Biochar Application in Saline Soils for Increasing Wheat Germination Success in Central Mexico

L. E. Medina-Orozco
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Abstract

Soil salinity is one of the main limitations in wheat production worldwide. Global wheat crop losses due to saline stress are estimated at 15–40%. It is reported that 60% of the soils of agricultural areas of Mexico are affected by salinity; that means a significant area of soils under wheat have problems related to the toxicity of soluble salts. In the country, an annual wheat area of approximately 554 thousand hectares is harvested; this crop represents 9.7% of the total grains’ yields grown nationally. The majority of the fields are irrigated, while the remaining 13% are under rainfed agriculture. A controlled trial was conducted with Urbina S2007 variety wheat in the present study. The wheat seed was planted in pots in strongly saline soil (pH = 8.8 and E.C. = 10.59 dSm–1), the soil’s name Salic Vertisol (Gleyic). The experimental design consisted of three completely random blocks, each one consisting of twenty pots. In ten pots, 1% of biochar (w/w) (T1) was added, while the rest consisted of a control without biochar (T0). The percentage of germinated seeds was evaluated; to explain the differences in treatments, the soil Water Holding Capacity (WHC), pH, electrical conductivity (CE) and soil temperature were measured. The results showed a germination rate of 62.5% in T1 and 25.0% in T0. Biochar application resulted in a 21% increase in the WHC. Soil pH values after the test were 8.5 in T1 and 8.0 in T0. The soil temperature varied between 20 and 34°C, and there were no differences between treatments. The application of biochar in salts affected soils is non-conventional alternative amendment to increase germination success in wheat crops.

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在墨西哥中部盐碱地上应用生物炭提高小麦发芽成功率
摘要 土壤盐碱化是全球小麦生产的主要限制因素之一。据估计,全球小麦作物因盐碱胁迫造成的损失为 15-40%。据报道,墨西哥农业区 60% 的土壤受到盐分的影响;这意味着相当大面积的小麦种植土壤存在与可溶性盐分毒性有关的问题。墨西哥每年收获的小麦面积约为 55.4 万公顷,占全国谷物总产量的 9.7%。大部分麦田都进行了灌溉,其余 13% 的麦田则靠雨水灌溉。本研究对 Urbina S2007 品种小麦进行了对照试验。小麦种子被种植在强盐碱土壤(pH = 8.8,E.C. = 10.59 dSm-1)的花盆中,该土壤被命名为盐碱惰性土壤(Gleyic)。实验设计由三个完全随机区块组成,每个区块由 20 个花盆组成。在十个花盆中加入 1%的生物炭(重量比)(T1),其余花盆为不加生物炭的对照组(T0)。对发芽种子的百分比进行了评估;为了解释不同处理之间的差异,还测量了土壤持水量(WHC)、pH 值、电导率(CE)和土壤温度。结果显示,T1 的发芽率为 62.5%,T0 为 25.0%。施用生物炭后,WHC 提高了 21%。试验后,T1 的土壤 pH 值为 8.5,T0 为 8.0。土壤温度在 20 至 34°C 之间变化,不同处理之间没有差异。在受盐分影响的土壤中施用生物炭是提高小麦作物发芽成功率的非常规替代性改良剂。
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