Reverberating effects of resource exchanges in stream–riparian food webs

Fluxes of materials or organisms across ecological boundaries, often termed “resource subsidies,” directly affect recipient food webs. Few studies have addressed how such direct responses in one ecosystem may, in turn, influence the fluxes of materials or organisms to other habitats or the potential...

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Veröffentlicht in:Oecologia 2020-01, Vol.192 (1), p.179-189
Hauptverfasser: Collins, Scott F., Baxter, Colden V., Marcarelli, Amy M., Felicetti, Laura, Florin, Scott, Wipfli, Mark S., Servheen, Gregg
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container_issue 1
container_start_page 179
container_title Oecologia
container_volume 192
creator Collins, Scott F.
Baxter, Colden V.
Marcarelli, Amy M.
Felicetti, Laura
Florin, Scott
Wipfli, Mark S.
Servheen, Gregg
description Fluxes of materials or organisms across ecological boundaries, often termed “resource subsidies,” directly affect recipient food webs. Few studies have addressed how such direct responses in one ecosystem may, in turn, influence the fluxes of materials or organisms to other habitats or the potential for feedback relationships to occur among ecosystems. As part of a large-scale, multi-year experiment, we evaluated the hypothesis that the input of a marine-derived subsidy results in a complex array of resource exchanges (i.e., inputs, outputs, feedbacks) between stream and riparian ecosystems as responses disperse across ecological boundaries. Moreover, we evaluated how the physical properties of resource subsidies mediated complex responses by contrasting carcasses with a pelletized salmon treatment. We found that salmon carcasses altered stream–riparian food webs by directly subsidizing multiple aquatic and terrestrial organisms (e.g., benthic insect larvae, fishes, and terrestrial flies). Such responses further influenced food webs along indirect pathways, some of which spanned land and water (e.g., subsidized fishes reduced aquatic insect emergence, with consequences for spiders and bats). Subsidymediated feedbacks manifested when carcasses were removed to riparian habitats where they were colonized by carrion flies, some of which fell into the stream and acted as another prey subsidy for fishes. As the effects of salmon subsidies propagated through the stream–riparian food web, the sign of consumer responses was not always positive and appeared to be determined by the outcome of trophic interactions, such that localized trophic interactions within one ecosystem mediated the export of organisms to others.
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Few studies have addressed how such direct responses in one ecosystem may, in turn, influence the fluxes of materials or organisms to other habitats or the potential for feedback relationships to occur among ecosystems. As part of a large-scale, multi-year experiment, we evaluated the hypothesis that the input of a marine-derived subsidy results in a complex array of resource exchanges (i.e., inputs, outputs, feedbacks) between stream and riparian ecosystems as responses disperse across ecological boundaries. Moreover, we evaluated how the physical properties of resource subsidies mediated complex responses by contrasting carcasses with a pelletized salmon treatment. We found that salmon carcasses altered stream–riparian food webs by directly subsidizing multiple aquatic and terrestrial organisms (e.g., benthic insect larvae, fishes, and terrestrial flies). 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Such responses further influenced food webs along indirect pathways, some of which spanned land and water (e.g., subsidized fishes reduced aquatic insect emergence, with consequences for spiders and bats). Subsidymediated feedbacks manifested when carcasses were removed to riparian habitats where they were colonized by carrion flies, some of which fell into the stream and acted as another prey subsidy for fishes. 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subjects Analysis
Animals
Aquatic insects
Benthos
Biomedical and Life Sciences
Boundaries
Carcasses
Carrion
COMMUNITY ECOLOGY – ORIGINAL RESEARCH
Ecology
Ecosystem
Ecosystems
Fishes
Fluxes
Food Chain
Food chains
Food webs
Freshwater fishes
Hydrology/Water Resources
Insect larvae
Insects
Insects, Aquatic
Larvae
Life Sciences
Organisms
Physical properties
Plant Sciences
Prey
Rivers
Salmon
Spiders
Subsidies
Trophic relationships
title Reverberating effects of resource exchanges in stream–riparian food webs
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