Bioengineering experiment on Schiermonnikoog 2015: experimental effects on diatom composition and biovolume
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| Format: | Dataset Open Access |
| Sprache: | en |
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PANGAEA
2021
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| author | Eriksson, Britas Klemens Engel, Friederike G Andriana, Rosyta Gusmao, Joao B |
| author_facet | Eriksson, Britas Klemens Engel, Friederike G Andriana, Rosyta Gusmao, Joao B |
| collection | Datos científicos de ciencias marinas y ambientales |
| contents | In 2015 the Marine Ecology lab. (Eriksson Lab. at the Groningen Institute for Evolutionary Life Sciences [GELIFES], University of Groningen, The Netherlands); tested the effect of different intertidal bioengineering bivalve habitats on the sediment community. We did this by adding different small scale (0.5 by 0.5 m) bivalve assemblages to the intertidal; the treatments included blue mussel reefs, cockle beds, dead shell assemblages, different types of fencing a to protect the bivalves from bird and crab predation; and fencing controls to test for fence effects. We measured effects on sediment conditions (OM, cohesion, erosion), diatom community composition and development (species composition based on cell counts and biovolume, chlorophyll a concentrations), and infauna abundance. The field experiment in the intertidal ran from 30 April to 10 June 2015 and complementary field samples were collected around a natural blue mussel bed on the same tidal flat on 7 October 2015 (N 53.489, E 6.230 degrees). |
| format | Dataset Open Access |
| id | pangaea_https___doi_org_10_1594_PANGAEA_930429 |
| institution | PANGAEA |
| language | en |
| publishDate | 2021 |
| publisher | PANGAEA |
| record_format | pangaea |
| spellingShingle | Bioengineering experiment on Schiermonnikoog 2015: experimental effects on diatom composition and biovolume Eriksson, Britas Klemens Engel, Friederike G Andriana, Rosyta Gusmao, Joao B Amphora coffeaeformis; Amphora coffeaeformis, biovolume; Amphora sp.; Amphora sp., biovolume; bioengineer; Cell; Chlorophyll a; cockles; Cylindrotheca closterium; Cylindrotheca closterium, biovolume; Description; Diatom, cell biovolume; diatom communiy composition; Diatoms; Diatoms, biovolume; Diatoms indeterminata, biovolume; Entomoneis paludosa; Entomoneis paludosa, biovolume; EXP; Experiment; GELIFES_site1; GELIFES_site2; Gyrosigma acuminatum; Gyrosigma acuminatum, biovolume; Gyrosigma fasciola; Gyrosigma fasciola, biovolume; Hantzschia sp.; Hantzschia sp., biovolume; intertidal ecology; mussel reefs; Navicula forcipata; Navicula forcipata, biovolume; Navicula sp.; Navicula sp., biovolume; Nitzschia sigma; Nitzschia sigma, biovolume; Nitzschia sp.; Nitzschia sp., biovolume; Organic matter; Petroneis humerosa; Petroneis humerosa, biovolume; Pinnularia sp.; Pinnularia sp., biovolume; Pleurosigma aestuarii; Pleurosigma aestuarii, biovolume; Plot; Schiermonnikoog; Site; site 1; site 2; Species richness; Stauroneis sp.; Stauroneis sp., biovolume; Treatment In 2015 the Marine Ecology lab. (Eriksson Lab. at the Groningen Institute for Evolutionary Life Sciences [GELIFES], University of Groningen, The Netherlands); tested the effect of different intertidal bioengineering bivalve habitats on the sediment community. We did this by adding different small scale (0.5 by 0.5 m) bivalve assemblages to the intertidal; the treatments included blue mussel reefs, cockle beds, dead shell assemblages, different types of fencing a to protect the bivalves from bird and crab predation; and fencing controls to test for fence effects. We measured effects on sediment conditions (OM, cohesion, erosion), diatom community composition and development (species composition based on cell counts and biovolume, chlorophyll a concentrations), and infauna abundance. The field experiment in the intertidal ran from 30 April to 10 June 2015 and complementary field samples were collected around a natural blue mussel bed on the same tidal flat on 7 October 2015 (N 53.489, E 6.230 degrees). |
| title | Bioengineering experiment on Schiermonnikoog 2015: experimental effects on diatom composition and biovolume |
| topic | Amphora coffeaeformis; Amphora coffeaeformis, biovolume; Amphora sp.; Amphora sp., biovolume; bioengineer; Cell; Chlorophyll a; cockles; Cylindrotheca closterium; Cylindrotheca closterium, biovolume; Description; Diatom, cell biovolume; diatom communiy composition; Diatoms; Diatoms, biovolume; Diatoms indeterminata, biovolume; Entomoneis paludosa; Entomoneis paludosa, biovolume; EXP; Experiment; GELIFES_site1; GELIFES_site2; Gyrosigma acuminatum; Gyrosigma acuminatum, biovolume; Gyrosigma fasciola; Gyrosigma fasciola, biovolume; Hantzschia sp.; Hantzschia sp., biovolume; intertidal ecology; mussel reefs; Navicula forcipata; Navicula forcipata, biovolume; Navicula sp.; Navicula sp., biovolume; Nitzschia sigma; Nitzschia sigma, biovolume; Nitzschia sp.; Nitzschia sp., biovolume; Organic matter; Petroneis humerosa; Petroneis humerosa, biovolume; Pinnularia sp.; Pinnularia sp., biovolume; Pleurosigma aestuarii; Pleurosigma aestuarii, biovolume; Plot; Schiermonnikoog; Site; site 1; site 2; Species richness; Stauroneis sp.; Stauroneis sp., biovolume; Treatment |
| url | https://doi.org/10.1594/PANGAEA.930429 |