Quantification of traffic-induced compaction based on soil and agricultural implement parameters

Xianliang Wang, Xiangcai Zhang, Xiaona Lin, Luming Sha, Hanyu Yang, Zhaoyang Guo, Zeyu Chen, Rongyan Sun

Abstract


Vehicle-induced soil compaction occurs when agricultural machinery is working in the fields. The accumulated soil compaction could destroy soil structure and inhibit crop growth. The low degree of visualization of soil compaction has always been an important reason for restricting the development of compaction alleviation technology. Therefore, the main objective of this study was to predict soil compaction based on soil and agricultural implement parameters. The component of soil compaction prediction includes traffic-induced stress transmission evaluation and the quantitative relationship between soil stress and bulk density. The modified FRIDA model was used to elucidate the soil stress propagation, which has been validated by previous studies. The Bailey formula was used to establish the intrinsic relationship between soil stress and bulk density. The soil uniaxial compression test was applied to obtain the parameters of the Bailey formula, and soil samples were prepared with three different levels of water content. After fitting with the Bailey formula, under the condition that the soil moisture contents were 16%, 20%, and 24%, the fitting coefficients of soil bulk density were respectively 0.980, 0.959, and 0.975, which were close to 1. The results indicated that the Bailey formula could be used to calculate soil bulk density based on the stress conditions of the soil. To verify the practicality of the soil compaction prediction model, a field experiment was carried out in Zhuozhou City, Hebei Province, China. The treatment was set for 1, 3, 5, 7, and 9 times compaction with two different loads of compaction equipment. The results showed that the fit coefficient between the predicted and measured values of soil bulk density was greater than 0.641. The slope of the equation was greater than 0.782, proving that the soil bulk density prediction model based on agricultural implements and soil parameters has a good predictive effect on soil bulk density. The soil compaction evaluation model can provide a theoretical basis to further understand the soil compaction mechanism, allowing rational measures of soil compaction alleviation to be made.
Keywords: soil traffic-induced compaction, agricultural implement, soil bulk density, no-tillage, soil structure, quantification
DOI: 10.25165/j.ijabe.20201305.5480

Citation: Wang X L, Zhang X C, Lin X N, Sha L M, Yang H Y, Guo Z Y, et al. Quantification of traffic-induced compaction based on soil and agricultural implement parameters. Int J Agric & Biol Eng, 2020; 13(5): 134–140.

Keywords


soil traffic-induced compaction, agricultural implement, soil bulk density, no-tillage, soil structure, quantification

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References


Abdel-Moghny T, Mohamed R S A, El-Sayed E, Shoukry M, Moustafa G. Effect of soil texture on remediation of hydrocarbons-contaminated soil at El-Minia District, Upper Egypt. ISRN Chemical Engineering, 2012; 2012(2): 1–13.

Zhao Z J, Zou M, Xue L, Wei C G, Li J Q. Simulation analysis of the effect of compaction on soil stress distribution. Transactions of the CSAM, 2012; 43(S1): 13–16. (in Chinese)

Zhang J L, Han W T, Shi S B, Gao F, Zhang Y Z. Experimental study on soil compaction by agricultural machinery. Tractors and farm transporters, 2011; 38(3): 6–7. (in Chinese)

Hamza M A, Anderson W K. Soil compaction in cropping systems a review of the nature, causes and possible solutions. Soil and Tillage Research, 2005; 82(2): 121–145.

Batey T. Soil compaction and soil management a review. Soil Use and Management, 2009; 25(4): 335–345.

Raper R L. Agricultural traffic impacts on soil. Journal of Terra mechanics, 2005; 42(3): 259–280.

Soane B D, van Ouwerkerk C. Soil compaction problems in world agriculture. Developments in Agricultural Engineering, 1994; 11: 1–21.

Zhang L. Response and adaptation mechanism of Festuca Arundinacea to soil compaction on coal waste piles with spontaneous combustion. PhD dissertation. Beijing: China University of Mining and Technology, 2012; 149p. (in Chinese)

Keller T, Lamandé M. Challenges in the development of analytical soil compaction models. Soil and Tillage Research, 2010; 111(1): 54–64.

Wu Y B, Liu S. Effects of soil compaction on soil properties and plant growth. China Forestry Science and Technology, 2010; 24(1): 15–17. (in Chinese)

Niziolomski J C, Simmons R W, Rickson R J, Hann M J. Tine options for alleviating compaction in wheelings. Soil and Tillage Research, 2016; 161: 47–52.

Schjønning P, Lamandé M, Tøgersen F A, Johan A, Thomas K. Modelling effects of tyre inflation pressure on the stress distribution near the soil-tyre interface. Biosystems Engineering, 2008; 99(1): 119–133.

Hemmat A, Adamchuk V I. Sensor systems for measuring soil compaction: Review and analysis. Computers and Electronics in Agriculture, 2008; 63(2): 89–103.

Boussinesq J. Application of potentials to the study of the balance and motion of elastic solids. Paris: Gautiher-Villars, 1885; 721p.

Omar G C, Ciro E, Carlos A. Recarey M, Guillermo U. Three dimensional finite element model of soil compaction caused by agricultural tire traffic.Computers and Electronics in Agriculture, 2013; 99: 146–152.

Peter B O, Dorothee K, Mathieu L, Trond B, Gareth E. Compaction and sowing date change soil physical properties and crop yield in a loamy temperate soil. Soil and Tillage Research, 2018; 184: 153–163.

Jan R, Hofmann B, Deumelandt P, Frank R, Jana B, Kurt J H. Indicator based assessment of the soil compaction risk at arable sites using the model REPRO. Ecological Indicators, 2015; 52: 341–352.

Newell J P, Whittingham M J, Chambers B J. Visual soil evaluation in relation to measured soil physical properties in a survey of grassland soil compaction in England and Wales. Soil and Tillage Research, 2013; 127: 65–73.

Donohue S, Forristal D, Donohue L A. Detection of soil compaction using seismic surface waves. Soil and Tillage Research, 2013; 128: 54–60.

Obour P B, Schjønning P, Peng Y, Lars J. Subsoil compaction assessed by visual evaluation and laboratory methods. Soil and Tillage Research, 2017; 173: 4–14.

Ball B C, Batey T, Munkholm L J, Guimarães R, Boizard H, McKenzie D. The numeric visual evaluation of subsoil structure (subvess) under agricultural production. Soil and Tillage Research, 2015; 148: 85–96.

Peigné J, Vian J, Cannavacciuolo M, Vincent L, Yvan G, Hubert B. Assessment of soil structure in the transition layer between topsoil and subsoil using the profile cultural method. Soil and Tillage Research, 2013; 127: 13–25.

Wang X L, Wang Q J, Li H W, He J, Zhang Y F. Research on contact properties of soil-tire based on FRIDA Model. Transactions of the CSAM, 2016; 47(9): 121–127. (in Chinese)

Söhne W. Stress distribution in soil and soil deformation under tractor tyres. Grdlgn. d. Landtechn, 1953; 5: 49–63.

Lestariningsih I D, Hairiah Widianto K. Assessing soil compaction with two different methods of soil bulk density measurement in oil palm plantation soil. Procedia Environmental Sciences, 2013; 17: 172–178.

Saffih-Hdadia K, De´fosseza P, Richard G. A method for predicting soil susceptibility to the compaction of surface layers as a function of water content and bulk density, Soil and Tillage Research, 2009; 105: 96–103.

Huang Z X, Chen J, Zhu X F. Study on the problem of stress bulk density under different soil moisture content. Modernizing Agriculture, 2016; 1: 19–20. (in Chinese)

Zhang Q Z. Soil press roller with bionically geometrically structured surfaces. PhD dissertation. Changchun: Jilin University, 2014; 162p. (in Chinese)




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