Laura Page’s research while affiliated with Wheaton College - Massachusetts and other places

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Publications (1)


Figure 1. Schematic of the experimental deployment in the Bark River. Filamentous treatments consisted of 10 replicate plates with filaments attached to both sides. Control treatments consisted of 10 replicate plates without filaments. Spacer plates were deployed between experimental plates to minimize interactions between treatments.  
Figure 3. Photograph of zebra mussel attached to a filament. Zebra mussel was 1460 lm.  
Figure 4. Mussel densities across treatments and substrates. (a) Mean number of mussels on the control and filamentous (filaments plus plate) treatments (n ¼ 10 for each treatment). Error bars represent +1 SE. Difference between treatments was significant. (b) Mean mussel density (#cm )2 ) for control and filamentous (filaments plus plate) treatments. Error bars represent +1 SE. Difference between treatments was not significant . (c) Mean mussel density (#cm )2 ) on filament and plate surfaces. Error bars represent +1 SE. The differences between substrate types were not significant.  
Figure 2. Zebra mussel veliger abundance (#L )1 ) during the 6- week deployment period. Black bars show abundance of all size classes combined. White bars show abundance of settlement sized (>200 lm) larvae only. Error bars represent +1 SE.  
Effects of Artificial Filamentous Substrate on Zebra Mussel (Dreissena polymorpha) Settlement
  • Article
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August 2006

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261 Reads

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41 Citations

Biological Invasions

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Emily Thorn

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Laura Page

Though a great deal of research focuses on the range expansion and presence of adult zebra mussels, there is still a need to understand the processes of larval settlement and how that relates to adult populations. There is evidence that marine bivalves preferentially settle on filamentous substrates such as hydroid colonies and algae; however, similar studies are rare in freshwater systems. We examined the importance of filamentous substrate for the settlement of the zebra mussel (Dreissena polymorpha) larvae by deploying PVC settlement plates with and without polypropylene filaments in the Bark River for a 6-week period. Larval supply was monitored weekly. Our results suggest that artificial filaments facilitated recruitment, primarily by increasing surface area available for attachment. Mussels on artificial filaments were significantly smaller in size than mussels attached to filamentous or control plate surfaces, providing some evidence that mussels may detach from filamentous substrate after initial settlement. This study adds to our general understanding about the role of filamentous substrates in the process of larval settlement and suggests that substrates colonized by filamentous epibionts may face increased risk of fouling by zebra mussels.

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Citations (1)


... They are passive predators waiting for potential prey touching cnidocytes on tentacles (Hydra) or the head of the polyp (Craspedacusta; [34]). Both polyps feed on crustacean zooplankton species, rotifers, oligochaete worms, nematodes, chironomids, and other insect larvae [35][36][37][38][39][40]. ...

Reference:

Trophic Positions of Polyp and Medusa Stages of the Freshwater Jellyfish Craspedacusta sowerbii Based on Stable Isotope Analysis
Effects of Artificial Filamentous Substrate on Zebra Mussel (Dreissena polymorpha) Settlement

Biological Invasions