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通过对非洲大蜗牛重建的碳水化合物和聚糖代谢途径进行基因组数据挖掘来理解蜗牛黏液生物合成和贝壳生物矿化

Understanding Snail Mucus Biosynthesis and Shell Biomineralisation through Genomic Data Mining of the Reconstructed Carbohydrate and Glycan Metabolic Pathways of the Giant African Snail ().

作者信息

Nualnisachol Pornpavee, Chumnanpuen Pramote, E-Kobon Teerasak

机构信息

Department of Genetics, Faculty of Science, Kasetsart University, Bangkok 10900, Thailand.

Omics Center for Agriculture, Bioresources, Food and Health, Kasetsart University (OmiKU), Bangkok 10900, Thailand.

出版信息

Biology (Basel). 2023 Jun 9;12(6):836. doi: 10.3390/biology12060836.

Abstract

The giant African snail (Order Stylommatophora: Family Achatinidae), (Bowdich, 1822), is the most significant and invasive land snail pest. The ecological adaptability of this snail involves high growth rate, reproductive capacity, and shell and mucus production, driven by several biochemical processes and metabolism. The available genomic information for provides excellent opportunities to hinder the underlying processes of adaptation, mainly carbohydrate and glycan metabolic pathways toward the shell and mucus formation. The authors analysed the 1.78 Gb draft genomic contigs of to identify enzyme-coding genes and reconstruct biochemical pathways related to the carbohydrate and glycan metabolism using a designed bioinformatic workflow. Three hundred and seventy-seven enzymes involved in the carbohydrate and glycan metabolic pathways were identified based on the KEGG pathway reference in combination with protein sequence comparison, structural analysis, and manual curation. Fourteen complete pathways of carbohydrate metabolism and seven complete pathways of glycan metabolism supported the nutrient acquisition and production of the mucus proteoglycans. Increased copy numbers of amylases, cellulases, and chitinases highlighted the snail advantage in food consumption and fast growth rate. The ascorbate biosynthesis pathway identified from the carbohydrate metabolic pathways of was involved in the shell biomineralisation process in association with the collagen protein network, carbonic anhydrases, tyrosinases, and several ion transporters. Thus, our bioinformatic workflow was able to reconstruct carbohydrate metabolism, mucus biosynthesis, and shell biomineralisation pathways from the genome and transcriptome data. These findings could reveal several evolutionary advantages of the snail, and will benefit the discovery of valuable enzymes for industrial and medical applications.

摘要

非洲大蜗牛(柄眼目:玛瑙螺科)(鲍迪奇,1822年)是最具危害性的入侵陆地蜗牛害虫。这种蜗牛的生态适应性涉及高生长速率、繁殖能力以及壳和黏液的产生,这是由多种生化过程和新陈代谢驱动的。现有的基因组信息为阻碍其潜在的适应过程提供了绝佳机会,主要是针对壳和黏液形成的碳水化合物和聚糖代谢途径。作者分析了非洲大蜗牛1.78Gb的基因组草图重叠群,以识别酶编码基因,并使用设计的生物信息学工作流程重建与碳水化合物和聚糖代谢相关的生化途径。基于京都基因与基因组百科全书(KEGG)途径参考,结合蛋白质序列比较、结构分析和人工编辑,确定了377种参与碳水化合物和聚糖代谢途径的酶。14条完整的碳水化合物代谢途径和7条完整的聚糖代谢途径支持了黏液蛋白聚糖的营养获取和产生。淀粉酶、纤维素酶和几丁质酶拷贝数的增加突出了蜗牛在食物消耗和快速生长速率方面的优势。从非洲大蜗牛碳水化合物代谢途径中鉴定出的抗坏血酸生物合成途径与胶原蛋白网络、碳酸酐酶、酪氨酸酶和几种离子转运蛋白一起参与了壳生物矿化过程。因此,我们的生物信息学工作流程能够从非洲大蜗牛的基因组和转录组数据中重建碳水化合物代谢、黏液生物合成和壳生物矿化途径。这些发现可能揭示非洲大蜗牛的几个进化优势,并将有助于发现用于工业和医学应用的有价值的酶。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/5f5c/10295696/53f31f31c020/biology-12-00836-g001.jpg

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