Soil & Water Res., 2013, 8(4):141-150 | DOI: 10.17221/33/2013-SWR
Thermal properties of representative soils of the Czech RepublicOriginal Paper
- 1 Deptartment of Soil Science and Soil Protection, Faculty of Agrobiology Food and Natural Resources and
- 2 Department of Mechanics and Mechanical Engineering, Faculty of Engineering, Czech University of Life Sciences Prague, Prague, Czech Republic
Knowledge of soil thermal properties is essential when assessing heat transport in soils. Thermal regime of soils is associated with many other soil processes (water evaporation and diffusion, plant transpiration, contaminants behaviour etc.). Knowledge of thermal properties is needed when assessing effectivity of energy gathering from soil profiles using horizontal ground heat exchangers, which is a topic of our research project. The study is focused on measuring of thermal properties (thermal conductivity and heat capacity) of representative soils of the Czech Republic. Measurements were performed on soil samples taken from the surface horizons of 13 representative soil types and from 4 soil substrates, and on mulch (bark chips) sample using KD2 PRO device with TR-1 and SH-1 sensors. The measured relationships between the thermal conductivity and volumetric soil-water content were described by the non-linear equations and those between the volumetric heat capacity and volumetric soil-water content were expressed using the linear equations. The highest thermal conductivities were measured in soils on quartz sand substrates. The lowest thermal conductivities were measured in the Stagnic Chernozem Siltic on marlite and the Dystric Cambisol on orthogneiss. The opposite trend was observed for maximal heat capacities, i.e. the highest values were measured in the Stagnic Chernozem Siltic and the lowest in sand and soils on sand and sandy gravel substrate.
Keywords: heat capacity; laboratory measurements; sensor comparison; soil thermal properties; soil-water content; soil types; thermal conductivity
Published: December 31, 2013 Show citation
References
- Anonymous (2006): KD2 Pro Operator's Manual, Version 4. Decagon Devices, Pulmann.
- Bateni S.M., Jeng D.S., Naeini S.M.M. (2012): Estimating soil thermal properties from sequences of land surface temperature using hybrid Genetic Algorithm-Finite Difference method. Engineering Applications of Artificial Intelligence, 25: 1425-1436
Go to original source...
- Bauer J., Weihermüller L., Huisman J.A., Herbst M., Graf A., Séquaris J.M., Vereecken H. (2012): Inverse determination of heterotrophic soil respiration response to temperature and water content under field conditions. Biogeochemistry, 108: 119-134.
Go to original source...
- Bristow K.L. (2002): Thermal conductivity. In: Dane J.H., Topp G.C. (eds): Methods of Soil Analysis. Soil Science Society of America, Inc., Madison, 1209-1226.
Go to original source...
- Buchner J.S., Šimůnek J., Lee J., Rolston D.E., Hopmans J.W., King A.P., Six J. (2008): Evaluation of CO2 fluxes from an agricultural field using a process-based numerical model. Journal of Hydrology, 361: 31-143.
Go to original source...
- Campbell G.S. (1985): Soil Physics with Basic; Transport Models for Soil-Plant Systems. Elsevier, New York.
- Campbell G.S., Jungbauer J.D., Bidlake W.R., Hungerford R.D. (1994): Predicting the effect of the temperature on soil thermal conductivity. Soil Science, 158: 307-313.
Go to original source...
- Chen Y.Y., Yang K., Tang W.J., Qin J., Zhao L. (2012): Parameterizing soil organic carbon's impacts on soil porosity and thermal parameters for Eastern Tibet grasslands. Science China - Earth Science, 55: 1001-1011.
Go to original source...
- Chung S.O., Horton R. (1987): Soil heat and water flow with a partial surface mulch. Water Resources Research, 23: 2175-2186.
Go to original source...
- Clauser C. (2011): Thermal storage and transport properties of rocks, I: Heat capacity and latent heat. In: Gupta H. (ed.): Encyclopedia of Solid Earth Geophysics. 2nd Ed., Springer, Dordrecht.
Go to original source...
- Côté J., Konrad J.M. (2005): A generalized thermal conductivity model for soils and construction materials. Canadian Geotechnical Journal, 42: 443-458.
Go to original source...
- de Vries D.A. (1963): Thermal properties of soils. In: van Wijk W.R. (ed.): Physics of Plant Environment. NorthHolland Publishing Company, Amsterdam, 210-235.
- Gerke H.H., van Genuchten M.Th. (1993): A dual-por osity model for simulating the preferential movement of water and solutes in structured porous media. Water Resources Research, 29: 305-319.
Go to original source...
- Kodešová R., Kočárek M., Kodeš V., Drábek O., Kozák J., Hejtmánková K. (2011a): Pesticide adsorption in relation to soil properties and soil type distribution in regional scale. Journal of Hazardous Materials, 186: 540-550.
Go to original source...
Go to PubMed...
- Kodešová R., Kodeš V., Mráz A. (2011b): Comparison of two sensors ECH2O EC-5 and SM200 for measuring soil water content. Soil and Water Research, 6: 102-110.
Go to original source...
- Loukili Y., Woodbury A.D., Snelgrove K.R. (2008): SABAE-HW: An enhanced water balance prediction in the Canadian Land Surface Scheme compared with existing models. Vadose Zone Journal, 7: 865-877.
Go to original source...
- Miháliková M., Matula S., Doležal F. (2013): HYPRESCZ - database of soil hydrophysical properties in the Czech Republic. Soil and Water Research, 8: 34-41.
Go to original source...
- Mortensen A.P., Hopmans J.W., Mori Y., Šimůnek J. (2006): Multi-functional heat pulse probe measurements of coupled vadose zone flow and transport. Advances in Water Resources 29: 250-267.
Go to original source...
- Saito H., Šimůnek J., Mohanty B.P. (2006): Numerical analysis of coupled water, vapor, and heat transport in the vadose zone. Vadose Zone Journal, 5: 784-800.
Go to original source...
- Saito H., Šimůnek J., Hopmans J.W., Tuli A. (2007): Numerical evaluation of alternative heat pulse probe designs and analyses. Water Resources Research, 43: W07408.
Go to original source...
- Sakai M., Jones S.B., Tuller M. (2011): Numerical evaluation of subsurface soil water evaporation derived from sensible heat balance. Water Resources Research, 47: W02547.
Go to original source...
- Šimůnek J., van Genuchten M.Th., Šejna M. (2008): Development and applications of the HYDRUS and STANMOD software packages, and related codes. Vadose Zone Journal, 7: 587-600.
Go to original source...
- Smits K.M., Sakaki T., Howington S.E., Peters J.F. Illangasekare T.H. (2013): Temperature dependence of thermal properties of sands across a wide range of temperatures (30-70°C). Vadose Zone Journal, 12: doi 10.2136/vzj2012.0033.
Go to original source...
- van Wijk W.R., de Vries D.A. (1963): Periodic temperature variations in a homogenous soil. In: van Wijk W.R. (ed.): Physics of Soil Environment. North-Holland Publishing Company, Amsterdam, 102-143.
- Vogel T., Dohnal M., Votrubova J. (2011): Modeling heat fluxes in macroporous soil under sparse young forest of temperate humid climate. Journal of Hydrology, 402: 367-376.
Go to original source...
- Votrubová J., Dohnal M., Vogel T., Tesař M. (2012): On parameterization of heat conduction in coupled soil water and heat flow modelling. Soil and Water Research, 7: 125-137.
Go to original source...
- Wösten J.H.M., Lilly A., Nemes A., Le Bas C. (1999): Development and use of a database of hydraulic proper ties of European soils. Geoderma, 90: 169-185.
Go to original source...
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