Recently, the application of deep learning approaches has significantly contributed to the success of soil investigations, particularly in the categorization of soil images. This, in turn, facilitates informed decision-making in geotechnical engineering projects. This paper introduces an efficient soil classification method utilizing transfer learning models based on Convolutional Neural Networks (CNNs) to categorize soil images. Various pre-trained networks, including Alexnet, Vgg16, Googlenet, Resnet50, Mobilenetv2, and Squeezenet, are employed in this study. The highest accuracy, reaching 90.32%, is achieved by Googlenet, while Alexnet follows closely with an accuracy of 89.24%. Conversely, Squeezenet yields the lowest accuracy at 79.56%. This proposed framework has the potential for integration into Internet of Things (IoT) systems, leading to the development of an innovative, portable IoT-based device for soil type recognition at remote geo-sites, catering to the needs of geotechnical engineers. The results obtained highlight that the Googlenet-based framework outperforms others, offering a superior performance in soil classification. This framework serves as a valuable tool for implementing an intelligent soil image classification system, supporting real-time decision-making in geotechnical engineering applications.

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An Efficient Soil Image Classification Framework Using Transfer Learning Models for Intelligent Geotechnical Applications

  • Ezz El-Din Hemdan,
  • M. E. Al-Atroush

摘要

Recently, the application of deep learning approaches has significantly contributed to the success of soil investigations, particularly in the categorization of soil images. This, in turn, facilitates informed decision-making in geotechnical engineering projects. This paper introduces an efficient soil classification method utilizing transfer learning models based on Convolutional Neural Networks (CNNs) to categorize soil images. Various pre-trained networks, including Alexnet, Vgg16, Googlenet, Resnet50, Mobilenetv2, and Squeezenet, are employed in this study. The highest accuracy, reaching 90.32%, is achieved by Googlenet, while Alexnet follows closely with an accuracy of 89.24%. Conversely, Squeezenet yields the lowest accuracy at 79.56%. This proposed framework has the potential for integration into Internet of Things (IoT) systems, leading to the development of an innovative, portable IoT-based device for soil type recognition at remote geo-sites, catering to the needs of geotechnical engineers. The results obtained highlight that the Googlenet-based framework outperforms others, offering a superior performance in soil classification. This framework serves as a valuable tool for implementing an intelligent soil image classification system, supporting real-time decision-making in geotechnical engineering applications.