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Iterative Training Sample Augmentation for Enhancing Land Cover Change Detection Performance With Deep Learning
Summary
An iterative training sample augmentation (ITSA) strategy enhances deep learning for land cover change detection (LCCD) using remote sensing images. This method reduces manual labeling efforts and improves detection accuracy, offering a robust and adaptable solution.
Area of Science:
- Remote Sensing
- Geospatial Analysis
- Artificial Intelligence
Background:
- Accurate land cover change detection (LCCD) using remote sensing images is crucial.
- Deep learning models require extensive labeled data for effective training.
- Manual sample labeling for bitemporal remote sensing images is laborious, time-consuming, and requires expertise.
Purpose of the Study:
- To propose an iterative training sample augmentation (ITSA) strategy to improve LCCD performance with deep learning.
- To reduce the reliance on manual sample labeling in LCCD tasks.
- To enhance the efficiency and accuracy of deep learning-based LCCD.
Main Methods:
- Developed an iterative training sample augmentation (ITSA) strategy.
- Measured sample similarity with neighboring blocks to identify potential new samples.
- Iteratively trained a neural network with augmented samples and predicted results.
- Coupled ITSA with existing deep learning networks for LCCD.
Main Results:
- The proposed ITSA strategy effectively improved LCCD performance when integrated with deep learning networks.
- Experiments demonstrated significant improvements in detection accuracy, with overall accuracy increases ranging from 0.38% to 7.53% compared to state-of-the-art methods.
- The ITSA strategy showed robust, generic, and universally adaptive performance across various image types and deep learning architectures.
Conclusions:
- The ITSA strategy is a valuable approach for enhancing deep learning-based LCCD.
- It effectively addresses the challenges of manual sample labeling, reducing effort and time.
- The method offers a significant and reliable improvement in LCCD accuracy, applicable to diverse remote sensing scenarios.

