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利用分子标记对添加堆肥的盆栽基质中哈茨木霉382进行精确检测与追踪。

Precise detection and tracing of Trichoderma hamatum 382 in compost-amended potting mixes by using molecular markers.

作者信息

Abbasi P A, Miller S A, Meulia T, Hoitink H A, Kim J M

机构信息

Department of Plant Pathology, The Ohio State University, Ohio Agricultural Research and Development Center, Wooster, Ohio 44691, USA.

出版信息

Appl Environ Microbiol. 1999 Dec;65(12):5421-6. doi: 10.1128/AEM.65.12.5421-5426.1999.

Abstract

Randomly amplified polymorphic DNA (RAPD) analysis and the PCR assay were used in combination with dilution plating on a semiselective medium to detect and enumerate propagules of Trichoderma hamatum 382, a biocontrol agent utilized in compost-amended mixes. Distinct and reproducible fingerprints were obtained upon amplification of purified genomic DNA of T. hamatum 382 with the random primers OPE-16, OPH-19, and OPH-20. Three amplified DNA fragments of 0.35 (OPE-16(0.35)), 0.6 (OPH-19(0.6)), and 0.65 (OPH-20(0.65)) kb were diagnostic for T. hamatum 382, clearly distinguishing it from 53 isolates of four other Trichoderma spp. tested. Some isolates of T. hamatum shared these low-molecular-weight fragments with T. hamatum 382. However, RAPD analysis of isolates of T. hamatum with all three random primers used in consecutive PCR tests distinguished T. hamatum 382 from other isolates of T. hamatum. These three RAPD amplicons were cloned and sequenced, and pairs of oligonucleotide primers for each cloned fragment were designed. Use of the primers in the PCR assay resulted in the amplification of DNA fragments of the same size as the cloned RAPD fragments from genomic DNA of T. hamatum 382. A combination of dilution plating on a semiselective medium for Trichoderma spp. and PCR, with the RAPD primers OPH-19, OPE-16, and OPH-20 or the three sequence-characterized primers, was used successfully to verify the presence of T. hamatum 382 propagules in nine different soil, compost, and potting mix samples. All 23 Trichoderma isolates recovered on semiselective medium from commercial potting mixes fortified with T. hamatum 382 were identified as T. hamatum 382, whereas 274 Trichoderma isolates recovered from the other nine samples were negative in the PCR assay. Thus, this highly specific combination of techniques allowed detection and enumeration of propagules of T. hamatum 382 in fortified compost-amended potting mixes. Sequence-characterized amplified region markers also facilitated the development of a very simple procedure to amplify DNA of T. hamatum 382 directly from fortified compost-amended potting mixes.

摘要

随机扩增多态性DNA(RAPD)分析和聚合酶链反应(PCR)检测,与在半选择性培养基上的稀释平板计数法相结合,用于检测和计数哈茨木霉382的繁殖体。哈茨木霉382是一种用于堆肥改良混合物中的生物防治剂。用随机引物OPE - 16、OPH - 19和OPH - 20扩增哈茨木霉382的纯化基因组DNA后,获得了清晰且可重复的指纹图谱。三个扩增的DNA片段,大小分别为0.35 kb(OPE - 16(0.35))、0.6 kb(OPH - 19(0.6))和0.65 kb(OPH - 20(0.65)),可作为哈茨木霉382的诊断标记,能将其与测试的其他四种木霉属的53个分离株清楚地区分开。一些哈茨木霉分离株与哈茨木霉382共享这些低分子量片段。然而,在连续PCR测试中,使用所有三种随机引物对哈茨木霉分离株进行RAPD分析,可将哈茨木霉382与其他哈茨木霉分离株区分开来。这三个RAPD扩增子被克隆并测序,并针对每个克隆片段设计了寡核苷酸引物对。在PCR检测中使用这些引物,可从哈茨木霉382的基因组DNA中扩增出与克隆的RAPD片段大小相同的DNA片段。将用于木霉属的半选择性培养基上的稀释平板计数法与PCR相结合,使用RAPD引物OPH - 19、OPE - 16和OPH - 20或三个序列特征引物,成功验证了九种不同土壤、堆肥和盆栽混合样品中哈茨木霉382繁殖体的存在。从添加了哈茨木霉382的商业盆栽混合物中,在半选择性培养基上回收的所有23个木霉分离株均被鉴定为哈茨木霉382,而从其他九个样品中回收的274个木霉分离株在PCR检测中呈阴性。因此,这种高度特异的技术组合能够检测和计数添加了堆肥的盆栽混合物中哈茨木霉382的繁殖体。序列特征扩增区域标记还促进了一种非常简单的程序的开发,可直接从添加了堆肥的盆栽混合物中扩增哈茨木霉382的DNA。

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