cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.5281/zenodo.13852417
title: Table 3 in A new species of Tortanus (Atortus) (Copepoda, Calanoida, Tortanidae) from Minicoy Island, southeastern Arabian Sea

description: Table 3. Distance matrix showing inter- and intraspecific percentage divergence of Tortanus minicoyensis sp. nov. and other species of the genus Tortanus. See Table 2 for codes for specimens and species.
Accession No.123456789101112131415161KP749952 TM ♂2KP749953 TM ♂0.03KP749951 TM ♂0.00.04KP749954 TM♀0.40.40.45AF513648 TD22.922.922.922.76AF474113 TE18.718.718.718.716.97AF513649 TF21.921.921.921.921.219.98AY145431TF19.219.219.219.219.318.43.39KC287905 TI20.920.920.920.919.020.922.821.210AF513647 TDE17.917.917.917.419.615.422.520.921.411AF474112 TDE18.418.418.418.419.015.723.421.520.61.412AY145430 TDX20.320.320.320.319.020.123.622.020.08.68.413AF474114 TR22.522.522.522.525.320.124.223.723.318.018.520.914JN605792 TK21.021.021.021.018.221.124.223.420.819.119.119.125.515JN605791 TV18.418.418.419.018.518.423.621.718.815.414.617.222.519.716KT985464 NI34.434.434.434.436.034.435.733.134.735.735.034.040.038.734.4
description: Published as part of Francis, Sanu Vengasseril & Nandanb, Sivasankaran Bijoy, 2019, A new species of Tortanus (Atortus) (Copepoda, Calanoida, Tortanidae) from Minicoy Island, southeastern Arabian Sea, pp. 432 in Turkish Journal of Zoology 43 (5) on page 432, DOI: 10.3906/zoo-1811-29, http://zenodo.org/record/10973876
DOI: 10.5281/zenodo.13852419
title: Table 4 in A new species of Tortanus (Atortus) (Copepoda, Calanoida, Tortanidae) from Minicoy Island, southeastern Arabian Sea

description: Table 4. Differential diagnosis of the female T. minicoyensis sp. nov. from all other species of the subgenus Atortus from the Indian Ocean.
SpeciesFifth pedigerous somiteCoupling deviceGenital compound somiteCaudal ramiT. minicoyensis sp. nov.Asymmetrical, left margin with a notch and right margin with a single downward directed triangular lobe (Figures 2A, 2C, 2D)Left process larger than right covering the Asymmetrical, right dorsolateral process of fifth margin with a bulge pedigerous somite and at midpoint with 2 lateral surface of genital ventrolateral spines compound somite (Figure 2D) (Figures 2C, 2D)Asymmetrical with 2 rounded medial processes, left ramus slightly larger than the right (Figures 2C, 2D)T. andamanensisThe right process produced more posteriorly than the left (Nishida et al., 2015, fig. 1A)Right process larger, covering the dorsolateral process of the fifth pediger and right lateral surface of genital compound somite (Nishida et al., 2015, figs. 1A, 1B)Right anterolateral margin slightly swollen (Nishida et al., 2015, fig. 1D)Symmetrical with left ramus slightly produced medially while the right ramus concave (Nishida et al., 2015, figs. 1A, 1D)T. magnonyxAsymmetrical, with right side more swollen. (Ohtsuka and Conway, 2005, fig. 2A)Not describedAsymmetrical, expanded anterolaterally, with a pointed process on the right ventrolateral side (Ohtsuka and Conway 2005, figs. 2A–2H)Asymmetrical, left ramus larger and wider than right, constricted at base (Ohtsuka and Conway, 2005, figs. 2A, 2C, 2D)T. insularisSymmetrical in dorsal view (Ohstuka and Conway, Not described 2003, figs. A, F)Asymmetrical, expanded anterolaterally on both sides with peg sensillum at tip (Ohstuka and Conway, 2003, figs. 2C–2E)Asymmetrical, left ramus larger than right (Ohstuka and Conway, 2003, figs. 2A, 2C, 2D)Nearly symmetrical, theAsymmetrical withT. tropicusright side being produced backwards in a wing-like processNot described (Sewell, 1932, fig. 131a)Asymmetrical, small bulge on the left side (Sewell, 1932, fig. 131a)distinctly stouter left ramus at its base than that of right (Sewell, 1932, fig.(Sewell, 1932, fig. 131a)131a)Asymmetrical, expandedanterolaterally on bothsides ending in smallAsymmetrical, left ramusT. recticaudaSymmetrical (Bowman, 1987, fig. 1A)Not describedpapilla with apical spinule; right expansion stronglyslightly wider and longer than right (Bowman,convex to straight laterally1987, figs. 1A, 1C)(Bowman, 1987, figs.1A–1C)
description: Published as part of Francis, Sanu Vengasseril & Nandanb, Sivasankaran Bijoy, 2019, A new species of Tortanus (Atortus) (Copepoda, Calanoida, Tortanidae) from Minicoy Island, southeastern Arabian Sea, pp. 434 in Turkish Journal of Zoology 43 (5) on page 434, DOI: 10.3906/zoo-1811-29, http://zenodo.org/record/10973876
DOI: 10.5281/zenodo.13852423
title: Table 1 in First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway

description: Table 1. Taxa from the Arkadelphia Formation (Cabot locality, Arkansas, USA) with number of specimens, percentage of total, and occurrences in the Cretaceous and Paleocene of North America. Letters in third and fourth columns refer to the following references: A =Stringer et al. (2020); B = Schwarzhans and Stringer (2020a); C = Schwarzhans et al. (2018b); D = Hoganson et al. (2019); E =Stringer et al. (2018); F = Schwarzhans (1985); G = Frizzell (1965a). References are not inclusive but provide evidence of the range of the species in North America. Order=FORMES, Family=idae
TaxaNo. of specimens% of totalKnown N. Am CretaceousKnown N. Am PaleoceneELOPIFORMES ElopidaeElops sp.10.05CFALBULIFORMESAlbulidaeAlbuliformes indeterminate40.19EBElopothrissus sp.10.05ABORDER INDETERMINATE Family indeterminateGenartina sp.10.05BBOsmeroididaeOsmeroides sp.30.14AGANGUILLIFORMESAnguillidaeAnguilla? chickasawae60.28ABOphichthidaeEchiophis aff. E. semisphaeroides110.52BBFamily IndeterminateMuraenanguilla? sp.20.09ABOSTEOGLOSSIFORMESFamily indeterminateKokenichthys navis20.09ANoCLUPEIFORMESFamily indeterminateClupeiform? indeterminate10.05——SILURIFORMESAriidaeArius? subtilis10.05ABFamily indeterminateVorhisia vulpes1,53772.88ANoAULOPIFORMESIchthyotringidaeApateodus crenellatus?30.14ANoGADIFORMESMerlucciidaePalaeogadus? belli sp. nov.1487.02NoNoPalaeogadus cf. P. weltoni10.05BNoGADIFORMESFamily indeterminateGadiformes indeterminate110.52——HOLOCENTRIFORMESFamily indeterminateTippaha mythica80.38ANoBERYCIFORMESFamily indeterminateEutawichthys maastrichtiensis211.00ANoEutawichthys zideki28713.61ANoEutawichthys cf. E. stringeri482.28CNoOPHIDIIFORMESOphidiidaeAmpheristus cf. A. americanus60.28BBBythitidaeProtobythites brzobohatyi40.19BNoORDER UNKNOWNFamily unknownLapillus type 110.05ANoFamily unknownUnknown sagitta10.05n/an/aTotal2,109~100
description: Published as part of Stringer, Gary L. & Sloan, James Carson, 2023, First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway, pp. 7-8 in PaleoBios 40 (1994) on page 7, DOI: 10.5070/P940361192., http://zenodo.org/record/10913416
DOI: 10.5281/zenodo.13852424
title: Table 1 in First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway

description: Table 1. Taxa from the Arkadelphia Formation (Cabot locality, Arkansas, USA) with number of specimens, percentage of total, and occurrences in the Cretaceous and Paleocene of North America. Letters in third and fourth columns refer to the following references: A =Stringer et al. (2020); B = Schwarzhans and Stringer (2020a); C = Schwarzhans et al. (2018b); D = Hoganson et al. (2019); E =Stringer et al. (2018); F = Schwarzhans (1985); G = Frizzell (1965a). References are not inclusive but provide evidence of the range of the species in North America. Order=FORMES, Family=idae
TaxaNo. of specimens% of totalKnown N. Am CretaceousKnown N. Am PaleoceneELOPIFORMES ElopidaeElops sp.10.05CFALBULIFORMESAlbulidaeAlbuliformes indeterminate40.19EBElopothrissus sp.10.05ABORDER INDETERMINATE Family indeterminateGenartina sp.10.05BBOsmeroididaeOsmeroides sp.30.14AGANGUILLIFORMESAnguillidaeAnguilla? chickasawae60.28ABOphichthidaeEchiophis aff. E. semisphaeroides110.52BBFamily IndeterminateMuraenanguilla? sp.20.09ABOSTEOGLOSSIFORMESFamily indeterminateKokenichthys navis20.09ANoCLUPEIFORMESFamily indeterminateClupeiform? indeterminate10.05——SILURIFORMESAriidaeArius? subtilis10.05ABFamily indeterminateVorhisia vulpes1,53772.88ANoAULOPIFORMESIchthyotringidaeApateodus crenellatus?30.14ANoGADIFORMESMerlucciidaePalaeogadus? belli sp. nov.1487.02NoNoPalaeogadus cf. P. weltoni10.05BNoGADIFORMESFamily indeterminateGadiformes indeterminate110.52——HOLOCENTRIFORMESFamily indeterminateTippaha mythica80.38ANoBERYCIFORMESFamily indeterminateEutawichthys maastrichtiensis211.00ANoEutawichthys zideki28713.61ANoEutawichthys cf. E. stringeri482.28CNoOPHIDIIFORMESOphidiidaeAmpheristus cf. A. americanus60.28BBBythitidaeProtobythites brzobohatyi40.19BNoORDER UNKNOWNFamily unknownLapillus type 110.05ANoFamily unknownUnknown sagitta10.05n/an/aTotal2,109~100
description: Published as part of Stringer, Gary L. & Sloan, James Carson, 2023, First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway, pp. 7-8 in PaleoBios 40 (1994) on page 7, DOI: 10.5070/P940361192., http://zenodo.org/record/10913416
DOI: 10.5281/zenodo.13852427
title: Table 3 in First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway

description: Table 3. Percentage similarity measurements for the otolith assemblages from the Arkadelphia Formation (Cabot locality, Arkansas, USA), Fox Hills Formation (NDGS 5597, North Dakota, USA), Kemp Clay (South Sulphur River locality, Texas, USA), Ripley Formation (Blue Springs locality, Mississippi, USA, and Severn Formation (five sites, Maryland, USA). Data for calculations were obtained from this study (Table 1) for the Arkadelphia Formation (Cabot locality), from Hoganson et al. (2019) for the Fox Hills Formation (NDGS 5597 locality), from Schwarzhans and Stringer (2020a) for the Kemp Clay (South Sulphur River locality), from Stringer et al. (2020, table 2) for the Ripley Formation (Blue Springs locality; bulk samples only), and from Stringer and Schwarzhans (2021; table 3) for the Severn Formation (four sites).
Localities comparedPercent similarityArkadelphia Formation (Cabot locality, Arkansas) and Fox Hills Formation (NDGS 5597, North Dakota)30.32%Arkadelphia Formation (Cabot locality, Arkansas) and Kemp Clay (South Sulphur River locality Texas)35.73 %Arkadelphia Formation (Cabot locality, Arkansas) and Ripley Formation (Blue Springs locality, Mississippi)5.46%Arkadelphia Formation (Cabot locality, Arkansas) and Severn Formation (four sites in Maryland)57.68%Kemp Clay (South Sulphur River locality, Texas) and Ripley Formation (Blue Springs locality, Mississippi)3.33%
description: Published as part of Stringer, Gary L. & Sloan, James Carson, 2023, First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway, pp. 25 in PaleoBios 40 (1994) on page 25, DOI: 10.5070/P940361192., http://zenodo.org/record/10913416
DOI: 10.5281/zenodo.13852428
title: Table 3 in First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway

description: Table 3. Percentage similarity measurements for the otolith assemblages from the Arkadelphia Formation (Cabot locality, Arkansas, USA), Fox Hills Formation (NDGS 5597, North Dakota, USA), Kemp Clay (South Sulphur River locality, Texas, USA), Ripley Formation (Blue Springs locality, Mississippi, USA, and Severn Formation (five sites, Maryland, USA). Data for calculations were obtained from this study (Table 1) for the Arkadelphia Formation (Cabot locality), from Hoganson et al. (2019) for the Fox Hills Formation (NDGS 5597 locality), from Schwarzhans and Stringer (2020a) for the Kemp Clay (South Sulphur River locality), from Stringer et al. (2020, table 2) for the Ripley Formation (Blue Springs locality; bulk samples only), and from Stringer and Schwarzhans (2021; table 3) for the Severn Formation (four sites).
Localities comparedPercent similarityArkadelphia Formation (Cabot locality, Arkansas) and Fox Hills Formation (NDGS 5597, North Dakota)30.32%Arkadelphia Formation (Cabot locality, Arkansas) and Kemp Clay (South Sulphur River locality Texas)35.73 %Arkadelphia Formation (Cabot locality, Arkansas) and Ripley Formation (Blue Springs locality, Mississippi)5.46%Arkadelphia Formation (Cabot locality, Arkansas) and Severn Formation (four sites in Maryland)57.68%Kemp Clay (South Sulphur River locality, Texas) and Ripley Formation (Blue Springs locality, Mississippi)3.33%
description: Published as part of Stringer, Gary L. & Sloan, James Carson, 2023, First Cretaceous teleostean otolith assemblage (Arkadelphia Formation, upper Maastrichtian) from Arkansas, USA, early Gadiformes, and the Western Interior Seaway, pp. 25 in PaleoBios 40 (1994) on page 25, DOI: 10.5070/P940361192., http://zenodo.org/record/10913416
DOI: 10.24431/rw1k8fh
title: Model data from publicly-available MeteoFrance System8 (MF8) seasonal forecasts for the calculation of buildup index and comparison to observations for the 1994-2018 Alaska wildfire seasons

description: This dataset includes model output from the MeteoFrance System8 (MF8) seasonal forecasts. The time period spans the years 1994-2018 for the Alaska fire season (April 1 - September 30) from March-initialized and May-initialized seasonal forecasts.

MF8 model data were collected from the Copernicus Climate Data Store (https://cds.climate.copernicus.eu/cdsapp#!/dataset/seasonal-monthly-single-levels?tab=form) for the years 1994-2018. Variables downloaded include 2 meter temperature, 2 meter dew point temperature, precipitation, 10 meter wind speeds, and sea level pressure. These models consist of 25 ensembles.

Details about the model can be found in its reference publication:
Batté, L., Dorel, L., Ardilouze, C., & Guérémy, J.-F. (2021). Documentation of the METEO-FRANCE seasonal forecasting system 8. http://www.umr-cnrm.fr/IMG/pdf/system8-technical.pdf

Model data were extracted for 13 Predictive Service Areas (PSA) in Alaska at 0000 UTC (the time closest to 1400 AKDT) and saved as a weighted area-average in text files by year. Buildup index was calculated from the area-averaged variables and saved in annual text files. Calculations were done with NCAR Command Line (NCL) version 6.3.0.


Sub-directory Naming Convention
The MF8 directory is divided into 15 sub-directories: one sub-directory for each of the 13 PSAs in this study (named for each PSA), one sub-directory for March-initialized forecast data (step1_mf8data_march), and one sub-directory for May-initialized forecast data (step1_mf8data_may).

The step1_mf8data_march and step1_mf8data_may folders contain raw model data from MeteoFrance System8 March-initialized and May-initialized seasonal forecasts, respectively, saved by ensemble in one file for the calculation of buildup index. Data in each file include precipitation (precip), surface pressure (P), 2 meter dewpoint temperature (DP), 2 meter air temperature (T), and 10 meter wind speeds (UV). Data were subset for the state of Alaska and for the Alaska fire season (months of April, May, June, July, August, and September) and saved by year. There are 26 files at a size of 158MB (25 ensembles) for March-initialized forecasts and 26 files at a size of 132MB (25 ensembles) for May-initialized forecasts.

Each PSA sub-directory (PSA AKXX) contains 4 additional sub-directories:

step2_mf8data_march
step2_mf8data_may
step3_mf8data_march_BUI
step3_mf8data_may_BUI

where 'march' or 'may' denotes data from March-initialized forecasts of May-initialized forecasts, respectively. The step2 folders contain precipitation (precip), surface pressure (press), 2 meter dew point temperature (dp), relative humidity (rh), 2 meter air temperature (tmp2m), and 10 meter wind speeds (uv).. These data were extracted from the data files in the step1 sub-directories and saved as annual files. The step3 folders contain the resulting BUI values saved as annual files.
DOI: 10.24431/rw1k8fi
title: Model data from publicly-available MeteoFrance System8 (MF8) seasonal forecasts for the calculation of buildup index and comparison to observations for the 1994-2018 Alaska wildfire seasons

description: This dataset includes model output from the MeteoFrance System8 (MF8) seasonal forecasts. The time period spans the years 1994-2018 for the Alaska fire season (April 1 - September 30) from March-initialized and May-initialized seasonal forecasts.

MF8 model data were collected from the Copernicus Climate Data Store (https://cds.climate.copernicus.eu/cdsapp#!/dataset/seasonal-monthly-single-levels?tab=form) for the years 1994-2018. Variables downloaded include 2 meter temperature, 2 meter dew point temperature, precipitation, 10 meter wind speeds, and sea level pressure. These models consist of 25 ensembles.

Details about the model can be found in its reference publication:
Batté, L., Dorel, L., Ardilouze, C., & Guérémy, J.-F. (2021). Documentation of the METEO-FRANCE seasonal forecasting system 8. http://www.umr-cnrm.fr/IMG/pdf/system8-technical.pdf

Model data were extracted for 13 Predictive Service Areas (PSA) in Alaska at 0000 UTC (the time closest to 1400 AKDT) and saved as a weighted area-average in text files by year. Buildup index was calculated from the area-averaged variables and saved in annual text files. Calculations were done with NCAR Command Line (NCL) version 6.3.0.


Sub-directory Naming Convention
The MF8 directory is divided into 15 sub-directories: one sub-directory for each of the 13 PSAs in this study (named for each PSA), one sub-directory for March-initialized forecast data (step1_mf8data_march), and one sub-directory for May-initialized forecast data (step1_mf8data_may).

The step1_mf8data_march and step1_mf8data_may folders contain raw model data from MeteoFrance System8 March-initialized and May-initialized seasonal forecasts, respectively, saved by ensemble in one file for the calculation of buildup index. Data in each file include precipitation (precip), surface pressure (P), 2 meter dewpoint temperature (DP), 2 meter air temperature (T), and 10 meter wind speeds (UV). Data were subset for the state of Alaska and for the Alaska fire season (months of April, May, June, July, August, and September) and saved by year. There are 26 files at a size of 158MB (25 ensembles) for March-initialized forecasts and 26 files at a size of 132MB (25 ensembles) for May-initialized forecasts.

Each PSA sub-directory (PSA AKXX) contains 4 additional sub-directories:

step2_mf8data_march
step2_mf8data_may
step3_mf8data_march_BUI
step3_mf8data_may_BUI

where 'march' or 'may' denotes data from March-initialized forecasts of May-initialized forecasts, respectively. The step2 folders contain precipitation (precip), surface pressure (press), 2 meter dew point temperature (dp), relative humidity (rh), 2 meter air temperature (tmp2m), and 10 meter wind speeds (uv).. These data were extracted from the data files in the step1 sub-directories and saved as annual files. The step3 folders contain the resulting BUI values saved as annual files.
DOI: 10.24431/rw1k8fj
title: Model data from publicly-available MeteoFrance System8 (MF8) seasonal forecasts for the calculation of buildup index and comparison to observations for the 1994-2018 Alaska wildfire seasons

description: This dataset includes model output from the MeteoFrance System8 (MF8) seasonal forecasts. The time period spans the years 1994-2018 for the Alaska fire season (April 1 - September 30) from March-initialized and May-initialized seasonal forecasts.

MF8 model data were collected from the Copernicus Climate Data Store (https://cds.climate.copernicus.eu/cdsapp#!/dataset/seasonal-monthly-single-levels?tab=form) for the years 1994-2018. Variables downloaded include 2 meter temperature, 2 meter dew point temperature, precipitation, 10 meter wind speeds, and sea level pressure. These models consist of 25 ensembles.

Details about the model can be found in its reference publication:
Batté, L., Dorel, L., Ardilouze, C., & Guérémy, J.-F. (2021). Documentation of the METEO-FRANCE seasonal forecasting system 8. http://www.umr-cnrm.fr/IMG/pdf/system8-technical.pdf

Model data were extracted for 13 Predictive Service Areas (PSA) in Alaska at 0000 UTC (the time closest to 1400 AKDT) and saved as a weighted area-average in text files by year. Buildup index was calculated from the area-averaged variables and saved in annual text files. Calculations were done with NCAR Command Line (NCL) version 6.3.0.


Sub-directory Naming Convention
The MF8 directory is divided into 15 sub-directories: one sub-directory for each of the 13 PSAs in this study (named for each PSA), one sub-directory for March-initialized forecast data (step1_mf8data_march), and one sub-directory for May-initialized forecast data (step1_mf8data_may).

The step1_mf8data_march and step1_mf8data_may folders contain raw model data from MeteoFrance System8 March-initialized and May-initialized seasonal forecasts, respectively, saved by ensemble in one file for the calculation of buildup index. Data in each file include precipitation (precip), surface pressure (P), 2 meter dewpoint temperature (DP), 2 meter air temperature (T), and 10 meter wind speeds (UV). Data were subset for the state of Alaska and for the Alaska fire season (months of April, May, June, July, August, and September) and saved by year. There are 26 files at a size of 158MB (25 ensembles) for March-initialized forecasts and 26 files at a size of 132MB (25 ensembles) for May-initialized forecasts.

Each PSA sub-directory (PSA AKXX) contains 4 additional sub-directories:

step2_mf8data_march
step2_mf8data_may
step3_mf8data_march_BUI
step3_mf8data_may_BUI

where 'march' or 'may' denotes data from March-initialized forecasts of May-initialized forecasts, respectively. The step2 folders contain precipitation (precip), surface pressure (press), 2 meter dew point temperature (dp), relative humidity (rh), 2 meter air temperature (tmp2m), and 10 meter wind speeds (uv).. These data were extracted from the data files in the step1 sub-directories and saved as annual files. The step3 folders contain the resulting BUI values saved as annual files.
DOI: 10.15468/dl.5gwe9a
title: Occurrence Download

description: A dataset containing 402691 species occurrences available in GBIF matching the query:
{
 "and" : [
 "Country is Colombia",
 "HasCoordinate is true",
 "HasGeospatialIssue is false",
 "OccurrenceStatus is Present",
 "TaxonKey is Characiformes"
 ]
}

 The dataset includes 402691 records from 270 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0033389-240906103802322/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.15468/dl.ej3egd
title: Occurrence Download

description: A dataset containing 402691 species occurrences available in GBIF matching the query:
{
 "and" : [
 "Country is Colombia",
 "HasCoordinate is true",
 "HasGeospatialIssue is false",
 "OccurrenceStatus is Present",
 "TaxonKey is Characiformes"
 ]
}

 The dataset includes 402691 records from 270 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0033390-240906103802322/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.