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Ammonia Volatilization from Rice Paddy Soils Fertilized with 15N-Urea Under Elevated CO2 and Temperature
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 Title & Authors
Ammonia Volatilization from Rice Paddy Soils Fertilized with 15N-Urea Under Elevated CO2 and Temperature
Lim, Sang-Sun; Kwak, Jin-Hyeob; Lee, Dong-Suk; Lee, Sun-Il; Park, Hyun-Jung; Kim, Han-Yong; Nam, Hong-Shik; Cho, Kyeong-Min; Choi, Woo-Jung;
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 Abstract
It has widely been observed that the effect of elevating atmospheric concentrations on rice productivity depends largely on soil N availabilities. However, the responses of ammonia volatilization from flooded paddy soil that is an important pathway of N loss and thus affecting fertilizer N availability to concomitant increases in atmospheric and temperature has rarely been studied. In this paper, we first report the interactive effect of elevated and temperature on ammonia volatilization from rice paddy soils applied with urea. Urea labeled with was used to quantitatively estimate the contribution of applied urea-N to total ammonia volatilization. This study was conducted using Temperature Gradient Chambers (TGCs) with two levels [ambient (AC), 383 ppmv and elevated (EC), 645 ppmv] as whole-plot treatment (main treatment) and two temperature levels [ambient temperature (AT), and elevated temperature (ET), ] as split-plot treatments (sub-treatment) with triplicates. Elevated temperature increased ammonia volatilization probably due to a shift of chemical equilibrium toward production via enhanced hydrolysis of urea to of which rate is dependent on temperature. Meanwhile, elevated decreased ammonia volatilization and that could be attributed to increased rhizosphere biomass that assimilates otherwise being lost via volatilization. Such opposite effects of elevated temperature and resulted in the accumulated amount of ammonia volatilization in the order of ACET>ACAT>ECET>ECAT. The pattern of ammonia volatilization from applied urea- as affected by treatments was very similar to that of total ammonia volatilization. Our results suggest that elevated has the potential to decrease ammonia volatilization from paddy soils applied with urea, but the effect could partially be offset when air temperature rises concomitantly.
 Keywords
Ammonia Emission;Global Warming;Paddy Fields;Urea Hydrolysis;
 Language
English
 Cited by
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