利用深度频谱和纹理编码实现灵活的土壤纹理检测

Agronomy Pub Date : 2024-09-11 DOI:10.3390/agronomy14092074
Ruijun Ma, Jun Jiang, Lin Ouyang, Qingying Yang, Jiongxuan Du, Shuanglong Wu, Long Qi, Junwei Hou, Hang Xing
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引用次数: 0

摘要

土壤质地是土壤性质的一个重要属性。深入了解土壤质地有利于在生产过程中做出农业决策。然而,在特定的实验室条件下评估土壤质地需要大量的投入,不仅耗时,而且成本高昂。在本文中,我们将频率通道注意网络和纹理编码网络嵌入到 ResNet 框架的表征学习范式中,从而提出了一种土壤纹理检测网络。具体来说,前者善于利用多频率之间的特征相关性,后者则侧重于对特征变量进行编码,共同提高特征表达能力。同时,土壤中存在的粘土、淤泥和沙粒是通过 ResNet18 全链接层导出的。实验结果表明,预测粘土、粉土和沙粒含量的相关系数分别为 0.931、0.936 和 0.957。均方根误差的定量分数分别为 2.106%、3.390% 和 3.602%。所提出的网络还表现出了良好的泛化能力,在不同的土壤样本上都取得了相当不错的结果。值得注意的是,其检测结果与传统的实验室测量结果基本一致,同时还优于其他竞争对手,因此在实际应用中极具吸引力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Toward Flexible Soil Texture Detection by Exploiting Deep Spectrum and Texture Coding
Soil texture is a significant attribute of soil properties. Obtaining insight into the soil texture is beneficial when making agricultural decisions during production. Nevertheless, assessing the soil texture in specific laboratory conditions entails substantial dedication, which is time-consuming and includes a high cost. In this paper, we propose a soil texture detection network by embedding the frequency channel attention network and a texture encoding network into the representation learning paradigm of the ResNet framework. Concretely, the former is reliable in exploiting the feature correlations among multi-frequency, while the latter focuses on encoding feature variables, jointly enhancing the ability of feature expression. Meanwhile, the clay, silt, and sand particles present in the soil are exported through a ResNet18 fully linked layer. Experimental results show that the correlation coefficient for predicting clay, silt, and sand content are 0.931, 0.936, and 0.957, respectively. For the root mean square error, the quantitative scores are 2.106%, 3.390%, and 3.602%, respectively. The proposed network also exhibits proposing generalization capability, yielding quite considerable results on different soil samples. Notably, the detection results are almost in agreement with the conventional laboratory measurements, and, at the same time, outperform other competitors, making it highly attractive for practical applications.
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