NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TEST
In this work a numerical simulation of agricultural soil shear stress tests was performed through soil shear strength data detected by a soil shearometer. We used a soil shearometer available on the market to measure soil shear stress and constructed special equipment that enabled automated detectio...
Main Authors: | , |
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Format: | Article |
Language: | English |
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PAGEPress Publications
2007-03-01
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Series: | Journal of Agricultural Engineering |
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Online Access: | http://www.agroengineering.org/index.php/jae/article/view/93 |
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author | Andrea Formato Salvatore Faugno |
author_facet | Andrea Formato Salvatore Faugno |
author_sort | Andrea Formato |
collection | DOAJ |
description | In this work a numerical simulation of agricultural soil shear stress tests was performed through soil shear strength data detected by a soil shearometer. We used a soil shearometer available on the market to measure soil shear stress and constructed special equipment that enabled automated detection of soil shear stress. It was connected to an acquisition data system that displayed and recorded soil shear stress during the full field tests. A soil shearometer unit was used to the in situ measurements of soil shear stress in full field conditions for different types of soils located on the right side of the Sele river, at a distance of about 1 km from each other, along the perpendicular to the Sele river in the direction of the sea. Full field tests using the shearometer unit were performed alongside considered soil characteristic parameter data collection. These parameter values derived from hydrostatic compression and triaxial tests performed on considered soil samples and repeated 4 times and we noticed that the difference between the maximum and minimum values detected for every set of performed tests never exceeded 4%. Full field shear tests were simulated by the Abaqus program code considering three different material models of soils normally used in the literature, the Mohr-Coulomb, Drucker-Prager and Cam-Clay models. We then compared all data outcomes obtained by numerical simulations with those from the experimental tests. We also discussed any further simulation data results obtained with different material models and selected the best material model for each considered soil to be used in tyre/soil contact simulation or in soil compaction studies. |
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institution | Directory Open Access Journal |
issn | 1974-7071 2239-6268 |
language | English |
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series | Journal of Agricultural Engineering |
spelling | doaj.art-07df3ecd3eb0429ea2a55477cb317f9f2022-12-22T01:31:37ZengPAGEPress PublicationsJournal of Agricultural Engineering1974-70712239-62682007-03-01381152010.4081/jae.2007.1.1584NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TESTAndrea FormatoSalvatore FaugnoIn this work a numerical simulation of agricultural soil shear stress tests was performed through soil shear strength data detected by a soil shearometer. We used a soil shearometer available on the market to measure soil shear stress and constructed special equipment that enabled automated detection of soil shear stress. It was connected to an acquisition data system that displayed and recorded soil shear stress during the full field tests. A soil shearometer unit was used to the in situ measurements of soil shear stress in full field conditions for different types of soils located on the right side of the Sele river, at a distance of about 1 km from each other, along the perpendicular to the Sele river in the direction of the sea. Full field tests using the shearometer unit were performed alongside considered soil characteristic parameter data collection. These parameter values derived from hydrostatic compression and triaxial tests performed on considered soil samples and repeated 4 times and we noticed that the difference between the maximum and minimum values detected for every set of performed tests never exceeded 4%. Full field shear tests were simulated by the Abaqus program code considering three different material models of soils normally used in the literature, the Mohr-Coulomb, Drucker-Prager and Cam-Clay models. We then compared all data outcomes obtained by numerical simulations with those from the experimental tests. We also discussed any further simulation data results obtained with different material models and selected the best material model for each considered soil to be used in tyre/soil contact simulation or in soil compaction studies.http://www.agroengineering.org/index.php/jae/article/view/93Shearometer, Shear stress test, Soil mechanics. |
spellingShingle | Andrea Formato Salvatore Faugno NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TEST Journal of Agricultural Engineering Shearometer, Shear stress test, Soil mechanics. |
title | NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TEST |
title_full | NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TEST |
title_fullStr | NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TEST |
title_full_unstemmed | NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TEST |
title_short | NUMERICAL SIMULATION OF AN AGRICULTURAL SOIL SHEAR STRESS TEST |
title_sort | numerical simulation of an agricultural soil shear stress test |
topic | Shearometer, Shear stress test, Soil mechanics. |
url | http://www.agroengineering.org/index.php/jae/article/view/93 |
work_keys_str_mv | AT andreaformato numericalsimulationofanagriculturalsoilshearstresstest AT salvatorefaugno numericalsimulationofanagriculturalsoilshearstresstest |