Urease activity and urea hydrolysis rate under coupling effects of moisture content, temperature, and nitrogen application rate
Abstract
Keywords: urease activity, hydrolysis rate constant, Arrhenius model, activation energy, coupling effect
DOI: 10.25165/j.ijabe.20181102.3784
Citation: Lei T, Gu Q Q, Guo X H, Ma J J, Zhang Y, Sun X H. Urease activity and urea hydrolysis rate under coupling effects of moisture content, temperature, and nitrogen application rate. Int J Agric & Biol Eng, 2018; 11(2): 132–138.
Keywords
Full Text:
PDFReferences
Wang L L, Li W Z, Wang Z J, Wang Z W, Sui C, Li Y. Effects of digestate application depth on soil nitrogen volatilization and vertical distribution. Int J Agric & Biol Eng, 2016; 9(5): 101–107.
Zhao Z P, Duan M, Yan S, Liu Z F, Wang Q, Fu J, et al. Effects of different fertilizations on fruit quality, yield and soil fertility in field-grown kiwifruit orchard. Int J Agric & Biol Eng, 2017; 10: 162–171.
Zhao Z P, Yan S, Liu F, Ji P H, Wang X Y, Tong Y A. Effects of chemical fertilizer combined with organic manure on Fuji apple quality, yield and soil fertility in apple orchard on the Loess Plateau of China. Int J Agric & Biol Eng, 2014; 7: 45–55.
Wang C F, Shao X H, Xu H L, Chang T T, Wang W N. Effects of compound microbial inoculant treated wastewater irrigation on soil nutrients and enzyme activities. Int J Agric & Biol Eng, 2016; 9: 100–108.
Yang X, Wu L, Wu S, Chen J. Nitrogen release characteristic of polymer coated urea in paddy soil and its relationship with cumulative temperature. Transactions of the CSAE, 2016; 32: 199–204. (in Chinese)
Antil D R S, Mahata M K, Narwal R P. Effect of substrate concentration, soil moisture, and organic materials on urease activity of soil contaminated with lead. Archives of Agronomy & Soil Science, 2006; 52: 61–68.
Moyo C C, Kissel D E, Cabrera M L. Temperature effects on soil urease activity. Soil Biology & Biochemistry, 1989; 21: 935–938.
Sardans J, PeñUelas J, Estiarte M. Changes in soil enzymes related to C and N cycle and in soil C and N content under prolonged warming and drought in a Mediterranean shrubland. Applied Soil Ecology, 2008; 39: 223–235.
Liang X Q, Yuan YJ, He M M, Hua L, Liang L, Tian G M. Modeling the fate of fertilizer N in paddy rice systems receiving manure and urea. Geoderma, 2014; 228–229: 54–61.
Rodríguez S B, Alonso-Gaite A, Álvarez-Benedí J. Characterization of
nitrogen transformations, sorption and volatilization processes in urea fertilized soils. Vadose zone journal, 2005; 4: 329–336.
Chauhan H S, Mishra B. Ammonia volatilization from a flooded rice field fertilized with amended urea materials. Fertilizer research, 1989; 19: 57–63.
Lal R, Kissel D, Cabrera M, Schwab A. Kinetics of urea hydrolysis in wheat residue. Soil Biology and Biochemistry, 1993; 25: 1033–1036.
Sankhayan S D, Shukla U C. Rates of urea hydrolysis in five soils of India. Geoderma, 1976; 16: 171–178.
Chowdary V M, Rao N H, Sarma P B S. A coupled soil water and nitrogen balance model for flooded rice fields in India. Agriculture, Ecosystems & Environment, 2004; 103: 425–441.
Liang X Q, Chen Y X, Li H, Tian G M, Ni W Z, He M M, et al. Modeling transport and fate of nitrogen from urea applied to a near-trench paddy field. Environmental Pollution, 2007; 150: 313–320.
Liang X Q, Li Y J, He M M, Hua L, Liang L, Tian G M. Modeling the fate of fertilizer N in paddy rice systems receiving manure and urea. Geoderma, 2014; 228: 54–61.
Todd R W, Cole N A, Waldrip H M, Aiken R M. Arrhenius equation for modeling feedyard ammonia emissions using temperature and diet crude protein. J Environ Qual, 2013; 42: 666–671.
Dessureault-Rompré J, Zebarth B J, Georgallas A, Burton D L, Grant C A, Drury C F. Temperature dependence of soil nitrogen mineralization rate: Comparison of mathematical models, reference temperatures and origin of the soils. Geoderma, 2010; 157: 97–108.
Frøseth R B, Bleken M A. Effect of low temperature and soil type on the decomposition rate of soil organic carbon and clover leaves, and related priming effect. Soil Biology and Biochemistry, 2015; 80: 156–166.
Vourlitis G L, DeFotis C, Kristan W. Effects of soil water content, temperature and experimental nitrogen deposition on nitric oxide (NO) efflux from semiarid shrubland soil. Journal of Arid Environments, 2015; 117: 67–74.
Cabrera M L, Kissel D E, Bock B R. Urea hydrolysis in soil: Effects of urea concentration and soil pH. Soil Biology & Biochemistry, 1991; 23: 1121–1124.
Yadav D, Kumar V, Singh M, Relan P. Effect of temperature and moisture on kinetics of urea hydrolysis and nitrification. Soil Research, 1987; 25: 185–191.
Singh R, Nye P H. The effect of soil pH and high urea concentrations on urease activity in soil. European Journal of Soil Science, 1985; 35: 519–527.
Dalal R. Urease activity in some Trinidad soils. Soil Biology and Biochemistry, 1975; 7: 5–8.
Gou W, Zheng P F, Tian L, Gao M, Zhang L X, Akram N A, et al. Exogenous application of urea and a urease inhibitor improves drought stress tolerance in maize (Zea mays L.). Journal of Plant Research, 2017; 130: 599–609.
Sudkolai S T, Nourbakhsh F. Urease activity as an index for assessing the maturity of cow manure and wheat residue vermicomposts. Waste Management, 2017; 64: 63–66.
Burns R G. Soil enzymes. London: Academic Press, 1978.
Suter H C, Pengthamkeerati P, Walker C, Chen D. Influence of temperature and soil type on inhibition of urea hydrolysis by N-(n-butyl) thiophosphoric triamide in wheat and pasture soils in south-eastern Australia. Soil Research, 2011; 49: 315–319.
Pauling L. General chemistry. Massachusetts: Courier Corporation, 2014.
Hartley I P, Ineson P. Substrate quality and the temperature sensitivity of soil organic matter decomposition. Soil Biology and Biochemistry, 2008; 40: 1567–1574.
Rachinskii V, Pelttser A. Effect of temperature on rate of decomposition of urea in soil. Agrokhimiya, 1967; 10: 75–77.
Gould W, Cook F, Webster G. Factors affecting urea hydrolysis in several Alberta soils. Plant and Soil, 1973; 38: 393–401.
Copyright (c)