Related Experiment Videos
A Unified Multidimensional Benchmark and Multi-Dataset Evaluation of YOLO-Based Models for Remote Sensing Building
Zhengsheng Chen1, Junjie Xu1, Dongdong Guan1
1PLA Rocket Force University of Engineering, Xi'an 710025, China.
Sensors (Basel, Switzerland)
|June 26, 2026
Summary
This study benchmarks remote sensing building instance segmentation models, finding YOLOv11x-seg offers top accuracy and YOLOv11m-seg balances accuracy with speed. These results aid selecting models for urban management and disaster assessment.
Area of Science:
- Computer Vision
- Remote Sensing
- Geospatial Analysis
Background:
- Building instance segmentation in remote sensing is crucial for urban management, disaster assessment, and land-cover monitoring.
- Challenges include variations in building scale, dense distribution, complex backgrounds, shadows, and occlusions, impacting accuracy, boundary recovery, and efficiency.
- Existing benchmarks lack a unified, multidimensional evaluation covering diverse aspects like accuracy, speed, and robustness.
Purpose of the Study:
- To establish a unified, multidimensional benchmark for evaluating remote sensing building instance segmentation models.
- To compare the performance of leading mask-predicting models (YOLOv8-seg, YOLOv11-seg, YOLO26-seg, Mask R-CNN) and auxiliary detection baselines (RT-DETR).
- To assess model transferability across datasets and robustness against degradation factors like shadows, occlusions, and blur.
Main Methods:
- Implemented a consistent training and evaluation framework for mask-predicting instance segmentation models.
- Included benchmark metrics for bounding-box detection, mask-based segmentation, inference efficiency, model complexity, and training behavior.
- Conducted zero-shot cross-dataset testing (WHU-to-Inria), in-domain training/testing with varied initializations, and controlled degradation tests.
Main Results:
- High-capacity YOLO-seg models demonstrated strong competitiveness, with YOLOv11x-seg achieving top mask-based accuracy and YOLOv11m-seg offering a superior balance of accuracy, speed, and complexity.
- Zero-shot WHU-to-Inria testing highlighted a significant domain shift, but in-domain training enabled YOLO-seg models to regain competitive performance.
- YOLOv11x-seg exhibited greater robustness to shadow/occlusion compared to Gaussian blur, indicating differential sensitivity to image degradations.
Conclusions:
- The developed benchmark provides crucial evidence for selecting remote sensing building instance segmentation models based on specific deployment needs (accuracy vs. efficiency).
- YOLO-seg models, particularly YOLOv11x-seg and YOLOv11m-seg, are highly competitive and adaptable for various remote sensing applications.
- Understanding domain shift and degradation robustness is essential for reliable real-world deployment of building instance segmentation systems.