Characterization of the Cambaroides wladiwostokiensis Birstein & Vinogradov, 1934 (Decapoda: Astacidea) Mitochondrial Genome Using Genome Skimming and the Phylogenetic Implications within the Astacidea Infraorder.

Sergei V Turanov, Evgeny I Barabanshchikov
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Abstract

Background: The mitochondrial genome is a powerful tool for exploring and confirming species identity and understanding evolutionary trajectories. The genus Cambaroides, which consists of freshwater crayfish, is recognized for its evolutionary and morphological complexities. However, comprehensive genetic and mitogenomic data on species within this genus, such as C. wladiwostokiensis, remain scarce, thereby necessitating an in-depth mitogenomic exploration to decipher its evolutionary position and validate its species identity.

Methods: The mitochondrial genome of C. wladiwostokiensis was obtained through shallow Illumina paired-end sequencing of total DNA, followed by hybrid assembly using both de novo and reference-based techniques. Comparative analysis was performed using available Cambaroides mitochondrial genomes obtained from National Center for Biotechnology Information (NCBI). Additionally, phylogenetic analyses of 23 representatives from three families within the Astacidea infraorder were employed using the PhyloSuite platform for sequence management and phylogenetic preparation, to elucidate phylogenetic relationships via Bayesian Inference (BI), based on concatenated mitochondrial fragments.

Results: The resulting genome, which spans 16,391 base pairs was investigated, revealing 13 protein-coding genes, rRNAs (12S and 16S), 19 tRNAs, and a putative control region. Comparative analysis together with five other Cambaroides mitogenomes retrieved from GenBank unveiled regions that remained unread due to challenges associated with the genome skimming technique. Protein-coding genes varied in size and typically exhibited common start (ATG) and stop (TAA) codons. However, exceptions were noted in ND5 (start codon: GTG) and ND1 (stop codon: TAG). Landscape analysis was used to explore sequence variation across the five available mitochondrial genomes of Cambaroides.

Conclusions: Collectively, these findings reveal variable sites and contribute to a deeper understanding of the genetic diversity in this genus alongside the further development of species-specific primers for noninvasive monitoring techniques. The partitioned phylogenetic analysis of Astacidea revealed a paraphyletic origin of Asian cambarids, which confirms the data in recent studies based on both multilocus analyses and integrative approaches.

利用基因组撇取技术确定 Cambaroides wladiwostokiensis Birstein & Vinogradov, 1934 (Decapoda: Astacidea) 线粒体基因组的特征及其在 Astacidea 下目中的系统发育意义。
背景:线粒体基因组是探索和确认物种身份以及了解进化轨迹的有力工具。淡水小龙虾属(Cambaroides)因其进化和形态的复杂性而被公认。然而,关于该属物种(如 C. wladiwostokiensis)的全面遗传和有丝分裂基因组数据仍然很少,因此有必要进行深入的有丝分裂基因组探索,以破译其进化位置并验证其物种身份:Wladiwostokiensis 的线粒体基因组是通过对总 DNA 进行浅层 Illumina 成对测序获得的,然后使用从头和基于参考的技术进行了混合组装。比较分析是利用从美国国家生物技术信息中心(NCBI)获得的现有寒武纪线粒体基因组进行的。此外,还使用 PhyloSuite 平台进行序列管理和系统发育准备,通过贝叶斯推理(BI),基于线粒体片段的串联,对天牛亚目(Astacidea)中三个科的 23 个代表物种进行了系统发育分析:研究结果:研究人员对横跨 16,391 个碱基对的基因组进行了研究,发现了 13 个蛋白质编码基因、rRNA(12S 和 16S)、19 个 tRNA 和一个假定的控制区。通过与从 GenBank 中检索到的其他五个寒武纪有丝分裂基因组进行比较分析,发现了由于基因组撇取技术的挑战而尚未读取的区域。蛋白质编码基因的大小不一,通常具有共同的起始(ATG)和终止(TAA)密码子。但 ND5(起始密码子:GTG)和 ND1(终止密码子:TAG)例外。研究人员利用景观分析法探讨了寒武纪五个现有线粒体基因组的序列变异:总之,这些发现揭示了可变位点,有助于加深对该属遗传多样性的了解,同时有助于进一步开发物种特异性引物,用于非侵入性监测技术。Astacidea的分区系统发育分析揭示了亚洲寒带动物的旁系起源,这证实了最近基于多焦点分析和综合方法的研究数据。
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