Random Forest-Based Vegetation and Non-Vegetation Classification in Siak Regency Using Landsat 8 and Google Earth Engine
DOI:
https://doi.org/10.21063/jtif.2026.V14.2.932Keywords:
Landsat 8, VegVetation Index, GEE, QGIS, oil palm plantations, Siak RegencyAbstract
Monitoring vegetation degradation is essential for supporting sustainable land resource management through accurate and continuous land cover assessment. This quantitative study classifies vegetation in Siak Regency, Riau Province, using Landsat 8 Surface Reflectance (Level-2) imagery from 2024 and the Random Forest (RF) algorithm in the Google Earth Engine (GEE) environment. Fifty purposively selected ground truth samples, categorized as vegetation and non-vegetation, were used. Spectral bands were combined with three vegetation indices, namely NDVI, SAVI, and EVI, to improve classification performance. The dataset was randomly split into 70% training data (33 samples) and 30% validation data (17 samples) to maintain reproducibility. The model achieved an Overall Accuracy of 88.24% and a Kappa coefficient of 0.757, indicating substantial agreement between predicted and reference classes. The integration of the three indices provided complementary spectral information, improving the model’s ability to distinguish vegetation density, atmospheric influence, and soil background sensitivity. However, the small validation dataset and binary classification scheme limit the statistical reliability of the results and their comparability with multi-class studies. Overall, the findings show that combining Random Forest and Google Earth Engine offers an efficient and scalable approach to vegetation mapping. Future studies should use larger datasets, more robust validation strategies, and finer land cover classification schemes to improve reliability in tropical environmental monitoring.
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