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da Silva Edson Cabral Muraoka Takashi Bastos Alefe Viana Souza Franzini Vinícius Ide Buzetti Salatiér Soares Frederico Antonio Loureiro Teixeira Marconi Batista Bendassolli José Alberto 《Journal of Crop Science and Biotechnology》2020,23(3):289-289
Journal of Crop Science and Biotechnology - Due to an unfortunate oversight the author’s name and affiliation have been given erroneously. It should be read: 相似文献
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da Silva Edson Cabral Muraoka Takashi Bastos Alefe Viana Souza Franzin Vinícius Ide Buzetti Salatiér Soares Frederico Antonio Loureiro Teixeira Marconi Batista Bendassolli José Alberto 《Journal of Crop Science and Biotechnology》2020,23(2):117-126
Journal of Crop Science and Biotechnology - Cover plants are intended to cover the soil, protecting it from erosion, nutrient leaching, and providing nutrients through recycling or biological... 相似文献
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J. M. T. Carneiro L. A. Oliveira A. L. R. M. Rossete C. H. Abreu Jr. J. A. Bendassolli 《Journal of plant nutrition》2013,36(9):1374-1383
The 30Si silicon isotope stable was used for assessing the accumulation and translocation of Si in rice and bean plants grown in labeled nutritive solution. The isotopic silicon composition in plant materials was determined by mass spectrometry (IRMS) using the method based on SiF4 formation. Considering the total-Si added into nutritive solutions, the quantity absorbed by plants was near to 51% for rice and 15% for bean plants. The accumulated amounts of Si per plant were about 150g in rice and 8.6g in bean. Approximately 70% of the total-Si accumulated was found in leaves. At presented experimental conditions, the results confirmed that once Si is accumulated in the old parts of rice and bean plant tissues it is not redistributed to new parts, even when Si is not supplied to plants from nutritive solution. 相似文献
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J. J. M. Milagres C. R. Sant Ana Filho E. L. Schoninger P. C. O. Trivelin J. A. Bendassolli 《Communications in Soil Science and Plant Analysis》2016,47(13-14):1709-1719
Molecular nitrogen (N2) and nitrous oxide (N2O) generated by denitrification increase N losses in the soil–plant system. This study aimed to quantify N2 and N2O from potassium nitrate (K15NO3) applied to soils with different textures and moisture contents in the absence and presence of a source of carbon (C) using the 15N tracer method. In the three soils used (sandy texture (ST), sandy clay loam texture (SCLT), and clayey texture (CT)), three moisture contents were evaluated (40%, 60%, and 80% of the water holding capacity (WHC)) with (D+) and without (D?) dextrose added. The treatments received 100 mg N kg?1 (KNO3 with 23.24 atom% 15N). N2 emissions occurred in all of the treatments, but N2O emissions only occurred in the D+ treatment, showing increases with increasing moisture content. SCLT with 80% WHC in the D+ treatment exhibited the highest accumulated N emission (48.26 mg kg?1). The 15N balance suggested trapping of the gases in the soil. 相似文献
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