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用硫代葡萄糖苷水解产物处理后pv.的转录组重编程

Transcriptomic Reprograming of pv. after Treatment with Hydrolytic Products Derived from Glucosinolates.

作者信息

Madloo Pari, Lema Margarita, Rodríguez Victor Manuel, Soengas Pilar

机构信息

Group of Genetics, Breeding and Biochemistry of Brassicas, Misión Biológica de Galicia, Spanish Council for Scientific Research (MBG-CSIC), 36143 Pontevedra, Spain.

Department of Functional Biology, School of Biology, Universidade of Santiago de Compostela, 15782 Santiago de Compostela, Spain.

出版信息

Plants (Basel). 2021 Aug 11;10(8):1656. doi: 10.3390/plants10081656.

Abstract

The bacterium pv. () causes black rot disease in crops. Glucosinolates are known to be part of the defence system of crops against infection. They are activated upon pathogen attack by myrosinase enzymes. Their hydrolytic products (GHPs) inhibit the growth of in vitro. However, the mechanisms underlying this inhibition and the way can overcome it are not well understood. We studied the transcriptomic reprogramming of after being supplemented with two chemically different GHPs, one aliphatic isothiocyanate (allyl-ITC) and one indole (indol-3-carbinol), by RNA-seq. Based on our results, the arrest in growth is related to the need to stop cell division to repair damaged DNA and cell envelope components. Otherwise, GHPs modify energy metabolism by inhibiting aerobic respiration and increasing the synthesis of glycogen. induces detoxification mechanisms such as the antioxidant defence system and the multidrug efflux system to cope with the toxic effects driven by GHPs. This is the first time that the transcriptomic reprogramming of a plant pathogenic bacterium treated with GHPs has been studied. This information will allow a better understanding of the interaction of a plant pathogen mediated by GSLs.

摘要

致病变种()细菌会引发农作物的黑腐病。已知硫代葡萄糖苷是农作物抵御感染防御系统的一部分。它们在病原体攻击时被芥子酶激活。其水解产物(GHPs)在体外抑制细菌生长。然而,这种抑制作用的潜在机制以及细菌如何克服它还不太清楚。我们通过RNA测序研究了在添加两种化学性质不同的GHPs(一种脂肪族异硫氰酸酯(烯丙基异硫氰酸酯)和一种吲哚(吲哚 - 3 - 甲醇))后细菌的转录组重编程。根据我们的结果,细菌生长停滞与停止细胞分裂以修复受损的DNA和细胞膜成分的需求有关。否则,GHPs会通过抑制有氧呼吸和增加糖原合成来改变能量代谢。细菌会诱导解毒机制,如抗氧化防御系统和多药外排系统,以应对GHPs带来的毒性作用。这是首次研究用GHPs处理的植物致病细菌的转录组重编程。这些信息将有助于更好地理解由硫代葡萄糖苷介导的植物病原体相互作用。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/59da/8400333/9d4432f50a9b/plants-10-01656-g001.jpg

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