Dolomitic lime and silicate in no-till: Nutritional status, soil fertility, and soybean agronomic performance

Bruno Maia Abdo Rahmen Cassim, André Oliveira Rodrigues, Marcos Renan Besen, Evandro Antonio Minato, Gabriel Ferrari Paschoeto, Rodrigo Sakurada Lima, Rafael Otto, Tadeu Takeyoshi Inoue, Marcelo Augusto Batista
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Abstract

Limestone is the most widely used agricultural input for soil acidity correction and calcium (Ca) and magnesium (Mg) fertilization. However, other materials have the potential to fulfill these purposes, such as steel slags, also known as silicates. Silicates have higher solubility than limestone, serving as agents for increase pH in no-till, in addition to being a source of Ca, Mg, and silicon (Si). This study aimed to compare the effects of surface application of dolomitic lime and calcium magnesium silicate on soil chemical properties, soybean [Glycine max (L.) Merr.] nutritional status, and grain yield under no-till. The experiment was installed in the northwest Paraná State, Brazil, on a Rhodic Eutrustox. Lime and silicate rates were applied by broadcasting before the sowing of soybean. Silicate treatment increases soil Ca2+, pH, and base saturation up to a depth of 0.10 m. By contrast, liming effects on soil chemistry were restricted to the 0.05 m top layer after 24 months of application. The acidity correction and Ca2+ supply to greater soil depths and the increased leaf Si as a beneficial element provided by silicate treatment contributed to increasing soybean yield in the 2018/2019 and 2019/2020 seasons. Lime application, regardless of the rate, did not improve soybean yield. Waste from the steel industry can be used as acidity correctives and source of Si, Ca, and Mg, improving the agronomic performance of soybean.

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免耕中的白云石钙和硅酸盐:营养状况、土壤肥力和大豆的农艺表现
石灰石是最广泛使用的农业投入品,可用于土壤酸度校正、钙(Ca)肥和镁(Mg)肥。不过,其他材料也有可能实现这些目的,例如钢渣(也称为硅酸盐)。硅酸盐的溶解度比石灰石高,除了是钙、镁和硅(Si)的来源外,还可作为免耕中提高 pH 值的添加剂。本研究旨在比较白云石石灰和硅酸钙镁在免耕条件下对土壤化学性质、大豆(Glycine max (L.) Merr.)营养状况和谷物产量的影响。该实验在巴西巴拉那州西北部的罗迪克 Eutrustox 上进行。石灰和硅酸盐的施用量是在大豆播种前播撒的。相比之下,施用石灰 24 个月后,对土壤化学的影响仅限于 0.05 米的表层。硅酸盐处理对更大土壤深度的酸度修正和 Ca2+ 供应,以及作为有益元素的叶片 Si 的增加,有助于提高 2018/2019 和 2019/2020 两季的大豆产量。施用石灰,无论施用量多少,都不能提高大豆产量。钢铁工业废料可用作酸度纠正剂和 Si、Ca 和 Mg 的来源,从而改善大豆的农艺性能。
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