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Row Type | Variable Name | Attribute Name | Data Type | Value |
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attribute | NC_GLOBAL | access_formats | String | .htmlTable,.csv,.json,.mat,.nc,.tsv |
attribute | NC_GLOBAL | acquisition_description | String | We conducted a series of food choice experiments using detritus from cultured\neelgrass (Zostera marina) genotypes (clones) as a food source and either one\nor a combination of the following invertebrate grazers: the tube dwelling\namphipod Ampithoe lacertosa, the free swimming isopod Idotea resecata, and/or\nthe tube building polychaete Platynereis bicanaliculata.\n \nAll feeding trials were conducted by placing pre-weighed fragments of each\nchoice (approximately 4 cm in length) in 140 mL cups (7 cm tall, 6 cm\ndiameter) covered with a 250 um mesh cloth and submerged in a flowing seawater\nbath in an indoor tank. Food choices were marked using colored zip ties, and\ntrials were terminated before any food item was reduced in size by one half.\nConsumption was calculated as ([Hi X Cf/Ci] - Hf ), where Hi and Hf were\ninitial and final wet masses of tissue exposed to consumers, and Ci and Cf\nwere initial and final masses in controls.\n \nIn addition to feeding trials, we grew invertebrates for one month (in similar\ncontainers and feeding trial conditions) with food sources that varied in\nnumber of seagrass clones present. Animal survival was assessed weekly, and\nfood was replaced.\n \nThe chemical traits for individual eelgrass clones were also assessed. We\nmeasured the pressure required to penetrate and tear each genotype. We clamped\nin place below a needle (17G / 19mm length), which was held in place with a\nmetal sleeve and which supported a cup to which dry sand was added a few\nmilligrams at a time until the pin pierced completely through the plant\ntissue. The mass of the dry sand and the apparatus were then weighed to\ndetermine the mass needed to pierce the leaf (Duffy & Hay 1991). Tensile\nstrength was measured using a tensiometer. Leaf segments were clamped to a\nhanging balance equipped with a maximum mass indicator and pulled by hand\nuntil the leaf failed. Phenolic content was determined on an approximately 4\nmg subsample using a modified Folin-Ciocalteu method (see Bolser et al. 1998).\nAn approximately 3 mg subsample was analyzed for carbon and nitrogen\nconcentration on a Thermo Flash EA 1112 Soil elemental analyzer. |
attribute | NC_GLOBAL | awards_0_award_nid | String | 564446 |
attribute | NC_GLOBAL | awards_0_award_number | String | OCE-1234345 |
attribute | NC_GLOBAL | awards_0_data_url | String | http://www.nsf.gov/awardsearch/showAward.do?AwardNumber=1234345 |
attribute | NC_GLOBAL | awards_0_funder_name | String | NSF Division of Ocean Sciences |
attribute | NC_GLOBAL | awards_0_funding_acronym | String | NSF OCE |
attribute | NC_GLOBAL | awards_0_funding_source_nid | String | 355 |
attribute | NC_GLOBAL | awards_0_program_manager | String | David L. Garrison |
attribute | NC_GLOBAL | awards_0_program_manager_nid | String | 50534 |
attribute | NC_GLOBAL | cdm_data_type | String | Other |
attribute | NC_GLOBAL | comment | String | Feeding trials using detritus from eelgrass clones \n described in Oikos manuscipt DOI 10.1111/oik.04471 \n PI: John J. Stachowicz (UC Davis) \n Co-PIs: Richard K. Grosberg & Susan L. Williams (UC Davis) \n Contact: Laura K. Reynolds (UFL) \n Version: 15 September 2017 |
attribute | NC_GLOBAL | Conventions | String | COARDS, CF-1.6, ACDD-1.3 |
attribute | NC_GLOBAL | creator_email | String | info at bco-dmo.org |
attribute | NC_GLOBAL | creator_name | String | BCO-DMO |
attribute | NC_GLOBAL | creator_type | String | institution |
attribute | NC_GLOBAL | creator_url | String | https://www.bco-dmo.org/ |
attribute | NC_GLOBAL | data_source | String | extract_data_as_tsv version 2.3 19 Dec 2019 |
attribute | NC_GLOBAL | date_created | String | 2017-09-15T18:57:24Z |
attribute | NC_GLOBAL | date_modified | String | 2019-08-02T15:15:31Z |
attribute | NC_GLOBAL | defaultDataQuery | String | &time<now |
attribute | NC_GLOBAL | doi | String | 10.1575/1912/bco-dmo.714942.1 |
attribute | NC_GLOBAL | infoUrl | String | https://www.bco-dmo.org/dataset/714942 |
attribute | NC_GLOBAL | institution | String | BCO-DMO |
attribute | NC_GLOBAL | instruments_0_acronym | String | Aquarium |
attribute | NC_GLOBAL | instruments_0_dataset_instrument_description | String | Pre-weighed fragments of eelgrass were covered with a 250 um mesh cloth and submerged in a flowing seawater bath in an indoor tank. |
attribute | NC_GLOBAL | instruments_0_dataset_instrument_nid | String | 715159 |
attribute | NC_GLOBAL | instruments_0_description | String | Aquarium - a vivarium consisting of at least one transparent side in which water-dwelling plants or animals are kept |
attribute | NC_GLOBAL | instruments_0_instrument_name | String | Aquarium |
attribute | NC_GLOBAL | instruments_0_instrument_nid | String | 711 |
attribute | NC_GLOBAL | instruments_0_supplied_name | String | indoor tank |
attribute | NC_GLOBAL | instruments_1_dataset_instrument_description | String | Carbon and nitrogen concentrations were measured on a Thermo Flash EA 1112 Soil elemental analyzer. |
attribute | NC_GLOBAL | instruments_1_dataset_instrument_nid | String | 715135 |
attribute | NC_GLOBAL | instruments_1_description | String | Instruments that quantify carbon, nitrogen and sometimes other elements by combusting the sample at very high temperature and assaying the resulting gaseous oxides. Usually used for samples including organic material. |
attribute | NC_GLOBAL | instruments_1_instrument_external_identifier | String | https://vocab.nerc.ac.uk/collection/L05/current/LAB01/ |
attribute | NC_GLOBAL | instruments_1_instrument_name | String | Elemental Analyzer |
attribute | NC_GLOBAL | instruments_1_instrument_nid | String | 546339 |
attribute | NC_GLOBAL | instruments_1_supplied_name | String | Thermo Flash EA 1112 Soil elemental analyzer |
attribute | NC_GLOBAL | keywords | String | amphipod, Amphipod_feeding_rate_mg_day, bco, bco-dmo, biological, carbon, Carbon_pcnt, chemical, data, dataset, day, dmo, erddap, feeding, genotype, isopod, Isopod_feeding_rate_mg_day, management, nitrogen, Nitrogen_pcnt, oceanography, office, pcnt, penetrate, Penetrate_g, phenolic, Phenolic_pcnt, polychaete, Polychaete_feeding_rate_mg_day, preliminary, rate, tear, Tear_g |
attribute | NC_GLOBAL | license | String | https://www.bco-dmo.org/dataset/714942/license |
attribute | NC_GLOBAL | metadata_source | String | https://www.bco-dmo.org/api/dataset/714942 |
attribute | NC_GLOBAL | param_mapping | String | {'714942': {}} |
attribute | NC_GLOBAL | parameter_source | String | https://www.bco-dmo.org/mapserver/dataset/714942/parameters |
attribute | NC_GLOBAL | people_0_affiliation | String | University of California-Davis |
attribute | NC_GLOBAL | people_0_affiliation_acronym | String | UC Davis |
attribute | NC_GLOBAL | people_0_person_name | String | John J. Stachowicz |
attribute | NC_GLOBAL | people_0_person_nid | String | 518660 |
attribute | NC_GLOBAL | people_0_role | String | Principal Investigator |
attribute | NC_GLOBAL | people_0_role_type | String | originator |
attribute | NC_GLOBAL | people_1_affiliation | String | University of California-Davis |
attribute | NC_GLOBAL | people_1_affiliation_acronym | String | UC Davis |
attribute | NC_GLOBAL | people_1_person_name | String | Richard K. Grosberg |
attribute | NC_GLOBAL | people_1_person_nid | String | 521151 |
attribute | NC_GLOBAL | people_1_role | String | Co-Principal Investigator |
attribute | NC_GLOBAL | people_1_role_type | String | originator |
attribute | NC_GLOBAL | people_2_affiliation | String | University of California-Davis |
attribute | NC_GLOBAL | people_2_affiliation_acronym | String | UC Davis-BML |
attribute | NC_GLOBAL | people_2_person_name | String | Susan L. Williams |
attribute | NC_GLOBAL | people_2_person_nid | String | 564451 |
attribute | NC_GLOBAL | people_2_role | String | Co-Principal Investigator |
attribute | NC_GLOBAL | people_2_role_type | String | originator |
attribute | NC_GLOBAL | people_3_affiliation | String | University of Florida |
attribute | NC_GLOBAL | people_3_affiliation_acronym | String | UF |
attribute | NC_GLOBAL | people_3_person_name | String | Laura K. Reynolds |
attribute | NC_GLOBAL | people_3_person_nid | String | 645531 |
attribute | NC_GLOBAL | people_3_role | String | Contact |
attribute | NC_GLOBAL | people_3_role_type | String | related |
attribute | NC_GLOBAL | people_4_affiliation | String | Woods Hole Oceanographic Institution |
attribute | NC_GLOBAL | people_4_affiliation_acronym | String | WHOI BCO-DMO |
attribute | NC_GLOBAL | people_4_person_name | String | Shannon Rauch |
attribute | NC_GLOBAL | people_4_person_nid | String | 51498 |
attribute | NC_GLOBAL | people_4_role | String | BCO-DMO Data Manager |
attribute | NC_GLOBAL | people_4_role_type | String | related |
attribute | NC_GLOBAL | project | String | Genetic Div to Ecosys Functioning |
attribute | NC_GLOBAL | projects_0_acronym | String | Genetic Div to Ecosys Functioning |
attribute | NC_GLOBAL | projects_0_description | String | There is growing evidence that genetic variation within and among populations of key species plays an important role in marine ecosystem processes. Several experiments provide compelling evidence that the number of genotypes in an assemblage (genotypic richness) can influence critical ecosystem functions including productivity, resistance to disturbance and invasion or colonization success. However, these studies use only the number of genotypes as a measure of genetic diversity. Recent analyses of species diversity experiments show that phylogenetic diversity may be a more reliable predictor of ecosystem functioning than simply the number of species. However, such approaches have not yet been applied to understanding the effects of genetics on ecosystem functioning. While genetic relatedness within a species holds the potential to predict the outcome of intraspecific interactions, and the functioning of ecosystems that depend on those species, we currently have few data to assess the shape or strength of this relationship. The investigators will build on their own previous work, and that of others, in eelgrass (Zostera marina) ecosystems showing strong effects of genotypic richness on a spectrum of critical ecosystem processes. The investigators will ask whether genotypic richness, or - as in studies at the level of species diversity - genetic relatedness/distance better predicts ecosystem functioning? If genetic relatedness measures are better predictors, then what mechanisms underlie this relationship? Can genetic relatedness predict ecological relatedness?\nAlthough the current focus is on eelgrass, the research should be applicable to many systems. The project will assess the relationship between genetic relatedness and phenotypic distinctiveness of a key marine foundation species and use manipulative experiments to test the relative importance of the number of genotypes in an assemblage vs. their genetic relatedness and trait diversity for ecosystem functioning. Specifically, experiments will:\n(1) characterize the relationship between genetic relatedness and trait similarity among individual genotypes of eelgrass, including responses to experimental warming;\n(2) compare the effects of genetic relatedness and trait similarity among genotypes on the outcome of intraspecific competitive interactions; and\n(3) test the relative effect of genetic relatedness vs. number of genotypes of eelgrass on the growth of eelgrass, its associated ecosystem functions it (e.g., primary production, nutrient dynamics, trophic transfer, habitat provision, and detrital production and decomposition).\nSeagrass ecosystems provide important services to coastal regions including primary production, nutrient cycling, habitat for fisheries species, and erosion control. Previous studies have shown these services can be compromised by reduction in the numbers of species of grazers or genotypes, but this study will allow a more predictive approach to diversity loss by integrating the effects of multiple components of diversity and clarifying the extent to which diversity effects can be predicted by the genetic or ecological uniqueness of component genotypes. |
attribute | NC_GLOBAL | projects_0_end_date | String | 2016-08 |
attribute | NC_GLOBAL | projects_0_name | String | Connecting genetic diversity to ecosystem functioning: links between genetic diversity, relatedness and trait variation in a seagrass community |
attribute | NC_GLOBAL | projects_0_project_nid | String | 564447 |
attribute | NC_GLOBAL | projects_0_start_date | String | 2012-09 |
attribute | NC_GLOBAL | publisher_name | String | Biological and Chemical Oceanographic Data Management Office (BCO-DMO) |
attribute | NC_GLOBAL | publisher_type | String | institution |
attribute | NC_GLOBAL | sourceUrl | String | (local files) |
attribute | NC_GLOBAL | standard_name_vocabulary | String | CF Standard Name Table v55 |
attribute | NC_GLOBAL | summary | String | Seagrass meadows are among the world's most productive ecosystems, and as in many other systems, genetic diversity is correlated with increased production. However, only a small fraction of seagrass production is directly consumed, and instead much of the secondary production is fueled by the detrital food web. Here, we study how plant genotype influences detrital consumption. We used three common mesograzers\\u2014an amphipod, Ampithoe lacertosa, an isopod, Idotea resecata, and a polychaete, Platynereis bicanaliculata. Each grazer consumed eelgrass detritus at rates greater than live eelgrass or macroalgae. This detrital consumption, however, was not spread evenly over leaves shed from different eelgrass clones. Palatability and consumption varied because of genotype specific differences in leaf texture, secondary metabolites (phenolics), and nutritional quality (nitrogen). Further, detritus derived from some eelgrass genotypes was palatable to all grazers, while detritus from other genotypes was preferentially consumed by only one grazer species. These data are illustrated in figures 2 and 3 of Reynolds et al., 2017 (DOI:10.1111/oik.04471). |
attribute | NC_GLOBAL | title | String | [Feeding Trials] - Feeding trials: Effects of diversity in feeding trials, conducted at Bodgea Marine Laboratory, using detritus from eelgrass (Zostera marina) genotypes (clones) as a food source and either one or a combination of invertebrate grazers (Connecting genetic diversity to ecosystem functioning: links between genetic diversity, relatedness and trait variation in a seagrass community) |
attribute | NC_GLOBAL | version | String | 1 |
attribute | NC_GLOBAL | xml_source | String | osprey2erddap.update_xml() v1.3 |
variable | Genotype | String | ||
attribute | Genotype | bcodmo_name | String | sample_descrip |
attribute | Genotype | description | String | Individual clone |
attribute | Genotype | long_name | String | Genotype |
attribute | Genotype | units | String | unitless |
variable | Nitrogen_pcnt | float | ||
attribute | Nitrogen_pcnt | _FillValue | float | NaN |
attribute | Nitrogen_pcnt | actual_range | float | 2.44, 3.1 |
attribute | Nitrogen_pcnt | bcodmo_name | String | N |
attribute | Nitrogen_pcnt | description | String | Detrital leaf nitrogen content |
attribute | Nitrogen_pcnt | long_name | String | Nitrogen Pcnt |
attribute | Nitrogen_pcnt | units | String | percent (%) |
variable | Carbon_pcnt | float | ||
attribute | Carbon_pcnt | _FillValue | float | NaN |
attribute | Carbon_pcnt | actual_range | float | 34.85, 36.9 |
attribute | Carbon_pcnt | bcodmo_name | String | C |
attribute | Carbon_pcnt | description | String | Detrital leaf carbon content |
attribute | Carbon_pcnt | long_name | String | Carbon Pcnt |
attribute | Carbon_pcnt | units | String | percent (%) |
variable | Tear_g | float | ||
attribute | Tear_g | _FillValue | float | NaN |
attribute | Tear_g | actual_range | float | 0.17, 0.42 |
attribute | Tear_g | bcodmo_name | String | mass |
attribute | Tear_g | description | String | The mass recordered by a tensiometer reqired to break a detrial leaf |
attribute | Tear_g | long_name | String | Tear G |
attribute | Tear_g | units | String | grams (g) |
variable | Penetrate_g | float | ||
attribute | Penetrate_g | _FillValue | float | NaN |
attribute | Penetrate_g | actual_range | float | 10.17, 17.67 |
attribute | Penetrate_g | bcodmo_name | String | mass |
attribute | Penetrate_g | description | String | The mass needed to push a needle through a detrial leaf |
attribute | Penetrate_g | long_name | String | Penetrate G |
attribute | Penetrate_g | units | String | grams (g) |
variable | Phenolic_pcnt | float | ||
attribute | Phenolic_pcnt | _FillValue | float | NaN |
attribute | Phenolic_pcnt | actual_range | float | 0.72, 1.27 |
attribute | Phenolic_pcnt | bcodmo_name | String | unknown |
attribute | Phenolic_pcnt | description | String | Phenolic concentration measured by the Folin Ciocalteu method |
attribute | Phenolic_pcnt | long_name | String | Phenolic Pcnt |
attribute | Phenolic_pcnt | units | String | percent (%) |
variable | Isopod_feeding_rate_mg_day | float | ||
attribute | Isopod_feeding_rate_mg_day | _FillValue | float | NaN |
attribute | Isopod_feeding_rate_mg_day | actual_range | float | 0.55, 3.16 |
attribute | Isopod_feeding_rate_mg_day | bcodmo_name | String | unknown |
attribute | Isopod_feeding_rate_mg_day | description | String | Isopod (Idotea rescata) feeding rate |
attribute | Isopod_feeding_rate_mg_day | long_name | String | Isopod Feeding Rate Mg Day |
attribute | Isopod_feeding_rate_mg_day | units | String | milligrams per day (mg/day) |
variable | Amphipod_feeding_rate_mg_day | float | ||
attribute | Amphipod_feeding_rate_mg_day | _FillValue | float | NaN |
attribute | Amphipod_feeding_rate_mg_day | actual_range | float | 0.66, 3.7 |
attribute | Amphipod_feeding_rate_mg_day | bcodmo_name | String | unknown |
attribute | Amphipod_feeding_rate_mg_day | description | String | Amphipod (Amphithoe lacertosa) feeding rate |
attribute | Amphipod_feeding_rate_mg_day | long_name | String | Amphipod Feeding Rate Mg Day |
attribute | Amphipod_feeding_rate_mg_day | units | String | milligrams per day (mg/day) |
variable | Polychaete_feeding_rate_mg_day | float | ||
attribute | Polychaete_feeding_rate_mg_day | _FillValue | float | NaN |
attribute | Polychaete_feeding_rate_mg_day | actual_range | float | -0.92, 2.11 |
attribute | Polychaete_feeding_rate_mg_day | bcodmo_name | String | unknown |
attribute | Polychaete_feeding_rate_mg_day | description | String | Polychaete (Platynereis bicanicalulata) feeding rate |
attribute | Polychaete_feeding_rate_mg_day | long_name | String | Polychaete Feeding Rate Mg Day |
attribute | Polychaete_feeding_rate_mg_day | units | String | milligrams per day (mg/day) |