A comparison of riparian vegetation sampling methods along a large, regulated river

Monitoring riparian vegetation cover and species richness is an important component of assessing change and understanding ecosystem processes. Vegetation sampling methods determined to be the best option in other ecosystems (e.g., desert grasslands and arctic tundra) may not be the best option in mu...

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Veröffentlicht in:River research and applications 2019-07, Vol.35 (6), p.759-767
Hauptverfasser: Palmquist, Emily C., Sterner, Sarah A., Ralston, Barbara E.
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container_title River research and applications
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creator Palmquist, Emily C.
Sterner, Sarah A.
Ralston, Barbara E.
description Monitoring riparian vegetation cover and species richness is an important component of assessing change and understanding ecosystem processes. Vegetation sampling methods determined to be the best option in other ecosystems (e.g., desert grasslands and arctic tundra) may not be the best option in multilayered, species rich, heterogeneous riparian vegetation. This study examines the strengths and weaknesses of two common vegetation sampling methods, line‐point intercept and ocular quadrat estimates. Permutational analysis of variance analyses indicate that cover estimates among observers did not differ significantly for either line‐point intercept or ocular quadrat estimates. Line‐point intercept cover estimates resulted in lower coefficient of variation among observers than ocular quadrat estimates, but the ocular quadrat estimates recorded significantly more species. Line‐point estimates of cover were generally larger than ocular quadrat estimates. Ocular quadrat estimates are appropriate when assessment of richness is important, in areas with heterogeneous geomorphology and hydrology where fine‐scale measurements are most useful, and in areas where continuous sampling transects are impracticable. Line‐point intercept estimates are useful when minimum variation among observers is necessary, continuous transects are logical and practicable for the sampling area, woody cover does not present a logistical complication, and species richness is not a priority.
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subjects Coefficient of variation
data variability
Deserts
Ecosystems
Environmental monitoring
Estimates
Geomorphology
Grasslands
Hydrology
line‐point intercept
long‐term monitoring
Observers
ocular quadrat estimates
Plant cover
Riparian vegetation
River regulations
Rivers
Sampling
Sampling methods
Small mammals
Species richness
Tundra
Variance analysis
Vegetation
Vegetation cover
vegetation sampling methods
title A comparison of riparian vegetation sampling methods along a large, regulated river
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