Navigating the challenges of spectral soil sensing: Key solutions for success

Amin Sharififar , Nicolas Francos , Wartini Ng , Budiman Minasny , Asa Gholizadeh , Senani Karunaratne , Alex McBratney
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Abstract

Diffuse reflectance spectroscopy has emerged as a powerful tool in soil science, providing detailed soil information across diverse landscapes. Its potential to revolutionise soil assessment is immense; however, the path to fully globalise soil spectroscopy is challenging. Researchers aim to harness a global soil spectral library for rapid, accurate, and cost-effective soil evaluation. Yet, there are still operational challenges to be addressed to operationalise soil spectroscopy for routine analysis. We categorise these challenges into four fundamental topics: the standardisation of spectra acquisition, representation and modelling of soil diversity, complexities of soil matrix overlapping effects, and need for temporal monitoring of soils through spectroscopy. First, the variability in measurement protocols and equipment across studies hinders the comparability of results. Establishing standardised methods for spectra acquisition will enhance reproducibility and foster collaboration across the global scientific community. Second, soils are inherently diverse, reflecting a vast array of physical and chemical properties. Capturing this diversity in soil spectral libraries poses a modelling challenge. Comprehensive representation of various soil types and conditions is crucial for the successful application of spectral techniques. Third, the spectral signatures of different soil properties often overlap, complicating the interpretation of spectral data. Understanding and mitigating the effects of matrix interactions are essential for improving the accuracy of soil properties prediction. Fourth, monitoring soil conditions over time is vital for sustainable land management. Developing methodologies that allow for effective temporal assessments using spectroscopy will enhance our understanding of soil dynamics. We explore the advancements made in tackling these challenges and propose innovative solutions aimed at optimising and operationalising soil spectroscopy. By addressing these critical issues, we can pave the way for a future where soil spectroscopy is an integral part of routine soil analysis, enabling scientists and land managers to make informed decisions that promote soil security.
导航光谱土壤传感的挑战:成功的关键解决方案
漫反射光谱已成为土壤科学的有力工具,可以提供不同景观下的详细土壤信息。它革新土壤评价的潜力是巨大的;然而,使土壤光谱学完全全球化的道路充满挑战。研究人员的目标是利用全球土壤光谱库进行快速,准确和具有成本效益的土壤评估。然而,要将土壤光谱学应用于常规分析,仍有一些操作上的挑战需要解决。我们将这些挑战分为四个基本主题:光谱采集的标准化,土壤多样性的表示和建模,土壤基质重叠效应的复杂性,以及通过光谱对土壤进行时间监测的必要性。首先,研究中测量方案和设备的可变性阻碍了结果的可比性。建立光谱采集的标准化方法将提高可重复性并促进全球科学界的合作。第二,土壤本质上是多样化的,反映了大量的物理和化学性质。在土壤光谱库中捕捉这种多样性对建模提出了挑战。各种土壤类型和条件的综合表征是光谱技术成功应用的关键。第三,不同土壤性质的光谱特征经常重叠,使光谱数据的解释复杂化。了解和减轻基质相互作用的影响对提高土壤性质预测的准确性至关重要。第四,长期监测土壤状况对可持续土地管理至关重要。开发允许利用光谱学进行有效的时间评估的方法将增强我们对土壤动力学的理解。我们探索在应对这些挑战方面取得的进展,并提出旨在优化和操作土壤光谱学的创新解决方案。通过解决这些关键问题,我们可以为土壤光谱学成为常规土壤分析不可或缺的一部分的未来铺平道路,使科学家和土地管理者能够做出促进土壤安全的明智决策。
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