从谷物蒸馏中回收的植素可用作玉米和大豆的磷肥

Jeonggu Lee, Allan Hertzberger, Ankita Juneja, Roland Cusick, Vijay Singh, Andrew J. Margenot
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摘要

从废物流中回收磷可以提高粮食系统的磷利用效率,同时减少点源磷损失。植酸是玉米谷物生物炼制过程中产生的一种富含 P 的废弃物,主要分布在美国中西部地区。然而,由于植蛋白中的大部分钾是有机钾,因此在施用植蛋白后,土壤中的作物利用率可能有限,因为它必须首先被土壤中的磷酸酶矿化为正磷酸盐钾。为了评估从玉米湿碾工厂回收的植汀的肥料潜力,并测试假设的磷矿化机制,我们对植汀替代磷酸一铵(MAP)的五级梯度(0%、25%、50%、75% 和 100% 替代)进行了评估,以确定玉米(Zea mays L.)和大豆(Glycine max L.)在缺钾的水生阿尔基浊流中的生长情况。无论作物种类如何,在植被生长末期(VT 阶段),植素替代 MAP 达 75% 时,地上生物量与 MAP 相似,但当植素完全替代 MAP 时,玉米和大豆的地上生物量分别降低了 21% 和 49%。土壤微生物生物量碳(C)、氮(N)、钾以及磷单酯酶和磷二酯酶的活性在植素替代梯度上保持不变,表明植素钾的矿化作用可以忽略不计。植素完全替代 MAP 后,玉米和大豆的土壤微生物生物量 C:N 比值分别降低了 121% 和 153%,大豆的单位微生物生物量 C 的土壤磷酸酶活性提高了 24%。我们的研究结果表明,对于美国中西部两种主要作物来说,植素可以部分替代高水溶性磷肥,因为在这两种作物中,植素废弃物是共同产生的。
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Phytin recovered from grain distillation can serve as a phosphorus fertilizer for maize and soybean

Phosphorus (P) recovery from waste streams can increase food system P use efficiency while simultaneousl mitigating point source P losses. Phytin is a P-rich waste product generated from maize grain biorefineries, largely located in the US Midwest. However, since the majority of P in phytin is organic, phytin-P is likely to have limited crop availability in soil following application, as it must first be mineralized to orthophosphate-P by soil phosphatases. To evaluate the fertilizer potential of phytin recovered from a maize wet milling plant and test hypothesized mechanisms of P mineralization, a five-step gradient of phytin substitution for monoammonium phosphate (MAP) (0%, 25%, 50%, 75%, and 100% substitution) was evaluated for maize (Zea mays L.) and soybean (Glycine max L.) growth in a P-deficient Aquic Argiudoll. Irrespective of crop species, aboveground biomass at end of vegetative growth (VT stage) was similar for up to 75% phytin substitution as MAP, but was 21% lower for maize and 49% for soybean when phytin was fully substituted for MAP. Soil microbial biomass carbon (C), nitrogen (N), and P, as well as activities of phosphomonoesterase and phosphodiesterase were invariant across the phytin substitution gradient, suggesting negligible mineralization of phytin P. Full substitution of MAP with phytin lowered soil microbial biomass C:N by 121% for maize and by 153% for soybean, and soil phosphatase activities per unit microbial biomass C were 24% higher under soybean. Our results indicate that phytin can be partially substituted for highly water-soluble P fertilizers for the two major crop species of the US Midwest in which phytin waste generation is co-located.

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Issue Information Proceedings of the 14th North American Forest Soils Conference Soil chemical properties affecting grain yield and oil content of crambe biofuel crop Particulate organic carbon and nitrogen and soil-test biological activity under grazed pastures and conservation land uses Determining microbial metabolic limitation under the influence of moss patch size from soil extracellular enzyme stoichiometry
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