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Spatial and temporal patterns of diatom assemblages, and their drivers, in four US streams: evidence from a long-term dataset

  • Camille A. FlindersEmail author
  • Renee L. Ragsdale
  • Joan Ikoma
  • William J. Arthurs
  • Jess Kidd
Primary Research Paper

Abstract

Bioassessment to evaluate stream integrity and determine changes related to point-source discharges is typically focused in wadeable streams, with limited understanding of seasonal and annual variation. We used a multi-year (n = 13), multi-site (n = 5–7), seasonally (spring and fall) sampled dataset to evaluate spatial and temporal patterns in diatom assemblages relative to measured environmental variables, land use, and pulp and paper mill discharges in a wadeable stream (Codorus Creek, PA) and three non-wadeable rivers (Leaf River, MS; McKenzie and Willamette rivers, OR). Analysis of variance (ANOVA) and permutational ANOVA (PERMANOVA) showed that significant spatial differences in commonly used diatom biotic integrity/diagnostic metrics and assemblage structure were common in the wadeable stream, but rare in the non-wadeable rivers. Season-specific diatom patterns were observed in all streams regardless of size, but annual variation was more prevalent in the non-wadeable rivers. Environmental variables explained 35–58% of the variability in diatoms in the spring and 33–50% in the fall, with physical habitat characteristics associated with stream morphology and seasonality more important than those associated with anthropogenic inputs such as land use and point sources. Findings from this study highlight the value of spatially and temporally comprehensive datasets in understanding and interpreting diatom assemblage patterns.

Keywords

Bioassessment Benthic diatom Non-wadeable stream Wadeable stream Seasonal variation Annual variation Pulp and paper mill effluent 

Notes

Acknowledgements

Assistance with periphyton sampling over the course of the study was provided by D. Brodhecker, F. Howell, A. O’Brien, R. Philbeck, N. Frum, J. Napack, G. Allen, C. Erickson, K. Ramage, J. Redmond, J. Thomas, and M. Cody. Samples were processed with assistance from J. Redmond. Y. Pan ensured that diatom identifications were accurate and reflected the most current taxonomic nomenclature. Discussions with M. Dubé, S. Holm, W. Landis, W. Minshall, J. Rodgers, and S. Missimer on study design and analysis were valuable. S. Courtenay provided guidance on data analyses and manuscript development. M. Harris prepared site maps, and S. Easthouse assisted with manuscript editing and formatting. Valuable insight and feedback provided by two anonymous reviewers improved the manuscript.

Compliance with ethical standards

Conflict of interest

The authors declare that they have no conflict of interest.

Supplementary material

10750_2019_4061_MOESM1_ESM.doc (510 kb)
Supplementary material 1 (DOC 510 kb)

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Authors and Affiliations

  1. 1.NCASIAnacortesUSA
  2. 2.Canadian Rivers Institute at the School of Environment, Resource and SustainabilityUniversity of WaterlooWaterlooCanada

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