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The status of fishways in Canada: trends identified using the national CanFishPass database

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Abstract

The disruption of river connectivity through the construction of barriers used for hydropower development and water control purposes can severely damage river ecosystems, reduce the quality of fish habitat, and prevent the upstream migration of fishes. Fishways function as a means of passage around barriers for fish migrating both upstream and downstream. In 2009, the CanFishPass project was initiated in a partnership with Fisheries and Oceans Canada and Carleton University to create a searchable database containing specific information on fishways in Canada built to enable upstream passage. In this paper we evaluate the information gathered in the CanFishPass database to identify trends concerning fishways and fish passage in Canada, yielding, we believe, the first national-scale trend analysis related to fishways anywhere in the world. Although CanFishPass may not include all fishways in Canada, our analysis identified 211 which are primarily located along the coasts and along major rivers and water bodies such as the Great Lakes. British Columbia has the largest number of fishways in Canada (62) and Prince Edward Island has the fewest (2). The most popular type of fishway is the pool and weir fishway (85), followed by vertical slot (37) and Denil type fishways (23). Fishway construction has proceeded at a steady rate since the 1970’s, although there has been an increase in the number of nature-like fishways since the year 2000. The majority of fishways are installed to pass salmonids in Canada, although some fishways on warmwater systems pass large components of the fish community. Only 9 % of the fishways in Canada have been studied using methods that enable proper evaluation of biological effectiveness. We recommend that evaluations be carried out at new and existing fishways and that these evaluations enable the determination of attraction and passage efficiency. Additionally, we recommend that future fishway projects and evaluations in Canada be advised to submit details of their work to CanFishPass so that knowledge of these fishways is centralized. Similar efforts on a global scale could lead to opportunities to identify patterns in fishway design and biological effectiveness that would ultimately inform decision making and improve connectivity where deemed necessary.

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Acknowledgments

Comments by peer reviewers have improved this manuscript. Financial assistance was provided by the Fish Ecology and Conservation Physiology Laboratory at Carleton University and Fisheries and Oceans Canada’s Center of Expertise on Hydropower Impacts on Fish and Fish Habitat. Cooke is supported by the Canada Research Chairs program. Hatry, Thiem, Cooke, Smokorowski, Clarke and Katopodis are members of the Natural Sciences and Engineering Research Council of Canada HydroNet Strategic Network. We thank the many individuals and organizations that have contributed data to CanFishPass.

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Hatry, C., Binder, T.R., Thiem, J.D. et al. The status of fishways in Canada: trends identified using the national CanFishPass database. Rev Fish Biol Fisheries 23, 271–281 (2013). https://doi.org/10.1007/s11160-012-9293-3

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