Drone-Based Surveillance of Palm Tress Ecosystems

This paper presents a novel surveillance system designed to identify the health status of oil palm trees by leveraging MATLAB object detection and deep learning techniques. The study aims to improve the accuracy and efficiency of palm health detection by integrating MATLAB's initial object recognition with advanced deep learning algorithms. The initial phase of the research focuses on elucidating the challenges associated with detecting palm tree health issues using conventional image processing methods in MATLAB. Results indicate that traditional MATLAB object detection methods encounter difficulties in accurately identifying palm tree crowns and assessing their health status due to various factors such as the complexity of crown morphology, lighting variations, environmental conditions, limited feature discrimination, reliance on handcrafted features, and challenges in adaptation and generalization. Subsequently, the study proposes a second stage to enhance the accuracy and efficiency of palm tree health detection through the implementation of a deep learning approach using Faster R-CNN, addressing the limitations identified in the initial phase. Analysis of experimental results demonstrates a rapid increase in accuracy to nearly 100% early in the training process, indicating efficient learning and classification capabilities of the model. Moreover, a significant decrease in Root Mean Square Error (RMSE) at the outset of training signifies a reduction in prediction errors, followed by stabilization at a low level, suggesting that the model's predictions closely align with actual targets in the training data. Furthermore, the loss graph exhibits a similar trend to the RMSE graph, corroborating the effectiveness of RMSE as a common loss function for regression problems. Overall, this research contributes to the advancement of oil palm tree health detection systems, providing valuable insights for future developments in agricultural surveillance and monitoring technologies.

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Publication Details

Journal
Journal of Advanced Research in Applied Sciences and Engineering Technology
Published
2024-11-29
DOI
https://doi.org/10.37934/araset.61.2.255267
Primary Topic
Oil Palm Production and Sustainability
Type
article
Field-Weighted Citation Impact
0.00

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article

Drone-Based Surveillance of Palm Tress Ecosystems

Yaakob Mansor, Zulhilmy Sahwee, S.O. Baki, Yuanyuan Wu et al.
Journal of Advanced Research in Applied Sciences and Engineering Technology
Oil Palm Production and Sustainability
article

Drone-Based Surveillance of Palm Tress Ecosystems

Yaakob Mansor, Zulhilmy Sahwee, S.O. Baki, Yuanyuan Wu, Cheng Mengyue
article en

Abstract

This paper presents a novel surveillance system designed to identify the health status of oil palm trees by leveraging MATLAB object detection and deep learning techniques. The study aims to improve the accuracy and efficiency of palm health detection by integrating MATLAB's initial object recognition with advanced deep learning algorithms. The initial phase of the research focuses on elucidating the challenges associated with detecting palm tree health issues using conventional image processing methods in MATLAB. Results indicate that traditional MATLAB object detection methods encounter difficulties in accurately identifying palm tree crowns and assessing their health status due to various factors such as the complexity of crown morphology, lighting variations, environmental conditions, limited feature discrimination, reliance on handcrafted features, and challenges in adaptation and generalization. Subsequently, the study proposes a second stage to enhance the accuracy and efficiency of palm tree health detection through the implementation of a deep learning approach using Faster R-CNN, addressing the limitations identified in the initial phase. Analysis of experimental results demonstrates a rapid increase in accuracy to nearly 100% early in the training process, indicating efficient learning and classification capabilities of the model. Moreover, a significant decrease in Root Mean Square Error (RMSE) at the outset of training signifies a reduction in prediction errors, followed by stabilization at a low level, suggesting that the model's predictions closely align with actual targets in the training data. Furthermore, the loss graph exhibits a similar trend to the RMSE graph, corroborating the effectiveness of RMSE as a common loss function for regression problems. Overall, this research contributes to the advancement of oil palm tree health detection systems, providing valuable insights for future developments in agricultural surveillance and monitoring technologies.

Journal of Advanced Research in Applied Sciences and Engineering Technology
Universiti Putra Malaysia (MY), Xiamen University (CN), University of Kuala Lumpur (MY)
Universiti Putra Malaysia
Peace, Justice and strong institutions
Openalex Percentile: Top 79%
Oil Palm Production and Sustainability
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