Utilizing a Novel Deep Learning Method for Scene Categorization in Remote Sensing Data

TL;DR

This paper introduces the CO-BRNN, a novel deep learning approach for scene categorization in remote sensing images, achieving higher accuracy than existing methods by effectively handling noisy and diverse data.

Contribution

The study presents the innovative CO-BRNN model, outperforming current techniques in remote sensing scene classification with a 97% accuracy.

Findings

CO-BRNN achieved 97% accuracy in scene classification.

Compared models include MLP-CNN, CNN-LSTM, LSTM-CRF, with CO-BRNN outperforming them.

Physical confirmation is emphasized for satellite data efficiency.

Abstract

Scene categorization (SC) in remotely acquired images is an important subject with broad consequences in different fields, including catastrophe control, ecological observation, architecture for cities, and more. Nevertheless, its several apps, reaching a high degree of accuracy in SC from distant observation data has demonstrated to be difficult. This is because traditional conventional deep learning models require large databases with high variety and high levels of noise to capture important visual features. To address these problems, this investigation file introduces an innovative technique referred to as the Cuttlefish Optimized Bidirectional Recurrent Neural Network (CO- BRNN) for type of scenes in remote sensing data. The investigation compares the execution of CO-BRNN with current techniques, including Multilayer Perceptron- Convolutional Neural Network (MLP-CNN), Convolutional Neural Network-Long Short Term Memory (CNN-LSTM), and Long Short Term Memory-Conditional Random Field (LSTM-CRF), Graph-Based (GB), Multilabel Image Retrieval Model (MIRM-CF), Convolutional Neural Networks Data Augmentation (CNN-DA). The results demonstrate that CO-BRNN attained the maximum accuracy of 97%, followed by LSTM-CRF with 90%, MLP-CNN with 85%, and CNN-LSTM with 80%. The study highlights the significance of physical confirmation to ensure the efficiency of satellite data.