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Improved random forest classification model combined with C5.0 algorithm for vegetation feature analysis in
1College of Architecture, Nanjing Tech University, Nanjing City, 211800, China. 15195809009@163.com.
Scientific Reports
|May 6, 2024
Summary
This study introduces an enhanced random forest algorithm for classifying non-agricultural vegetation using satellite data, achieving 90.20% accuracy. The improved model effectively handles complex data, aiding in agricultural ecosystem protection and biodiversity restoration.
Area of Science:
- Remote Sensing
- Machine Learning
- Ecology
Background:
- Traditional random forest algorithms struggle with high-dimensional, noisy satellite data for non-agricultural vegetation classification.
- Challenges include high computational complexity and suboptimal classification performance.
Purpose of the Study:
- To propose an enhanced random forest algorithm for improved classification of non-agricultural vegetation using satellite data.
- To address the limitations of traditional methods in high-dimensional and noisy datasets.
Main Methods:
- Developed an enhanced random forest algorithm integrating the C5.0 algorithm for feature selection.
- Employed an ensemble feature method based on the bagging concept to improve feature selection and model diversity.
- Utilized the enhanced vegetation index (EVI) for vegetation coverage estimation.
Main Results:
- The object-oriented random forest model achieved 94.02% accuracy on an aerial imagery dataset.
- The proposed algorithm reached an average accuracy of 90.20% in identifying non-agricultural vegetation features.
- Outperformed other models like BERT, FastText, and CNN with accuracies ranging from 84.41% to 88.33%.
Conclusions:
- The enhanced random forest algorithm effectively classifies non-agricultural vegetation, offering improved accuracy and efficiency.
- Findings provide scientific evidence supporting agricultural ecosystem protection and biodiversity restoration efforts.
- The C5.0 algorithm and EVI contribute to robust feature selection and vegetation coverage estimation.
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