Cross‐correlating soil aggregate stability methods to facilitate universal interpretation

Abstract Aggregate stability is a critical physical indicator of soil health. However, multiple methods are used for measuring aggregate stability, making it difficult to compare results and limiting universal interpretations in soil health assessment frameworks like Soil Health Assessment Protocol and Evaluation. We cross‐correlated three common water‐stable aggregate methods (WSA CASH , WSA ARS , and WSA SLAKES ) using a dataset of nearly 1400 samples and developed pedotransfer functions using random forest models to evaluate method performance. We found that the WSA ARS and WSA CASH methods can be reasonably cross correlated through pedotransfer functions because they use similar processes for estimating aggregate strength. Conversely, the WSA ARS and WSA SLAKES methods are not transferable. We suggest that the WSA ARS aggregate stability method is the most established and best reference method for use in soil health analysis frameworks. Interpretation consistency will lead to more robust comparisons of aggregate stability as a key physical soil health indicator. Core Ideas Different approaches for measuring aggregate stability prevent generalized result interpretation. The water‐stable aggregate wet sieve procedure (WSA ARS ) is proposed as the reference method for interpretation. Other soil aggregate stability methods can be variably correlated with WSA ARS .

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Publication Details

Journal
Agricultural & Environmental Letters
Published
2024-08-16
DOI
https://doi.org/10.1002/ael2.20145
Citations
4
Primary Topic
Soil and Unsaturated Flow
Type
article
Field-Weighted Citation Impact
1.04

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article

Cross‐correlating soil aggregate stability methods to facilitate universal interpretation

Deborah Aller, Joseph P. Amsili, Harold M. van Es
4 citations
Agricultural & Environmental Letters
Soil and Unsaturated Flow
1.04
article

Cross‐correlating soil aggregate stability methods to facilitate universal interpretation

Deborah Aller, Joseph P. Amsili, Harold M. van Es
article en
4 citations

Abstract

Abstract Aggregate stability is a critical physical indicator of soil health. However, multiple methods are used for measuring aggregate stability, making it difficult to compare results and limiting universal interpretations in soil health assessment frameworks like Soil Health Assessment Protocol and Evaluation. We cross‐correlated three common water‐stable aggregate methods (WSA CASH , WSA ARS , and WSA SLAKES ) using a dataset of nearly 1400 samples and developed pedotransfer functions using random forest models to evaluate method performance. We found that the WSA ARS and WSA CASH methods can be reasonably cross correlated through pedotransfer functions because they use similar processes for estimating aggregate strength. Conversely, the WSA ARS and WSA SLAKES methods are not transferable. We suggest that the WSA ARS aggregate stability method is the most established and best reference method for use in soil health analysis frameworks. Interpretation consistency will lead to more robust comparisons of aggregate stability as a key physical soil health indicator. Core Ideas Different approaches for measuring aggregate stability prevent generalized result interpretation. The water‐stable aggregate wet sieve procedure (WSA ARS ) is proposed as the reference method for interpretation. Other soil aggregate stability methods can be variably correlated with WSA ARS .

Agricultural & Environmental LettersVol. 9(2)
Cornell University (US)
Samuel Roberts Noble Foundation, General Mills
Life in Land
Openalex Percentile: Top 26%
Soil and Unsaturated Flow
1.04
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