Authors :
Machineni Yasaswini; Nallabothu Amrith; Dr. U. M. Prakash
Volume/Issue :
Volume 11 - 2026, Issue 3 - March
Google Scholar :
https://tinyurl.com/mr7kry6s
Scribd :
https://tinyurl.com/37p5a9h7
DOI :
https://doi.org/10.38124/ijisrt/26mar1911
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
Land cover mapping from satellite image is an important task in remote sensing for the applications such as
environmental monitoring, urban planning, agriculture management and disaster assessment. However, it is difficult to
extract meaningful data from high-resolution satellite images because of variation in illumination, complex terrain
structures, and the fact that multiple land cover categories are contained in a single image. This research presents a proposal
for a deep learning-based model of semantic segmentation of satellite imagery, based on encoder-decoder convolutional
neural network architectures, namely U-Net and ResUNet-a. The system is used for pixel wise classification in order to
identify the classes of land cover such as buildings, roads, vegetation, water bodies, land, and Unlabeled regions. The
framework has programming stages for data preprocessing, model training, prediction, and visualization of the
segmentation outputs. A web application based on Streamlit is also created to enable interactive viewing of segmentation
results after users upload satellite images. Experimental results show accuracy of segmentation and enhanced boundary
detection using the proposed models for land cover automated analysis.
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Land cover mapping from satellite image is an important task in remote sensing for the applications such as
environmental monitoring, urban planning, agriculture management and disaster assessment. However, it is difficult to
extract meaningful data from high-resolution satellite images because of variation in illumination, complex terrain
structures, and the fact that multiple land cover categories are contained in a single image. This research presents a proposal
for a deep learning-based model of semantic segmentation of satellite imagery, based on encoder-decoder convolutional
neural network architectures, namely U-Net and ResUNet-a. The system is used for pixel wise classification in order to
identify the classes of land cover such as buildings, roads, vegetation, water bodies, land, and Unlabeled regions. The
framework has programming stages for data preprocessing, model training, prediction, and visualization of the
segmentation outputs. A web application based on Streamlit is also created to enable interactive viewing of segmentation
results after users upload satellite images. Experimental results show accuracy of segmentation and enhanced boundary
detection using the proposed models for land cover automated analysis.