Deep Learning-Based Evaluation of Models for Rice and Sorghum Weed Classification Using the MFWD Dataset

Precision agriculture aims at optimizing resource utilization and increasing crop yield while minimizing environ-mental impact. Correct weed classification is the foundation of accurate weed management, avoiding the misuse of herbicides, and optimizing sustainability. Traditional approaches, such as mechanical eradication and broad-spectrum herbicide application, are wasteful and labor-intensive. Deep learning techniques specially Convolutional Neural Networks or CNNs which offers a computer-based approach by learning discriminative features from images. The study here aims at investigating the imple-mentation of deep learning models for the purpose of effective weed species classification which is done using an extensive data of 30 species among which 5 balanced species is selected for evaluation. Based on proper examination and trails deep learning architectures, MobileNet v2, ResNet 50, InceptionV3, EfficientNet- V2, Swin 1 are used for evaluating their effectiveness in classifying the weed species. The pre-trained models were further fine-tuned using the transfer learning technique with the primary goal of enhancing the feature extraction that addresses the potential problems of under- and over-fitting. The results obtained showed that among the models used, Swin 1 had given the highest accuracy value of 97.15, demonstrating that the model's superior capability in generalizing compared to other tested architectures.

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Published
2025-04-29
DOI
https://doi.org/10.1109/aimla63829.2025.11040883
Primary Topic
Smart Agriculture and AI
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article
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article

Deep Learning-Based Evaluation of Models for Rice and Sorghum Weed Classification Using the MFWD Dataset

Aiswarya S. Kumar, Arjun Manoj
Smart Agriculture and AI
article

Deep Learning-Based Evaluation of Models for Rice and Sorghum Weed Classification Using the MFWD Dataset

Aiswarya S. Kumar, Arjun Manoj
article en

Abstract

Precision agriculture aims at optimizing resource utilization and increasing crop yield while minimizing environ-mental impact. Correct weed classification is the foundation of accurate weed management, avoiding the misuse of herbicides, and optimizing sustainability. Traditional approaches, such as mechanical eradication and broad-spectrum herbicide application, are wasteful and labor-intensive. Deep learning techniques specially Convolutional Neural Networks or CNNs which offers a computer-based approach by learning discriminative features from images. The study here aims at investigating the imple-mentation of deep learning models for the purpose of effective weed species classification which is done using an extensive data of 30 species among which 5 balanced species is selected for evaluation. Based on proper examination and trails deep learning architectures, MobileNet v2, ResNet 50, InceptionV3, EfficientNet- V2, Swin 1 are used for evaluating their effectiveness in classifying the weed species. The pre-trained models were further fine-tuned using the transfer learning technique with the primary goal of enhancing the feature extraction that addresses the potential problems of under- and over-fitting. The results obtained showed that among the models used, Swin 1 had given the highest accuracy value of 97.15, demonstrating that the model's superior capability in generalizing compared to other tested architectures.

Amrita Vishwa Vidyapeetham (IN)
Zero hunger
Openalex Percentile: Top 89%
Smart Agriculture and AI
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