AI Article Synopsis

  • Plant diversity influences the species richness and abundance of higher trophic level taxa, but its effects on omnivores and their interactions have not been extensively studied due to methodological limitations.
  • Researchers utilized next generation sequencing (NGS) to analyze beetle regurgitates from the omnivorous ground beetle Pterostichus melanarius, allowing for the identification of various taxa involved in different types of interactions.
  • The findings indicate that increased plant diversity and vegetation cover enhance trophic interactions, intraguild predation, and even neutral interactions with organisms like fungi and protists, highlighting the importance of plant diversity in multitrophic interactions.

Article Abstract

Plant diversity affects species richness and abundance of taxa at higher trophic levels. However, plant diversity effects on omnivores (feeding on multiple trophic levels) and their trophic and non-trophic interactions are not yet studied because appropriate methods were lacking. A promising approach is the DNA-based analysis of gut contents using next generation sequencing (NGS) technologies. Here, we integrate NGS-based analysis into the framework of a biodiversity experiment where plant taxonomic and functional diversity were manipulated to directly assess environmental interactions involving the omnivorous ground beetle Pterostichus melanarius. Beetle regurgitates were used for NGS-based analysis with universal 18S rDNA primers for eukaryotes. We detected a wide range of taxa with the NGS approach in regurgitates, including organisms representing trophic, phoretic, parasitic, and neutral interactions with P. melanarius. Our findings suggest that the frequency of (i) trophic interactions increased with plant diversity and vegetation cover; (ii) intraguild predation increased with vegetation cover, and (iii) neutral interactions with organisms such as fungi and protists increased with vegetation cover. Experimentally manipulated plant diversity likely affects multitrophic interactions involving omnivorous consumers. Our study therefore shows that trophic and non-trophic interactions can be assessed via NGS to address fundamental questions in biodiversity research.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC4747541PMC
http://journals.plos.org/plosone/article?id=10.1371/journal.pone.0148781PLOS

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