cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.17632/6bcc5x6923
title: production cycle

description: The production cycle of this research process requires 76 hours; while the production cycle of the traditional solid fermentation process is 361.5 hours.
DOI: 10.17632/6bcc5x6923.1
title: production cycle

description: The production cycle of this research process requires 76 hours; while the production cycle of the traditional solid fermentation process is 361.5 hours.
DOI: 10.17026/ar/j7jg7e
title: Het Park te Rotterdam, cultuurhistorisch onderzoek en aanbevelingen

description: aanleg en veranderingen van Het Park, stijlanalyse van Zocher-aanleg, gebruik 1852-2006, waardering, aanbevelingen
DOI: 10.5281/zenodo.17699727
title: Table 1 in Water diviners described: six new species of the Niphargus aquilex complex (Crustacea, Amphipoda)

description: Table 1. Summary of molecular species delimitations. Numbers in columns 2-4 refer to the cluster names by ASAP in this study.
Species nameCOI ASAP partition 1COI ASAP partition 2COI ASAP partition 328S rDNA ASAP (Weber et al. 2023)Haplotype network (Weber et al. 2023)Niphargus aquilex s. str.545BBNiphargus luxemburgensis sp. nov.378F’FNiphargus luxemburgensis sp. nov.389FFNiphargus normandiensis sp. nov.91517missingmissingNiphargus normandiensis sp. nov.91112NNNiphargus normandiensis sp. nov.91820missingmissingNiphargus palatinensis sp. nov.111AANiphargus saraviensis sp. nov.433GGNiphargus saraviensis sp. nov.444missingmissingNiphargus saraviensis sp. nov.41618missingmissingNiphargus schellenbergi s. str.222SSNiphargus lotharingiensis sp. nov.267RRNiphargus lotharingiensis sp. nov.2616R*RNiphargus wasgauensis sp. nov.656IInot described101213KKnot described101213LLnot described111314H’Hnot described7910HHnot described81011JJnot described121415missingmissingnot described131719missingmissingnot described141921missingmissingnot described152022missingmissingnot described162123missingmissing
description: Published as part of Weber, Dieter, Brad, Traian & Weigand, Alexander M., 2025, Water diviners described: six new species of the Niphargus aquilex complex (Crustacea, Amphipoda), pp. 74 in European Journal of Taxonomy 1011 on page 74, DOI: 10.5852/ejt.2025.1011.3023, http://zenodo.org/record/17076525
DOI: 10.5281/zenodo.17699726
title: Table 1 in Water diviners described: six new species of the Niphargus aquilex complex (Crustacea, Amphipoda)

description: Table 1. Summary of molecular species delimitations. Numbers in columns 2-4 refer to the cluster names by ASAP in this study.
Species nameCOI ASAP partition 1COI ASAP partition 2COI ASAP partition 328S rDNA ASAP (Weber et al. 2023)Haplotype network (Weber et al. 2023)Niphargus aquilex s. str.545BBNiphargus luxemburgensis sp. nov.378F’FNiphargus luxemburgensis sp. nov.389FFNiphargus normandiensis sp. nov.91517missingmissingNiphargus normandiensis sp. nov.91112NNNiphargus normandiensis sp. nov.91820missingmissingNiphargus palatinensis sp. nov.111AANiphargus saraviensis sp. nov.433GGNiphargus saraviensis sp. nov.444missingmissingNiphargus saraviensis sp. nov.41618missingmissingNiphargus schellenbergi s. str.222SSNiphargus lotharingiensis sp. nov.267RRNiphargus lotharingiensis sp. nov.2616R*RNiphargus wasgauensis sp. nov.656IInot described101213KKnot described101213LLnot described111314H’Hnot described7910HHnot described81011JJnot described121415missingmissingnot described131719missingmissingnot described141921missingmissingnot described152022missingmissingnot described162123missingmissing
description: Published as part of Weber, Dieter, Brad, Traian & Weigand, Alexander M., 2025, Water diviners described: six new species of the Niphargus aquilex complex (Crustacea, Amphipoda), pp. 74 in European Journal of Taxonomy 1011 on page 74, DOI: 10.5852/ejt.2025.1011.3023, http://zenodo.org/record/17076525
DOI: 10.25921/8kgb-wb45
title: Impacts of ocean acidification and altered prey fatty acids on the early development of northern rock sole (Lepidopsetta polyxystra) larvae from laboratory experiment studies from 2019-03-11 to 2019-04-23 (NCEI Accession 0306213)

description: This dataset contains laboratory experiment data that were collected to examine the effects of ocean acidification and altered prey fatty acids on the early development of northern rock sole, Lepidopsetta polyxystra. Ocean acidification (OA) is predicted to affect the physiological rates of larval fish and invertebrates and is also expected to significantly impact marine fisheries through alteration of food webs. We examined whether mortality rates, body size, and condition of first-feeding larval northern rock sole were synergistically influenced by prey quality (essential fatty acids, EFAs) and high carbon dioxide (CO2) exposure. Larvae were exposed to ambient and high CO2 levels (~ 330 vs. 1020 µatm) and were fed diets with balanced or unbalanced EFA ratios for 7 weeks immediately following hatch. After 2 weeks, significant effects from CO2 and diet were observed, with the largest larvae occurring in the high CO2 exposure group that received a balanced EFA diet. After 5 weeks of exposure, the effects of elevated CO2 had a diminished impact on larval size, but larvae reared on the balanced EFA diet maintained higher lipid-based condition metrics than those fed an unbalanced EFA diet. Survival was variable across replicate tanks and not significantly different between treatments. This study suggests that L. polyxystra larvae are most vulnerable to OA and food web change at different points in their development. Further understanding of these ecosystem effects will be required to predict the impacts of OA on northern rock sole fisheries.
DOI: 10.15468/dl.cu9nuu
title: Occurrence Download

description: A dataset containing 1 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Parexochomus nigromaculatus",
 "BasisOfRecord is Specimen",
 "LifeStage is Adult",
 "MediaType is Image"
 ]
}

 The dataset includes 1 records from 1 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0005659-251120083545085/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.25921/thwf-6s28
title: Larval Arctic cod (Boreogadus saida) exhibit stronger developmental and physiological responses to temperature than to elevated pCO2 in laboratory experiment studies from 2023-03-09 to 2023-05-15 (NCEI Accession 0306528)

description: This dataset contains laboratory experiment data that were collected to examine the effects of temperature and elevated pCO2 on the developmental and physiological responses of larval Arctic cod (Boregogadus saida). High-latitude ecosystems are simultaneously warming and acidifying under ongoing climate change. Arctic cod are a key species in the Arctic Ocean and have demonstrated sensitivity to ocean warming and acidification as adults and embryos, but their larval sensitivity to the combined stressors is unknown. In a laboratory multi-stressor experiment, larval Arctic cod were exposed to a combination of three temperatures (1.8, 5 and 7.3°C) and two carbon dioxide (pCO2) levels (ambient: 330 μatm, high: 1470 μatm) from hatching to 6-weeks of growth. Mortality rates were highest at 7.3°C (5% day-1); however, both growth and morphometric-based condition were also highest at this temperature. When these metrics were assessed via a mortality: growth (M:G) ratio, 5°C appeared to be an optimal temperature for net population biomass, as faster growth at 7.3°C did not fully compensate for higher mortality. In contrast, although morphometric-based condition was lowest at 1.8°C, lipid-based condition was highest, which may reflect prioritization of lipid storage at cold temperatures. The capacity of larval Arctic cod to acclimate to a range of temperatures was exhibited by two lipid-based indicators of membrane fluidity, including a ratio of unsaturated to saturated fatty acids and a ratio of polar lipids to sterols. The effects of elevated pCO2 were subtle, as well as temperature- and metric dependent. When exposed to elevated pCO2 levels, Arctic cod at 1.8°C exhibited signs of lipid dysregulation, suggesting potential interference with membrane acclimation; larvae at 5°C were in lower morphometric-based condition; and larvae at 7.3°C had higher activity eicosanoid substrates, indicating possible physiological stress. Overall, Arctic cod physiological response to temperature variation was more pronounced than their response to elevated pCO2. Future projections of pCO2 effects on Arctic cod health in a warming ecosystem will need to consider the complexity of temperature-dependence and the specificity of multiple physiological responses.
DOI: 10.25921/9jem-bg23
title: Dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2025-06-29 (NCEI Accession 0306562)

description: This NCEI accession consists of dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2025-06-29. Operation of the Grays Reef time-series mooring has been a multi-organization effort which has successfully collected high-resolution data since 2006. The mooring is located in the South Atlantic Bight offshore Georgia, USA and within the boundaries of Gray’s Reef National Marine Sanctuary. It sits along the divide between the inner and middle shelf with water depths of 20 m. Water chemistry is primarily controlled by the middle shelf oceanic dynamics, but during heavy rain events, it can be affected by freshwater plumes coming from the numerous rivers along the Georgia and South Carolina coast. Temperature also plays a major role in the partial pressure of carbon dioxide (pCO2) variability with seasonal changes being apparent. During summer months, GRNMS acts as a CO2 source to the atmosphere while during winter months it is a CO2 sink. The benthic community at GRNMS has proven to be hardy enduring large seasonal swings of seawater CO2 and pH.
DOI: 10.25921/c3c0-zb83
title: Dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2024-12-19 (NCEI Accession 0306563)

description: This NCEI accession consists of dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2024-12-19. Operation of the Grays Reef time-series mooring has been a multi-organization effort which has successfully collected high-resolution data since 2006. The mooring is located in the South Atlantic Bight offshore Georgia, USA and within the boundaries of Gray’s Reef National Marine Sanctuary. It sits along the divide between the inner and middle shelf with water depths of 20 m. Water chemistry is primarily controlled by the middle shelf oceanic dynamics, but during heavy rain events, it can be affected by freshwater plumes coming from the numerous rivers along the Georgia and South Carolina coast. Temperature also plays a major role in the partial pressure of carbon dioxide (pCO2) variability with seasonal changes being apparent. During summer months, GRNMS acts as a CO2 source to the atmosphere while during winter months it is a CO2 sink. The benthic community at GRNMS has proven to be hardy enduring large seasonal swings of seawater CO2 and pH.
DOI: 10.25921/afzn-s416
title: Dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2025-02-23 (NCEI Accession 0306564)

description: This NCEI accession consists of dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2025-02-23. Operation of the Grays Reef time-series mooring has been a multi-organization effort which has successfully collected high-resolution data since 2006. The mooring is located in the South Atlantic Bight offshore Georgia, USA and within the boundaries of Gray’s Reef National Marine Sanctuary. It sits along the divide between the inner and middle shelf with water depths of 20 m. Water chemistry is primarily controlled by the middle shelf oceanic dynamics, but during heavy rain events, it can be affected by freshwater plumes coming from the numerous rivers along the Georgia and South Carolina coast. Temperature also plays a major role in the partial pressure of carbon dioxide (pCO2) variability with seasonal changes being apparent. During summer months, GRNMS acts as a CO2 source to the atmosphere while during winter months it is a CO2 sink. The benthic community at GRNMS has proven to be hardy enduring large seasonal swings of seawater CO2 and pH.
DOI: 10.25921/jxx5-js92
title: Dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2024-05-26 (NCEI Accession 0306569)

description: This NCEI accession consists of dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2024-05-26. Operation of the Grays Reef time-series mooring has been a multi-organization effort which has successfully collected high-resolution data since 2006. The mooring is located in the South Atlantic Bight offshore Georgia, USA and within the boundaries of Gray’s Reef National Marine Sanctuary. It sits along the divide between the inner and middle shelf with water depths of 20 m. Water chemistry is primarily controlled by the middle shelf oceanic dynamics, but during heavy rain events, it can be affected by freshwater plumes coming from the numerous rivers along the Georgia and South Carolina coast. Temperature also plays a major role in the partial pressure of carbon dioxide (pCO2) variability with seasonal changes being apparent. During summer months, GRNMS acts as a CO2 source to the atmosphere while during winter months it is a CO2 sink. The benthic community at GRNMS has proven to be hardy enduring large seasonal swings of seawater CO2 and pH.
DOI: 10.25921/dz7m-2t75
title: Dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2024-03-21 (NCEI Accession 0306570)

description: This NCEI accession consists of dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2024-03-21. Operation of the Grays Reef time-series mooring has been a multi-organization effort which has successfully collected high-resolution data since 2006. The mooring is located in the South Atlantic Bight offshore Georgia, USA and within the boundaries of Gray’s Reef National Marine Sanctuary. It sits along the divide between the inner and middle shelf with water depths of 20 m. Water chemistry is primarily controlled by the middle shelf oceanic dynamics, but during heavy rain events, it can be affected by freshwater plumes coming from the numerous rivers along the Georgia and South Carolina coast. Temperature also plays a major role in the partial pressure of carbon dioxide (pCO2) variability with seasonal changes being apparent. During summer months, GRNMS acts as a CO2 source to the atmosphere while during winter months it is a CO2 sink. The benthic community at GRNMS has proven to be hardy enduring large seasonal swings of seawater CO2 and pH.
DOI: 10.25921/d47g-gd98
title: Dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2023-12-08 (NCEI Accession 0306571)

description: This NCEI accession consists of dissolved inorganic carbon, total alkalinity, pH, water temperature and salinity measured from discrete surface samples, taken at the site of GraysRf_81W_31N mooring in Gray’s Reef National Marine Sanctuary, East Coast of the United States on 2023-12-08. Operation of the Grays Reef time-series mooring has been a multi-organization effort which has successfully collected high-resolution data since 2006. The mooring is located in the South Atlantic Bight offshore Georgia, USA and within the boundaries of Gray’s Reef National Marine Sanctuary. It sits along the divide between the inner and middle shelf with water depths of 20 m. Water chemistry is primarily controlled by the middle shelf oceanic dynamics, but during heavy rain events, it can be affected by freshwater plumes coming from the numerous rivers along the Georgia and South Carolina coast. Temperature also plays a major role in the partial pressure of carbon dioxide (pCO2) variability with seasonal changes being apparent. During summer months, GRNMS acts as a CO2 source to the atmosphere while during winter months it is a CO2 sink. The benthic community at GRNMS has proven to be hardy enduring large seasonal swings of seawater CO2 and pH.
DOI: 10.25921/a557-rf56
title: Dissolved inorganic carbon (DIC), total alkalinity (TALK), pH on total scale, water temperature, salinity, nutrients and other parameters measured from surface underway discrete samples during the NOAA Ship Ronald H. Brown GO-SHIP Section A16N_2023 cruise (Leg 1 EXPOCODE 33RO20230306 and Leg 2 EXPOCODE 33RO20230413) in the North and South Atlantic Ocean from 2023-03-06 to 2023-05-09 (NCEI Accession 0307415)

description: This dataset contains dissolved inorganic carbon (DIC), total alkalinity (TALK), pH on total scale, water temperature, salinity, nutrients and other parameters measured from surface underway discrete samples during the NOAA Ship Ronald H. Brown GO-SHIP Section A16N_2023 cruise (Leg 1 EXPOCODE 33RO20230306 and Leg 2 EXPOCODE 33RO20230413) and during the transits between the starting port and first station and the ending station and ending port in the North and South Atlantic Ocean from 2023-03-06 to 2023-05-09. There were 148 surface CTD measurements collected from NISKIN Bottles and 53 discrete underway samples collected via a continuously flowing underway line. Discrete underway data has typically not been reported and the purpose of this dataset is to collate unpublished and published surface measurements together from the same research cruise in a usable format.
DOI: 10.25921/z2p0-t492
title: Dissolved inorganic carbon (DIC), total alkalinity (TALK), pH on total scale, water temperature, salinity and other parameters measured from surface underway discrete samples during the NOAA Ship Ronald H. Brown cruise RB2201 (EXPOCODE 33RO20220107) in the North Atlantic Ocean from 2022-01-07 to 2022-01-23 (NCEI Accession 0307422)

description: This dataset contains discrete underway measurements collected on the transit from Cape Verde, to Miami, FL during the NOAA Ship Ronald H. Brown cruise RB2201 (EXPOCODE 33RO20220107) in the North Atlantic Ocean from 2022-01-07 to 2022-01-23. There are 47 discrete underway stations collected via a continuously flowing underway line fed from a seawater intake located at the bow, approximately 5 meters below the waterline. Parameters include water temperature, salinity, DIC, TA, and pH.
DOI: 10.25921/bxw9-an31
title: Observations of survival, growth, and morphology of snow crabs collected in laboratory experiments for the Effects of Ocean Acidification on Federally Managed Crab Species project in Kodiak, Alaska from 2021-04-23 to 2022-06-03 (NCEI Accession 0307581)

description: This is data from a laboratory experiment in which snow crab juveniles were held at three different pHs (ambient, pH 7.8, and pH 7.5). Growth, survival, and morphology were recorded. The complete methods, which should be read and understood prior to using this data, are under review as: Long, W.C. (In Review). Ocean acidification reduces juvenile snow crab, Chionoecetes opilio, survival but does not affect growth or morphometrics.
DOI: 10.25921/qjzh-yk66
title: Discrete surface underway measurements of dissolved inorganic carbon (DIC), total alkalinity (TA), pH (SWS), water temperature, salinity, dissolved oxygen, nutrients, partial pressure of carbon dioxide (pCO2) and other parameters during the NOAA Ship Ronald H. Brown GO-SHIP A13, A12 2020 section cruises (EXPOCODEs 33RO20200221; 33RO20200321) in the North and South Atlantic Ocean from 2020-02-21 to 2020-04-17 (NCEI Accession 0308013)

description: This dataset contains discrete underway and surface (above 10dbar) CTD bottle measurements collected during the NOAA Ship Ronald H. Brown Global Ocean Ship-Based Hydrographic Investigations Program (GO-SHIP) sections A13.5, A12 cruises in the North and South Atlantic Ocean from 2020-02-21 to 2020-04-17. There were 8 surface CTD measurements collected from Niskin Bottles and 330 discrete underway samples collected via a continuously flowing underway line. Discrete underway data has typically not been reported and the purpose of this dataset is to collate unpublished and published surface measurements together from the same research cruise in a usable format. Parameters include water pressure, water temperature, salinity, dissolved oxygen, DIC, TA, pH (SWS), pCO2, silicate, nitrite, nitrate and phosphate.
DOI: 10.5281/zenodo.17699516
title: Table 1 in Revision of the Neotropical trahiras of the Hoplias lacerdae species-group (Ostariophysi: Characiformes: Erythrinidae) with descriptions of two new species

description: Table 1. Morphometric data of Hoplias australis. Standard length in mm; values 1-14 are percents of standard length and values 15-22 are percents of head length. n = number of examined specimens.
HolotypenMeanRangeStandard deviationStandard length220.043-25.2-443.9 -1. Body depth21.43421.518.3-25.52.02. Head length30.03631.326.2-33.71.43. Pectoral-fin length16.83618.315.8-21.91.34. Pelvic-fin length16.43619.316.0-22.71.65. Anal-fin length17.93619.317.4-22.01.36. Dorsal-fin length26.73629.125.7-33.31.87. Dorsal-fin base15.03617.415.0-20.91.28. Anal-fin base9.63610.08.1-12.00.99. Pre-pectoral distance26.83628.924.5-32.51.810. Pre-pelvic distance51.83654.550.2-58.31.811. Pre-dorsal distance49.43649.945.0-53.42.012. Pre-anal distance79.33680.074.6-86.02.613. Caudal-peduncle depth14.53614.512.6-17.51.114. Caudal-peduncle length14.13614.311.6-16.61.115. Head depth47.93644.637.9-49.53.116. Snout length26.73624.420.3-28.52.117. Snout width21.23619.214.2-22.72.318. Snout depth23.53621.316.7-27.02.719. Pre-nasal distance16.43615.89.9-19.82.020. Orbital diameter18.33620.613.3-29.04.221. Interorbital width24.83522.114.9-26.82.922. Upper jaw length50.43647.641.0-54.83.8
description: Published as part of Oyakawa, Osvaldo T. & Mattox, George M. T., 2009, Revision of the Neotropical trahiras of the Hoplias lacerdae species-group (Ostariophysi: Characiformes: Erythrinidae) with descriptions of two new species, pp. 120 in Neotropical Ichthyology 7 (2) on page 120, DOI: 10.1590/S1679-62252009000200001, http://zenodo.org/record/5420421