive receptive fields.
- A Channel-Spatial Shuffle Mamba Block (CSSMBlock) in the decoder facilitates cross-channel exchange and long-range dependency modeling.
Main Results:
- CoMS-UNet demonstrated strong performance on the ISPRS Vaihingen dataset, achieving a mean mIoU of 86.11±0.35%.
- The model also obtained an mIoU of 52.48% on the LoveDA dataset, indicating its effectiveness in diverse remote sensing scenarios.
Conclusions:
- CoMS-UNet offers a unified framework that improves semantic consistency, context aggregation, and detailed reconstruction for remote sensing semantic segmentation.
- The proposed architecture effectively addresses key challenges, leading to significant advancements in land-cover interpretation accuracy.