Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS Model

A sustainable land management has been defined as the management system that allows for production, while minimizing risk, maintaining quality of soil and water. Tillage systems can significantly decrease soil carbon storage and influence the soil environment of a crop. Crop growth models can be use...

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Main Authors: Bruno Basso, Joe T. Ritchie, Peter R. Grace, Luigi Sartori
Format: Article
Language:English
Published: PAGEPress Publications 2006-12-01
Series:Italian Journal of Agronomy
Online Access:https://www.agronomy.it/index.php/agro/article/view/165
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spelling doaj-0ade934ca09f43b2bbe58b5867da8bae2020-11-25T01:43:48ZengPAGEPress PublicationsItalian Journal of Agronomy1125-47182039-68052006-12-011410.4081/ija.2006.677Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS ModelBruno BassoJoe T. RitchiePeter R. GraceLuigi SartoriA sustainable land management has been defined as the management system that allows for production, while minimizing risk, maintaining quality of soil and water. Tillage systems can significantly decrease soil carbon storage and influence the soil environment of a crop. Crop growth models can be useful tools in evaluating the impact of different tillage systems on soil biophysical properties and on the growth and final yield of the crops. The objectives of this paper were i) to illustrate the SALUS model and its tillage component; ii) to evaluate the effects of different tillage systems on water infiltration and time to ponding, iii) to simulate the effect of tillage systems on some soil biophysical properties. The SALUS (System Approach to Land Use Sustainability) model is designed to simulate continuous crop, soil, water and nutrient conditions under different tillage and crop residues management strategies for multiple years. Predictions of changes in surface residue, bulk density, runoff, drainage and evaporation were consistent with expected behaviours of these parameters as described in the literature. The experiment to estimate the time to ponding curve under different tillage system confirmed the theory and showed the beneficial effects of the residue on soil surface with respect to water infiltration. It also showed that the no-tillage system is a more appropriate system to adopt in areas characterized by high intensity rainfall.https://www.agronomy.it/index.php/agro/article/view/165
collection DOAJ
language English
format Article
sources DOAJ
author Bruno Basso
Joe T. Ritchie
Peter R. Grace
Luigi Sartori
spellingShingle Bruno Basso
Joe T. Ritchie
Peter R. Grace
Luigi Sartori
Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS Model
Italian Journal of Agronomy
author_facet Bruno Basso
Joe T. Ritchie
Peter R. Grace
Luigi Sartori
author_sort Bruno Basso
title Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS Model
title_short Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS Model
title_full Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS Model
title_fullStr Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS Model
title_full_unstemmed Simulation of Tillage Systems Impact on Soil Biophysical Properties Using the SALUS Model
title_sort simulation of tillage systems impact on soil biophysical properties using the salus model
publisher PAGEPress Publications
series Italian Journal of Agronomy
issn 1125-4718
2039-6805
publishDate 2006-12-01
description A sustainable land management has been defined as the management system that allows for production, while minimizing risk, maintaining quality of soil and water. Tillage systems can significantly decrease soil carbon storage and influence the soil environment of a crop. Crop growth models can be useful tools in evaluating the impact of different tillage systems on soil biophysical properties and on the growth and final yield of the crops. The objectives of this paper were i) to illustrate the SALUS model and its tillage component; ii) to evaluate the effects of different tillage systems on water infiltration and time to ponding, iii) to simulate the effect of tillage systems on some soil biophysical properties. The SALUS (System Approach to Land Use Sustainability) model is designed to simulate continuous crop, soil, water and nutrient conditions under different tillage and crop residues management strategies for multiple years. Predictions of changes in surface residue, bulk density, runoff, drainage and evaporation were consistent with expected behaviours of these parameters as described in the literature. The experiment to estimate the time to ponding curve under different tillage system confirmed the theory and showed the beneficial effects of the residue on soil surface with respect to water infiltration. It also showed that the no-tillage system is a more appropriate system to adopt in areas characterized by high intensity rainfall.
url https://www.agronomy.it/index.php/agro/article/view/165
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