1b:I[42426,["/_next/static/immutable/chunks/1xctgzqre-wsy.js","/_next/static/immutable/chunks/06_-wz6pdtp2b.js","/_next/static/immutable/chunks/30e52g49hg40p.js","/_next/static/immutable/chunks/02yq6tul2z-oh.js","/_next/static/immutable/chunks/10bx_ec2vj7n_.js","/_next/static/immutable/chunks/33bfn03fo8xnt.js","/_next/static/immutable/chunks/0tfjf78scu61b.js","/_next/static/immutable/chunks/31xnvej4n1bi9.js"],"default"] 1c:T7d5,

Prior to the start of this experiment in September 2012, six colonies of A. millepora and T. reniformis originally collected from 3-10m depth in Fiji (17°29’19”S, 177°23’39”E) were maintained for 18 months at 26.4°C ±0.04 SE in 3785 L recirculating indoor aquaria with artificial seawater (Instant Ocean Reef Crystals) in a greenhouse (700–1000 µmol quanta-1 m-2 s-1) at the Reef Systems Coral Farm mariculture facility in New Albany, Ohio (40°07'24"N, 82°46'55”W). In January 2012, A. millepora and T. reniformis colonies were divided into coral ramets (n=8 per colony), mounted on 5cm PVC tiles using EcoTech coral glue, and allowed to recover. On 6 August 2012, coral ramets were placed into indoor experimental tanks (57 L) with artificial light (Tek Light T5 actinic lights, 275 μmol quanta-1 m-2 s-1, 10:14 hours light:dark diurnal cycle) under ambient conditions (26.4°C, 402 μatm) and allowed to acclimate for four weeks.

The experimental systems in this study were previously outlined in Hoadley et al. (2016). Briefly, from 7 – 16 September 2012, treatment conditions were initiated: temperature, pCO2, and nutrients were gradually increased over the course of a week until target conditions in each treatment were reached to minimize shocking any of the corals. The treatments consisted of a control (26.4°C, 402 μatm), elevated pCO2 (26.4°C, 760 µatm), elevated temperature (29.8°C, 402 μatm), and combined elevated temperature and pCO2 (29.8°C, 760 μatm). Half of the tanks in each treatment were under ambient nutrient concentrations (0.41 μmol L-1 NO3- and 0.25 μmol L-1 PO4-3) and the other half under moderate nutrient concentrations (3.56 μmol L-1 NO3- and 0.31 μmol L-1 PO4-3). Experimental conditions (ramping plus target conditions) lasted for 30 days, and coral were fed fresh, two-day old Artemia nauplii (Carolina Biological Supply) twice each week.

1d:T1706,

Calcification. Net calcification was determined using the buoyant weight technique (Jokiel et al 1978). Each coral fragment was weighed at the beginning and end of the experiment. Buoyant weight was normalized to dry weight.

Gross photosynthesis. Gross photosynthesis was calculated from net photosynthesis and respiration; these measurements were made on the live coral fragments incubated in sealed chambers (Hoadley et al. 2016).

CZAR, CHARtoc, CTAR. Gross photosynthesis and respiration were used to calculate CZAR (Muscatine et al. 1981). Dissolved and particulate organic carbon samples (DOC and POC) were collected following incubations. DOC samples were analyzed using a Shimadzu TOC-L total organic carbon analyzer (using the 680°C combustion catalytic oxidation method) (Levas et al 2015). POC filters (GF/F) were acid fumigated (Levas et al 2015) and combusted in an Elementar Vario EL Cube/Micro Cube elemental analyzer interfaced to a PDZ Europa 20-20 isotope ratio mass spectrometer at the stable isotope facility at the University of California - Davis. CHARtoc was calculated using methods modified from Levas et al (2015). CZAR and CHARZOO were summed to yield CTAR (Grottoli et al. 2014).

For tissue analyses, corals were frozen at -80 degrees C and samples were either ground of airbrushed for further analyses.

Surface area. Surface area was measured on Acropora millepora using the wax-dipping technique (Veal et al. 2010) and on Turbinaria reniformis using the aluminum foil method (Marsh 1970).

Tissue biomass. Ash free dry weight was calculated using methods in McLachlan et al. (2020) on ground growing tips of A. millepora and water-picked tissue slurry of T. reniformis.

Chlorophyll a. A. millepora chlorophyll a was measured from tissue slurry using 100% acetone (Jeffrey & Humphrey 1975). T. reniformis chlorophyll data was from Hoadley et al. (2016).

Protein. Protein was measured using the bicinchoninic method (Smith et al. 1985) with bovine serum albumin as a standard (Pierce BCA Protein Assay Kit). This was carried out on air-brushed tissue slurry of A. millepora and water-picked and freeze-dried tissue slurry for T. reniformis. Protein was reported in Joules (Gnaiger & Bitterlich, 1984) and standardized to total biomass of the sub-sample.

Carbohydrates. Carbohydrates were measured using the phenol-sulfuric acid spectrophotometric method (Dubois et al. 1956) with glucose standards. This was carried out on air-brushed tissue slurry of A. millepora and ground T. reniformis. Carbohydrates were reported in Joules (Gnaiger & Bitterlich, 1984) and standardized to total biomass of the sub-sample.

Total lipids. Total lipids were measured using chloroform:methanol (2:1, v:v) with two KCl rinses (Baumann et al. 2014). This was carried out on air-brushed tissue slurry of A. millepora and water-piked and freeze-dried tissue slurry for T. reniformis. Total lipids were reported in Joules (Gnaiger & Bitterlich, 1984) and standardized to total biomass of the sub-sample.

δ15N isotopes (coral host, algal endosymbiont, whole tissue). Samples were prepped for isotopic analysis using a method modified from Hughes and Grottoli (2010). All A. millepora host and algal endosymbiont fractions, partitioned from airbrushed tissue slurry, were combusted in a Costech elemental analyzer and the resulting N2 gas analyzed with a Thermo Finnigan Delta IV stable isotope ratio mass spectrometer (SIRMS) via a ConFlow open split interface in the Grottoli Stable Isotope Biogeochemistry Lab at The Ohio State University. All T. reniformis whole (freeze-dried tissue slurry) and algal endosymbiont fractions were combusted in an Elementar Vario EL Cube/Micro Cube elemental analyzer interfaced to a PDZ Europa 20-20 SIRMS at the stable isotope facility at University of California - Davis. Repeated measurements of an internal standard had an average SD ±0.08‰ δ15N. The δ15N values of both species are reported as the per mil deviation of the ratio of stable nitrogen isotopes 15N:14N relative to air. Approximately 10% of A. millepora samples were run in duplicate with an average SD ± 0.21‰.

A Euclidean distance-based resemblance matrix was constructed using normalized data of primary physiological variables: P, calcification, biomass, protein, and total lipids. Non-metric multi-dimensional scaling (NMDS) plots were generated to visualize relationships between each coral ramet across all treatments, for each species. Analysis of similarities (ANOSIM) was used to evaluate the degree of dissimilarity among treatments. All multivariate analyses were conducted using the software package Primer v6 (Clarke & Gorley 2006). Prior to further statistical analysis, all data were tested for normality by a Shapiro-Wilk’s test and homogeneity of variance was assessed with plots of expected vs. residual values. Univariate three-way analysis of variance (ANOVA) was used to test the effects of temperature, pCO2, nutrients, and genotype on each measured variable for each species. Temperature was fixed with 2 levels (26.4°C, 29.8°C), pCO2 fixed with 2 levels (401 μatm, 760 μatm), nutrients fixed with 2 levels (ambient, moderate). All univariate parametric statistics were generated using SAS software, Version 9.3 of the SAS System for Windows. Values of p ≤ 0.05 were considered significant.

Additional details of the statistical analysis are outlined in Dobson et al. 2020.

1e:T5d5,Extracted from the NSF award abstract: Atmospheric and sea surface CO2 concentrations are expected to continue to increase substantially over the coming decades resulting in warmer and more acidic oceans, which will greatly stress the health of coral reefs. In addition, ocean margins where most corals live will also see continued increases in human-produced nutrient inputs. While there has recently been a considerable focus on how ocean acidification (due to higher CO2 alone) could negatively impact the growth of reef-building corals due to the projected loss in calcification, the combined impacts of CO2, temperature, and nutrients on coral physiology and calcification are poorly understood. This project will investigate the possible synergistic and antagonistic effects of elevated temperature, CO2, and nutrients on the physiology and internal calcifying chemistry of several species of corals in a laboratory setting. Research tools will include the assessment of coral energy reserves and metabolic demand, symbiotic algal physiology and molecular diversity, coral calcification, and direct measurement of the internal coral pH and carbonate concentration via microprobes. The results from this project have the potential to supply broad scientific impacts regarding how (or if) reef-building corals will survive future climate change scenarios, and will help establish several parameter ranges that could be used to strengthen ocean acidification and coral reef growth models.6:["$","$L1b",null,{"dataset":{"_id":"839920","description":"

Details of instruments used during the experiment can be found in Hoadley et al. (2016).

Other comments on the data:

No control data (treatment 1) for A. millepora.
No DOC or POC samples were collected for A. millepora.
No δ15N coral host data was collected for T. reniformis, and no δ15N whole data was collected for A. millepora.

\n","problem":"","acquisition":"$1c","processing":"$1d","bcodmoProcessing":"","title":"Experimental coral physiological and δ15N isotopic measurements in October 2012 at Reef Systems Coral Farm, Ohio.","nickname":"Coral physiological and δ15N isotopic measurements.","dataUrl":"","currentState":"Final no updates expected","currentStateId":"7","validated":true,"restricted":false,"version":"1","version_date":"2022-03-21T04:00:00.000Z","abstract":"Experimental coral physiological and δ15N isotopic measurements in October 2012 at Reef Systems Coral Farm, Ohio.","citation":"Grottoli, A. G., Dobson, K. (2022) Experimental coral physiological and δ15N isotopic measurements in October 2012 at Reef Systems Coral Farm, Ohio. Biological and Chemical Oceanography Data Management Office (BCO-DMO). (Version 1) Version Date 2022-03-21 [if applicable, indicate subset used]. doi:10.26008/1912/bco-dmo.839920.1 [access date]","citationParts":{"identifier":"doi:10.26008/1912/bco-dmo.839920.1","versionDate":"2022-03-21","versionId":"1","year":"2022","title":"Experimental coral physiological and δ15N isotopic measurements in October 2012 at Reef Systems Coral Farm, Ohio.","authors":"Grottoli, A. 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See description document at: http://bcodata.whoi.edu/LaurentianGreatLakes_Chemistry/bs116.pdf","type_acronym":"TOC analyzer"}],"parameters":[{"_id":"839948","name":"Date_Collected","format":"%Y-%m-%d","frictionlessType":"date","description":"

Collection date in ISO format (yyyy-mm-dd)

","units":{"_id":"","name":"unitless"},"type":{"_id":"1070","name":"date","description":"

date; generally reported in GMT as YYYYMMDD (year; month; day); also as MMDD (month; day); EqPac dates are local Hawaii time. ISO_Date format is YYYY-MM-DD (http://www.iso.org/iso/home/standards/iso8601.htm)

"}},{"_id":"839949","name":"Latitude","format":"","frictionlessType":"number","description":"

Latitude of sampling location, south is negative

","units":{"_id":"","name":"decimal degrees"},"type":{"_id":"730","name":"latitude","description":"

latitude, in decimal degrees, North is positive, negative denotes South; Reported in some datasets as degrees, minutes

"}},{"_id":"839950","name":"Longitude","format":"","frictionlessType":"number","description":"

Longitude of sampling location, west is negative

","units":{"_id":"","name":"decimal degrees"},"type":{"_id":"731","name":"longitude","description":"

longitude, in decimal degrees, East is positive, negative denotes West; Reported in some datasets as degrees, minutes

"}},{"_id":"839951","name":"Species","format":"","frictionlessType":"string","description":"

Taxonomic name of the coral species

","units":{"_id":"","name":"unitless"},"type":{"_id":"976","name":"species","description":"

a taxonomic binomial that consists of a genus name followed by the species name of an organism

"}},{"_id":"839952","name":"Sample_ID","format":"","frictionlessType":"string","description":"

ID number of the coral sample

","units":{"_id":"","name":"unitless"},"type":{"_id":"960","name":"sample","description":"

unique sample identification or number; any combination of alpha numeric characters; precise definition is file dependent

"}},{"_id":"839953","name":"Treatment","format":"","frictionlessType":"number","description":"

No description provided

","units":{"_id":"","name":"units"},"type":{"_id":"1741","name":"sample_descrip","description":"

text description or other traits of the sample collected

"}},{"_id":"839954","name":"Temperature_Water","format":"","frictionlessType":"number","description":"

Water temperature

","units":{"_id":"","name":"units"},"type":{"_id":"733","name":"temperature","description":"

water temperature at measurement depth

"}},{"_id":"839955","name":"pCO2","format":"","frictionlessType":"number","description":"

Partial pressure of CO2

","units":{"_id":"","name":"micro-atmospheres (µatm)"},"type":{"_id":"1991","name":"pCO2","description":"

Partial pressure of carbon dioxide {pCO2} in the water body by computation from pH and alkalinity.

"}},{"_id":"839956","name":"Nutrient_Concentration","format":"","frictionlessType":"string","description":"

Nutrient concentration of the water

","units":{"_id":"","name":"mol/L"},"type":{"_id":"1741","name":"sample_descrip","description":"

text description or other traits of the sample collected

"}},{"_id":"839957","name":"Genotype","format":"","frictionlessType":"number","description":"

Genotype (parent colony) identifier

","units":{"_id":"","name":"unitless"},"type":{"_id":"1741","name":"sample_descrip","description":"

text description or other traits of the sample collected

"}},{"_id":"839958","name":"Total_Calcification","format":"","frictionlessType":"number","description":"

Calcification rate across the entire experiment using buoyant weight, normalized to dry weight, and standardized to the surface area of the coral fragment

","units":{"_id":"","name":"milligrams per day per square centimeters (mg/day/cm2)"},"type":{"_id":"708750","name":"calcification","description":"

Accumulation of calcium salts including calcium carbonate (CaCO3) in various forms (e.g. aragonite, calcite). Can be a measured amount, percent of organism, or rate of accumulation.

"}},{"_id":"839959","name":"Gross_Photosynthesis","format":"","frictionlessType":"number","description":"

Gross photosynthesis of the coral fragment in amount of oxygen produced, standardized to time and surface area of the fragment

","units":{"_id":"","name":"micromoles per minute per square centimeters (µmol/min/cm2)"},"type":{"_id":"910","name":"dissolved Oxygen","description":"

dissolved oxygen concentration

"}},{"_id":"839960","name":"CZAR","format":"","frictionlessType":"number","description":"

Contribution of Zooxanthellae to Animal Respiration

","units":{"_id":"","name":"percentage (%)"},"type":{"_id":"1741","name":"sample_descrip","description":"

text description or other traits of the sample collected

"}},{"_id":"839961","name":"CHARTOC","format":"","frictionlessType":"number","description":"

Contribution of Heterotrophy to Animal Respiration from total organic carbon, measured in percentage

","units":{"_id":"","name":"percentage (%)"},"type":{"_id":"1741","name":"sample_descrip","description":"

text description or other traits of the sample collected

"}},{"_id":"839962","name":"CTAR","format":"","frictionlessType":"number","description":"

Contribution of Total Acquired fixed carbon relative to animal Respiration, measured in percentage

","units":{"_id":"","name":"percentage (%)"},"type":{"_id":"1741","name":"sample_descrip","description":"

text description or other traits of the sample collected

"}},{"_id":"839963","name":"Tissue_Biomass","format":"","frictionlessType":"number","description":"

The ash-free dry weight of the whole tissue (animal host and algal endosymbiont) standardized to surface area

","units":{"_id":"","name":"miligrams per square centimeters (mg/cm2)"},"type":{"_id":"751","name":"wet_weight_biomass","description":"

Wet weight biomass is the the fresh weight of a biological sample including its water content and its organic and inorganic components. Refer to dataset for units of measurement.

"}},{"_id":"839964","name":"Chlorophyll_a","format":"","frictionlessType":"number","description":"

The chlorophyll a content of the endosymbiont fraction, standardized to surface area of the fragment

","units":{"_id":"","name":"micrograms per square centimers (µg/cm2)"},"type":{"_id":"766","name":"chlorophyll a","description":"

Total chlorophyll a pigment. See dataset for units of measurement; often reported in: milligrams per cubic meter (mg/m3); micrograms/liter (ug/L); nanograms/liter (ng/L).

CAUTION Within JGOFS MERGED water column products: this parameter is derived from HPLC methodology and the units are nanograms/liter; however; this parameter name is also used for a variety of water and nonwater column sampling; derived via the fluorometric method; units will also vary.

"}},{"_id":"839965","name":"Protein","format":"","frictionlessType":"number","description":"

The soluble protein content of the animal host fraction, converted into Joules and standardized to ash-free dry weight

","units":{"_id":"","name":"Joules per g ash-free dry weight (J/gdw)"},"type":{"_id":"663611","name":"proteins","description":"

Protein concentration

"}},{"_id":"839966","name":"Carbohydrates","format":"","frictionlessType":"number","description":"

The soluble carbohydrate content of the animal host fraction, converted into Joules and standardized to ash-free dry weight

","units":{"_id":"","name":"Joules per g ash-free dry weight (J/gdw)"},"type":{"_id":"663613","name":"carbohydrates","description":"

Carbohydrate concentration

"}},{"_id":"839967","name":"Total_lipids","format":"","frictionlessType":"number","description":"

The soluble lipid content of the combined animal host and algal endosymbiont fraction, converted to Joules and standardized to ash-free dry weight

","units":{"_id":"","name":"Joules per g ash-free dry weight (J/gdw)"},"type":{"_id":"1287","name":"total lipids","description":"

total lipids; neutral and acid fractions as a flux

"}},{"_id":"839968","name":"Delta15N_Whole","format":"","frictionlessType":"number","description":"

Stable nitrogen isotopes of the combined animal host and algal endosymbiont, relative to air

","units":{"_id":"","name":"parts per thousand (‰)"},"type":{"_id":"707573","name":"N","description":"

Nitrogen (N)

"}},{"_id":"839969","name":"Delta15N_Algal_Endosymbionts","format":"","frictionlessType":"number","description":"

Stable nitrogen isotopes of the isolated algal endosymbiont, relative to air

","units":{"_id":"","name":"parts per thousand (‰)"},"type":{"_id":"707573","name":"N","description":"

Nitrogen (N)

"}},{"_id":"839970","name":"Delta15N_Coral_Host","format":"","frictionlessType":"number","description":"

Stable nitrogen isotopes of the isolated animal host, relative to air

","units":{"_id":"","name":"parts per thousand (‰)"},"type":{"_id":"707573","name":"N","description":"

Nitrogen (N)

"}}],"related_publications":[{"id":"839973","citation":"Cai, W.-J., Ma, Y., Hopkinson, B. M., Grottoli, A. G., Warner, M. E., Ding, Q., … Wang, Y. (2016). Microelectrode characterization of coral daytime interior pH and carbonate chemistry. Nature Communications, 7(1). doi:10.1038/ncomms11144\r\n","relation_type":["Methods"],"relation_desc":""},{"id":"839977","citation":"Dobson, K. L., Levas, S., Schoepf, V., Warner, M. E., Cai, W.-J., Hoadley, K. D., Yuan, X., Matsui, Y., Melman, T. F., & Grottoli, A. G. (2021). Moderate nutrient concentrations are not detrimental to corals under future ocean conditions. Marine Biology, 168(7). https://doi.org/10.1007/s00227-021-03901-3\r\n","relation_type":["Results"],"relation_desc":""},{"id":"839975","citation":"Grottoli, A. G., Dalcin Martins, P., Wilkins, M. J., Johnston, M. D., Warner, M. E., Cai, W.-J., … Schoepf, V. (2018). Coral physiology and microbiome dynamics under combined warming and ocean acidification. PLOS ONE, 13(1), e0191156. doi:10.1371/journal.pone.0191156\r\n","relation_type":["Methods"],"relation_desc":""},{"id":"839974","citation":"Hoadley, K. D., Pettay, D. T., Grottoli, A. G., Cai, W.-J., Melman, T. F., Levas, S., … Warner, M. E. (2016). High-temperature acclimation strategies within the thermally tolerant endosymbiont Symbiodinium \r\n trenchii and its coral host, Turbinaria \r\n reniformis, differ with changing pCO\r\n \r\n 2\r\n and nutrients. Marine Biology, 163(6). doi:10.1007/s00227-016-2909-8\r\n","relation_type":["Methods"],"relation_desc":""},{"id":"839972","citation":"Levas, S., Grottoli, A., Warner, M., Cai, W., Bauer, J., Schoepf, V., … Wang, Y. (2015). Organic carbon fluxes mediated by corals at elevated pCO2 and temperature. Marine Ecology Progress Series, 519, 153–164. doi:10.3354/meps11072\r\n","relation_type":["Methods"],"relation_desc":""},{"id":"839971","citation":"Schoepf, V., Grottoli, A. G., Warner, M. E., Cai, W.-J., Melman, T. F., Hoadley, K. D., … Baumann, J. H. (2013). Coral Energy Reserves and Calcification in a High-CO2 World at Two Temperatures. PLoS ONE, 8(10), e75049. doi:10.1371/journal.pone.0075049\r\n","relation_type":["Methods"],"relation_desc":""},{"id":"839976","citation":"Yuan, X., Cai, W.-J., Meile, C., Hopkinson, B. M., Ding, Q., Schoepf, V., … Grottoli, A. G. (2018). Quantitative interpretation of vertical profiles of calcium and pH in the coral coelenteron. Marine Chemistry, 204, 62–69. doi:10.1016/j.marchem.2018.06.001\r\n","relation_type":["Methods"],"relation_desc":""}],"related_datasets":[],"services":[{"grouping":"","items":[{"name":"View Data","description":"An in-browser view of the primary tabular data file","url":"https://www.bco-dmo.org/dataset/839920/data/view","contentType":"text/html","actionType":"view"}]},{"grouping":"Metadata","items":[{"name":"HTML","description":"A simple HTML page of the dataset metadata","url":"https://www.bco-dmo.org/dataset/839920/description","contentType":"text/html","actionType":"view"},{"name":"PDF","description":"A PDF of the HTML dataset metadata","url":"https://www.bco-dmo.org/dataset/839920/Dataset_description.pdf","contentType":"application/pdf","actionType":"download"},{"name":"ISO 19115-2 (NOAA Profile)","description":"","url":"https://www.bco-dmo.org/dataset/839920/iso","contentType":"application/xml","actionType":"download"}]}],"programs":[{"_id":"2030","name":"Science, Engineering and Education for Sustainability NSF-Wide Investment (SEES): Ocean Acidification (formerly CRI-OA)","acronym":"SEES-OA"}],"projects":[{"_id":"528004","name":"Interactive Effects of Temperature, Nutrients, and Ocean Acidification on Coral Physiology and Calcification","acronym":"OA_coral_physiology","description":"$1e"}],"archives":[{"id_value":"10.26008/1912/bco-dmo.839920.1","url":"https://doi.org/10.26008/1912/bco-dmo.839920.1","date_assigned":"2022-03-21","version_date":"2022-03-21","archiver":"Marine Biological Laboratory/Woods Hole Oceanographic Institution Library (MBLWHOI DLA)","archiver_id":"272"}],"license":{"name":"Creative Commons Attribution 4.0","id":"CC-BY-4.0","uri":"https://creativecommons.org/licenses/by/4.0/","spdxUri":"https://spdx.org/licenses/CC-BY-4.0"},"metrics":{"views":{"count":261},"downloads":{"count":313}}},"fileId":"903245"}]