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Integrated Management of Sclerotinia Sclerotiorum, An Emerging Fungal Pathogen Causing White Mold Disease 白霉病新发真菌菌核病的综合治理
Pub Date : 2022-06-06 DOI: 10.14302/issn.2832-5311.jpcd-22-4182
M. Faruk
Sclerotiniasclerotiorum, the causal agent for white mold (Sclerotinia stem rot), is a devastating fungal pathogen. Currently, Sclerotinia is most commonly managed using the chemical fungicide which can lead to Sclerotinia resistance development, impacting biodiversity and interfering with key ecosystem services. In this regards, field experiments were conducted during 2017-18 planting seasons to evaluate the efficacy of different components viz. sawdust burning, stable bleaching powder, fungal and bacterial bio-control agents, chemical fungicide Rovral 50 WP and integration of different components for the management white mold disease of bush bean, mustard and garden pea in three different locations viz. in the field of Plant Pathology Division, Bangladesh Agricultural Research Institute, Joydebpur, Gazipur, Regional Agricultural Research Station (RARS), Burirhat, Rangpur and RARS, Ishurdi, Pabna, respectively. The results showed that different treatments displayed varying levels of effectiveness against the disease. All the treatments gave satisfactory reduction of white mold disease development and increased plant growth as well as yield of bush bean, mustard and garden pea. Among the treatments, integration of saw dust burning + soil amendments with Trichoderma based bio-fungicide + bacillus based bio-control agents + application fungicide Rovral 50 WP is the best treatment which reduced 97.49%, 77.72%, 72.26% white mold disease incidence and 84.61%, 81.14%, 71.01% white mold disease severity of mustard, bush bean and garden pea, respectively and increasing plant growth parameter as well as 52.16%, 27.74%, 36.97% yield of mustard, bush bean and garden pea, respectively. Application of only fungicide Rovral 50 WP also better treatment in reduction of white mold disease incidence and disease severity and increasing plant growth parameter as well as increasing yield of mustard, bush bean and garden pea. Soil amendment with fungal or bacterial bio-control agents also gave satisfactory results in reduction of white mold disease incidence and disease severity and increasing plant growth parameter as well as increasing yield of mustard, bush bean and garden pea. It could be concluded from the obtained results that integration between bio-control agents as a soil treatment and foliar application chemical fungicide might be useful as a good tool for controlling white mold disease caused by S.sclerotiorum and obtained higher yield of bush bean, mustard and garden pea under field condition.
菌核菌(sclerotinaserotiorum)是一种毁灭性的真菌病原体,是白霉菌(菌核菌茎腐病)的病原。目前,菌核菌最常用的管理方法是使用化学杀菌剂,这可能导致菌核菌产生抗性,影响生物多样性并干扰关键的生态系统服务。为此,在2017-18种植季进行了田间试验,评估了不同成分(木屑燃烧、稳定漂白粉、真菌和细菌生物防治剂、化学杀菌剂Rovral 50 WP)和不同成分组合在三个不同地点(Joydebpur,孟加拉国农业研究所植物病毒处)管理灌木豆、芥菜和豌豆白霉病的效果。Gazipur,区域农业研究站(RARS), Burirhat, Rangpur和RARS, Ishurdi, Pabna。研究结果表明,不同的治疗方法对这种疾病的疗效不同。所有处理均能较好地抑制白霉病的发生,提高矮豆、芥菜和菜豆的植株生长和产量。其中,以木霉菌型生物杀菌剂+芽孢杆菌型生物防治剂+喷施杀菌剂Rovral 50 WP组合的木屑焚烧+土壤改良处理效果最好,可使芥菜、菜豆和菜豆的白霉病发病率分别降低97.49%、77.72%、72.26%,白霉病严重程度分别降低84.61%、81.14%、71.01%,植株生长参数提高,芥菜、菜豆和菜豆产量分别提高52.16%、27.74%、36.97%;分别。单施用杀菌剂rovar50 WP对降低白霉病发病率和病害严重程度,提高植株生长参数,提高芥菜、菜豆和豌豆产量也有较好的处理效果。真菌或细菌生物防治剂的土壤改良在降低白霉病发病率和严重程度,提高植物生长参数,提高芥菜、菜豆和豌豆的产量方面也取得了满意的效果。结果表明,土壤生物防治与叶面施用化学杀菌剂相结合,可作为防治菌核白霉病的有效手段,在大田条件下可获得较高产量的菜豆、芥菜和菜豆。
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引用次数: 0
Polysaccharide Transglycosylases: A Survey of Assay Methods 多糖转糖基化酶:测定方法综述
Pub Date : 2018-05-14 DOI: 10.14302/issn.2832-5311.jpcd-18-2077
V. Farkaš, Kristína Vadinová, E. Stratilová
Polysaccharide transglycosylases (PTGs) are a unique group of glycoside hydrolases playing important roles in the formation and modification of plant and fungal cell walls. Their action involves cutting the molecule of the polysaccharide substrate at the glycosidic bond, followed by transfer of the newly formed reducing-end fragment to the non-reducing end of another polysaccharide molecule, with the formation of a new glycosidic bond. As there is no net increase in the number of reducing ends in the system, conventional reductometric methods used to assess the activity of glycoside hydrolases are ineffective. Since the PTGs participate in vital processes, such as the elaboration of cell walls in plants and fungi, and are not present in animal cells, they are considered as possible targets for future specific fungicides and herbicides. Biochemical studies of PTGs, as well as the search for their inhibitors, require the availability of convenient and efficient methods for their assay. In this review we briefly describe the principles of methods used to detect and to determine the activity of this important group of enzymes.
多糖转糖基酶(PTGs)是一类独特的糖苷水解酶,在植物和真菌细胞壁的形成和修饰中起重要作用。它们的作用包括在糖苷键处切割多糖底物分子,然后将新形成的还原端片段转移到另一个多糖分子的非还原端,从而形成新的糖苷键。由于系统中还原末端的数量没有净增加,因此用于评估糖苷水解酶活性的传统还原方法是无效的。由于PTGs参与重要过程,如植物和真菌细胞壁的细化,而不存在于动物细胞中,因此它们被认为是未来特定杀菌剂和除草剂的可能靶标。PTGs的生化研究,以及寻找它们的抑制剂,需要方便和有效的方法来测定它们。在这篇综述中,我们简要介绍了用于检测和测定这一重要酶群活性的方法的原理。
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引用次数: 1
Emerging Roles of Plant Circular RNAs 植物环状rna的新作用
Pub Date : 2018-02-23 DOI: 10.14302/issn.2832-5311.jpcd-18-1955
Qinjie Chu, Enhui Shen, Chuyu Ye, L. Fan, Qianhao Zhu
Circular RNAs (circRNAs) are covalently closed single-stranded loop RNA molecules with or without protein coding capability. CircRNAs were previously considered to be splicing intermediates or artifacts but are now found to be pervasively expressed in all eukaryotes studied with some demonstrated to have important molecular functions in various biological processes. CircRNA is now a hot study topic of molecular biology. In this review, we summarize the progress achieved so far on plant circRNAs, including identification and functional characterization, compare the similarities and differences of circRNAs between plants and animals, and discuss the challenges for confident detection and functional investigation of plant circRNAs. Similar to what have been found in animals, plant genomes contain a large number of circRNAs that potentially regulate a wide range of biological progresses related to plant development and biotic/abiotic responses. Despite only a few plant circRNAs have been functionally characterized, novel function/mechanism that has not been reported in animals was revealed, implying more exciting findings about plant circRNAs are expected in future studies.
环状RNA (circRNAs)是共价封闭的单链环状RNA分子,具有或不具有蛋白质编码能力。CircRNAs以前被认为是剪接中间体或伪产物,但现在发现在所有真核生物中普遍表达,其中一些被证明在各种生物过程中具有重要的分子功能。CircRNA是目前分子生物学研究的热点。在本文中,我们总结了迄今为止在植物环状rna鉴定和功能表征方面取得的进展,比较了植物和动物环状rna的异同,并讨论了对植物环状rna的自信检测和功能研究所面临的挑战。与在动物中发现的类似,植物基因组包含大量环状rna,这些环状rna可能调节与植物发育和生物/非生物反应相关的广泛生物学过程。尽管只有少数植物环状rna被功能表征,但尚未在动物中报道的新功能/机制被揭示,这意味着在未来的研究中有望发现更多令人兴奋的植物环状rna。
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引用次数: 13
期刊
Journal of Plant Cell Development
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