Ali Muhammad Umair, Khalid Majdi, Farrash Majed, Lahza Hassan Fareed M, Zafar Amad, Kim Seong-Han
Department of Artificial Intelligence and Robotics, Sejong University, Seoul, Republic of Korea.
Department of Computer Science and Artificial Intelligence, College of Computing, Umm Al-Qura University, Makkah, Saudi Arabia.
Front Plant Sci. 2024 Nov 27;15:1502314. doi: 10.3389/fpls.2024.1502314. eCollection 2024.
Accurately identifying apple diseases is essential to control their spread and support the industry. Timely and precise detection is crucial for managing the spread of diseases, thereby improving the production and quality of apples. However, the development of algorithms for analyzing complex leaf images remains a significant challenge. Therefore, in this study, a lightweight deep learning model is designed from scratch to identify the apple leaf condition. The developed framework comprises two stages. First, the designed 37-layer model was employed to assess the condition of apple leaves (healthy or diseased). Second, transfer learning was used for further subclassification of the disease class (e.g., rust, complex, scab, and frogeye leaf spots). The trained lightweight model was reused because the model trained with correlated images facilitated transfer learning for further classification of the disease class. A dataset available online was used to validate the proposed two-stage framework, resulting in a classification rate of 98.25% for apple leaf condition identification and an accuracy of 98.60% for apple leaf disease diagnosis. Furthermore, the results confirm that the proposed model is lightweight and involves relatively fewer learnable parameters in comparison with other pre-trained deep learning models.
准确识别苹果病害对于控制其传播和支持苹果产业至关重要。及时、精确的检测对于控制病害传播至关重要,从而提高苹果的产量和质量。然而,开发用于分析复杂叶片图像的算法仍然是一项重大挑战。因此,在本研究中,从头设计了一个轻量级深度学习模型来识别苹果叶片状况。所开发的框架包括两个阶段。首先,使用设计的37层模型来评估苹果叶片的状况(健康或患病)。其次,使用迁移学习对病害类别进行进一步的子分类(例如,锈病、复杂病害、疮痂病和蛙眼叶斑病)。经过训练的轻量级模型被重新使用,因为用相关图像训练的模型有助于进行迁移学习,以便对病害类别进行进一步分类。使用一个在线可用的数据集来验证所提出的两阶段框架,苹果叶片状况识别的分类率为98.25%,苹果叶片病害诊断的准确率为98.60%。此外,结果证实,与其他预训练的深度学习模型相比,所提出的模型是轻量级的,并且涉及的可学习参数相对较少。