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土壤噬菌体 Podoviridae 作为防治青枯菌的生物防治剂的潜在用途。

Potential use of soilborne lytic Podoviridae phage as a biocontrol agent against Ralstonia solanacearum.

机构信息

Bacterial Diseases Research Department, Plant Pathology Research Institute, Agricultural Research Center (ARC), Giza, Egypt.

Potato Brown Rot Project, Ministry of Agriculture, Dokki, Giza, Egypt.

出版信息

J Basic Microbiol. 2018 Aug;58(8):658-669. doi: 10.1002/jobm.201800039. Epub 2018 Jun 25.

DOI:10.1002/jobm.201800039
PMID:29938804
Abstract

A new podovirus RsPod1EGY Ralstonia phage (GenBank accession no MG711516) with a specific action against R. solanacearum phylotype IIa, sequevar I (race 3, biovar 2) was isolated from Egyptian soil. The potential efficacy of the isolated phage to be used as biocontrol agent was evaluated in vitro and under greenhouse conditions. The podovirus phage produced a plaque size of 3.0-4.0 mm in diameter and completed its infection cycle in 180 min after infection with a burst size of ∼27 virions per infected cell. On the basis of restriction endonuclease analysis, the genome size of the phage was about 41 kb of double-stranded DNA. In vitro studies showed that RsPod1EGY is stable at higher temperatures (up to 60 °C), and at a wide pH range (5-9). SDS-PAGE analysis indicated the major structural protein to be approximately 32 kDa. Bacteriolytic activity of RsPod1EGY against R. solanacearum was detected at different multiplicity of infection (MOI). RsPod1EGY proved to be effective in reduction and prevention of formation of surface polysaccharides of R. solanacearum, during the exponential growth phase of the latter. Interestingly, RsPod1EGY was effective in suppression of R. solanacearum under greenhouse conditions. All Phage-treated tomato plants showed no wilt symptoms or any latent infection during the experimental period, whereas all untreated plants have wilted by 10 days post-infection. The lytic stability of RsPod1EGY phage at higher temperature as well as its effective suppression of wilting symptoms under greenhouse conditions would contribute to biocontrol the bacterial wilt disease in Egypt under field conditions.

摘要

从埃及土壤中分离到一种针对青枯菌 phylotype IIa、sequevar I(race 3, biovar 2)的新型 Podovirus RsPod1EGY 噬菌体(GenBank 登录号 MG711516)。评估了分离噬菌体作为生物防治剂的潜在功效,包括在体外和温室条件下的效果。该 Podovirus 噬菌体在感染后 180 分钟内形成 3.0-4.0mm 大小的噬菌斑,爆发量约为每个感染细胞 27 个病毒粒子。根据限制性内切酶分析,噬菌体的基因组大小约为 41kb 的双链 DNA。体外研究表明,RsPod1EGY 在较高温度(高达 60°C)和较宽的 pH 范围(5-9)下稳定。SDS-PAGE 分析表明主要结构蛋白约为 32kDa。RsPod1EGY 对青枯菌的裂解活性在不同的感染复数(MOI)下均可检测到。RsPod1EGY 被证明在后者的指数生长期内有效减少和防止青枯菌表面多糖的形成。有趣的是,RsPod1EGY 在温室条件下对青枯菌也有效。所有噬菌体处理的番茄植株在实验期间均未出现萎蔫症状或任何潜伏感染,而所有未处理的植株在感染后 10 天内均已萎蔫。RsPod1EGY 噬菌体在较高温度下的溶菌稳定性及其在温室条件下有效抑制萎蔫症状的能力,将有助于在埃及田间条件下控制细菌性萎蔫病。

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