TRICHODERMA ASPERELLUM: A TREASURE HOUSE OF BIOACTIVE COMPOUNDS WITH ANTAGONISTIC ACTIVITY AGAINST Rhizoctonia bataticola, A CAUSAL AGENT OF DRY ROOT ROT IN CHICKPEA

G. Sunkad, S. Meghana, S. T. Yenjerappa, S. Kulkarni, S. Rao, N. Naik
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Abstract

Dry root rot is a major threat to chickpea production globally. The disease is caused by Rhizoctonia bataticola. The recent rise in global temperature and worsening of drought spells has aggravated dry root rot outbreaks in chickpeas. To combat this necrotrophic pathogen, the present study was conducted to inhibit the pathogen by using potential plant growth-promoting microorganisms (PGPMs). Forty isolates of endophytic fungal PGPMs were isolated from healthy plant parts of chickpeas in a potato dextrose agar medium. Isolates were screened for antagonistic potential and bioactive compound production against R. bataticola. Using ITS genes BLAST analysis, the putative endophytic fungal PGPM was identified at the molecular level. Finally, the extraction of bio-active compounds and metabolic profiling was carried out by solvent extraction method and GC-MS/MS technique, respectively. Among forty isolates, FEPGPM-34 produced the maximum concentration of bio-active compounds with the highest percent mycelial inhibition of 74.61. Through molecular characterization and BLAST analysis, the isolateFEPGPM-34 was identified as Trichoderma asperellum . GC-MS/MS analysis of T. asperellum extract showed the presence of 65 compounds at different retention times and mass to charge (m/z) ratios with 13 compounds exhibiting antimicrobial properties. Hence, PGPMs can be exploited for managing dry root rot disease.
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摘要曲霉:具有拮抗鹰嘴豆干根腐病病原菌bataticola的生物活性化合物宝库
干根腐病是全球鹰嘴豆生产的主要威胁。这种病是由bataticola根丝胞菌引起的。最近全球气温上升和干旱加剧加剧了鹰嘴豆的干根腐病爆发。为了对抗这种坏死性病原体,本研究利用潜在的植物生长促进微生物(PGPMs)来抑制病原体。在马铃薯葡萄糖琼脂培养基中,从鹰嘴豆的健康植物部分分离到40株内生真菌PGPMs。对分离物进行了拮抗活性和活性化合物的筛选。利用ITS基因BLAST分析,在分子水平上鉴定了假定的内生真菌PGPM。最后,分别采用溶剂萃取法和GC-MS/MS技术进行生物活性成分提取和代谢谱分析。在40株菌株中,feppgpm -34产生的活性物质浓度最高,菌丝抑制率最高,为74.61。经分子鉴定和BLAST分析,分离菌株fepgpm -34为曲霉木霉。GC-MS/MS分析表明,在不同的保留时间和质量荷电比(m/z)下,曲霉提取物中存在65种化合物,其中13种化合物具有抗菌活性。因此,PGPMs可用于治理干根腐病。
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