A Soil Carbon Content Quantification Method Using A Miniature Millimeter Wave Radar Sensor and Machine Learning

Di An, Yangquan Chen
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引用次数: 2

Abstract

Soil carbon content plays an essential role in combating climate change, water cycling, and sustaining soil biodiversity. However, the conventional way of quantifying soil carbon content is labor intensive, lack of precision, slow, and costly. On large spatial scale, assessment of the effect of carbon (biochar) applied to the soil for soil health conditioning, remains to be very difficult. This paper for the first time demonstrates the viability using a millimeter-wave sensing method for quantifying soil carbon content. It can also distinguish biochar types from different biomass species. Furthermore, soil moisture monitoring, and biochar water retention capacity can also be quantified by utilizing the same miniature millimeter wave radar sensor empowered by machine learning. Specifically, in this study, we present our research materials, methodology, machine learning workflow, results, and the explanation and interpretation based on the physical principles of the millimeter wave radar array sensor in the context of soil carbon content. We validated our quantification method with supervised machine learning algorithm using real soil data collected in the field mixed with known biochar contents. The results show that our technique achieved a 95.7 per cent recognition accuracy across seven different biochar types. The work laid the foundation for future real-time, large spatial-scale evaluation and assessment of soil carbon content using biochar amendments or other related carbon-negative technologies. Thus, soil carbon content site-specific management can be made possible.
基于微型毫米波雷达传感器和机器学习的土壤碳含量定量方法
土壤碳含量在应对气候变化、水循环和维持土壤生物多样性方面发挥着至关重要的作用。然而,传统的土壤碳含量定量方法劳动强度大,精度低,速度慢,成本高。在大空间尺度上,评价碳(生物炭)对土壤健康调节的效果仍然是非常困难的。本文首次论证了利用毫米波传感方法定量土壤碳含量的可行性。它还可以区分不同生物量物种的生物炭类型。此外,土壤湿度监测和生物炭保水能力也可以通过使用由机器学习授权的微型毫米波雷达传感器来量化。具体而言,在本研究中,我们介绍了我们的研究材料,方法,机器学习工作流程,结果,以及基于毫米波雷达阵列传感器在土壤碳含量背景下的物理原理的解释和解释。我们使用监督机器学习算法验证了我们的量化方法,该算法使用了混合了已知生物炭含量的实地收集的真实土壤数据。结果表明,我们的技术在七种不同的生物炭类型中实现了95.7%的识别准确率。该研究为未来利用生物炭改进剂或其他相关负碳技术对土壤碳含量进行实时、大空间尺度评价和评价奠定了基础。因此,土壤碳含量的具体管理是可能的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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