花生-棉花种植系统中植物寄生线虫的垂直分布

IF 4.8 2区 农林科学 Q1 SOIL SCIENCE
Lesley A. Schumacher , Hui-Ling Liao , Ian M. Small , Zane J. Grabau
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引用次数: 0

摘要

肾形线虫(Rotylenchulus reniformis)是棉花(Gossypium hirsutum)的寄生虫,通常采用轮作的方式对其进行管理。一种特殊的轮作方式是以草皮为基础的轮作,即先种植两年大叶女贞(Paspalum notatum),再种植一年花生(Arachis hypogaea)和棉花,而不是传统的花生-棉花-棉花轮作。在土壤剖面的耕作深度以下发现了高密度的肾形线虫种群,但传统的化学管理往往无法控制这些较深的种群,而且对这些较深的其他植物寄生虫,如环线虫(Mesocriconema ornatum)和螺旋线虫(Helicotylenchus dihystera)也知之甚少。我们的研究旨在探讨在不同灌溉制度下,长期耕作史(自2000年以来)如何影响植物寄生线虫(肾形线虫、环状线虫和螺旋线虫)的垂直空间分布。2017 年 3 月至 2019 年 1 月期间,使用液压探针采集了种植前、收获后和冬季 120 厘米深的土壤样本。对 30 厘米切片的线虫丰度(包括所有肾形线虫生命阶段的计数)进行了分析。灌溉对线虫数量没有明显影响(P > 0.05)。在每个取样日期,所有肾形线虫的数量都随着土壤深度的增加而逐步减少,但在 30 厘米以下几乎没有螺旋线虫和环状线虫。与传统轮作相比,草皮轮作普遍降低了所有深度的线虫数量,但在较浅的深度(0-30 厘米和 30-60 厘米)差异更为明显。相反,在 0-30 厘米深的土壤中,环状线虫的数量通常在草皮轮作的花生阶段最多。同样,在 0-30 厘米深的土壤中,大叶菠萝草阶段的螺旋线虫数量普遍明显高于其他阶段,第一年棉花(草皮轮作或常规轮作)的螺旋线虫数量也不同程度地高于其他阶段。总体而言,草皮轮作有助于管理土壤剖面 120 厘米深处的线虫。草皮轮作不利于管理次要的植物寄生线虫螺旋线虫和环状线虫,这些线虫在土壤剖面 30 厘米深以下很少见。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vertical distribution of plant-parasitic nematodes in peanut-cotton cropping systems

Reniform nematode (Rotylenchulus reniformis) is a parasite of cotton (Gossypium hirsutum) and crop rotation is commonly used for its management. One specific rotation system is a sod-based rotation, which uses two years of bahiagrass (Paspalum notatum) followed by one year each of peanut (Arachis hypogaea) and cotton, versus a conventional peanut-cotton-cotton rotation. High population densities of reniform nematode are found below plow depth in the soil profile, yet conventional chemical management is often not able to manage these deeper populations, nor is much known about other plant parasites such as ring nematode (Mesocriconema ornatum) and spiral nematode (Helicotylenchus dihystera) at these deeper depths. Our study aimed to investigate how long-term cropping history (since 2000) affects the vertical spatial distribution of plant-parasitic (reniform, ring, and spiral) nematodes under different irrigation regimes. Between March 2017 and January 2019, soil samples were collected to a depth of 120 cm before planting, after harvest, and in the winter using a hydraulic probe. Nematode abundances (including enumeration of all reniform nematode life stages) were analyzed in 30 cm-sections. There were no significant effects of irrigation on nematode abundances (P > 0.05). In each sampling date, all reniform nematode abundances decreased stepwise as soil depth increased, but spiral and ring nematodes were nearly absent below 30 cm. Sod-based rotation generally reduced reniform nematode abundances at all depths compared with conventional rotation, although differences were more pronounced in the shallower depths (0–30 and 30–60 cm). Conversely, at 0–30 cm soil depth, ring nematode abundances were generally greatest in the peanut phase of sod-based rotation. Similarly, spiral nematode abundances, at 0–30 cm soil depth, were generally significantly greater in bahiagrass phases than other phases and variously greater in first-year cotton (sod-based or conventional). Overall, sod-based rotation helped manage reniform nematodes up to 120 cm deep in the soil profile. Sod-based rotation was detrimental for managing minor plant-parasitic nematodes spiral and ring nematodes, and those nematodes were scarce below 30 cm deep in the soil profile.

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来源期刊
Applied Soil Ecology
Applied Soil Ecology 农林科学-土壤科学
CiteScore
9.70
自引率
4.20%
发文量
363
审稿时长
5.3 months
期刊介绍: Applied Soil Ecology addresses the role of soil organisms and their interactions in relation to: sustainability and productivity, nutrient cycling and other soil processes, the maintenance of soil functions, the impact of human activities on soil ecosystems and bio(techno)logical control of soil-inhabiting pests, diseases and weeds.
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