High-throughput sequencing for community analysis: the promise of DNA barcoding to uncover diversity, relatedness, abundances and interactions in spider communities.
Susan R Kennedy, Stefan Prost, Isaac Overcast, Andrew J Rominger, Rosemary G Gillespie, Henrik Krehenwinkel
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引用次数: 0
Abstract
Large-scale studies on community ecology are highly desirable but often difficult to accomplish due to the considerable investment of time, labor and, money required to characterize richness, abundance, relatedness, and interactions. Nonetheless, such large-scale perspectives are necessary for understanding the composition, dynamics, and resilience of biological communities. Small invertebrates play a central role in ecosystems, occupying critical positions in the food web and performing a broad variety of ecological functions. However, it has been particularly difficult to adequately characterize communities of these animals because of their exceptionally high diversity and abundance. Spiders in particular fulfill key roles as both predator and prey in terrestrial food webs and are hence an important focus of ecological studies. In recent years, large-scale community analyses have benefitted tremendously from advances in DNA barcoding technology. High-throughput sequencing (HTS), particularly DNA metabarcoding, enables community-wide analyses of diversity and interactions at unprecedented scales and at a fraction of the cost that was previously possible. Here, we review the current state of the application of these technologies to the analysis of spider communities. We discuss amplicon-based DNA barcoding and metabarcoding for the analysis of community diversity and molecular gut content analysis for assessing predator-prey relationships. We also highlight applications of the third generation sequencing technology for long read and portable DNA barcoding. We then address the development of theoretical frameworks for community-level studies, and finally highlight critical gaps and future directions for DNA analysis of spider communities.
对群落生态学进行大规模研究是非常理想的,但往往难以实现,因为需要投入大量的时间、人力和财力来描述丰富度、丰度、亲缘关系和相互作用。然而,这种大规模的视角对于了解生物群落的组成、动态和恢复力是必要的。小型无脊椎动物在生态系统中扮演着核心角色,在食物网中占据着关键位置,并发挥着广泛的生态功能。然而,由于这些动物具有极高的多样性和丰度,要充分描述它们的群落特征尤其困难。尤其是蜘蛛,在陆地食物网中扮演着捕食者和猎物的重要角色,因此是生态学研究的一个重要焦点。近年来,DNA 条形码技术的发展使大规模群落分析受益匪浅。高通量测序(HTS),尤其是 DNA 代谢编码,可以在前所未有的范围内对整个群落的多样性和相互作用进行分析,而成本却只有以前的一小部分。在此,我们回顾了这些技术在蜘蛛群落分析中的应用现状。我们讨论了用于分析群落多样性的基于扩增子的 DNA 条形码和代谢条码,以及用于评估捕食者与被捕食者关系的分子内脏含量分析。我们还重点介绍了第三代测序技术在长读数和便携式 DNA 条形码方面的应用。然后,我们讨论了群落级研究理论框架的发展,最后强调了蜘蛛群落 DNA 分析的关键差距和未来方向。
期刊介绍:
Development Genes and Evolution publishes high-quality reports on all aspects of development biology and evolutionary biology. The journal reports on experimental and bioinformatics work at the systemic, cellular and molecular levels in the field of animal and plant systems, covering key aspects of the following topics:
Embryological and genetic analysis of model and non-model organisms
Genes and pattern formation in invertebrates, vertebrates and plants
Axial patterning, embryonic induction and fate maps
Cellular mechanisms of morphogenesis and organogenesis
Stem cells and regeneration
Functional genomics of developmental processes
Developmental diversity and evolution
Evolution of developmentally relevant genes
Phylogeny of animals and plants
Microevolution
Paleontology.