cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.25736703.v1
title: Advancing EDGE Zones to identify spatial conservation priorities of tetrapod evolutionary history

description: Supplementary Data 1 contains diversity indices, human pressure percentages, and protected area levels within EDGE Zones. 
Supplementary Data 2 contains diversity indices within Biodiversity Hotspots. 
Supplementary Data 3 contains a list of national EDGE species richness. 
Supplementary Data 4 contains a list of the EDGE species found within each identified EDGE Zone. 
Supplementary Data 5 contains a raster layer of tetrapod summed EDGE scores. 
Supplementary Data 6 contains a raster layer of EDGE species richness. 
Supplementary Data 7 contains a shapefile for EDGE species richness by nation. 
Supplementary Data 8 contains a shapefile for EDGE Zones.
Supplementary Data 9 contains a list of EDGE species found in each ecoregion. 
Supplementary Data 10 contains a sample dataset for running the EDGE Zone prioritisation code. 
Source Data contains all the data needed for main and supplementary figures
DOI: 10.58060/hy9b-me88
title: EVA project # 212 2024-06-17 Tree species range shift assessment based on a space for time substitution (juvenile- adult difference): a macroecological comparison between Europe and Japan - D. Koide 
title: SELECTION 2024-07-17

description: Final approved selection from European Vegetation Archive (EVA, incl. ReSurveyEurope) database for this EVA project specified with selection date. The EVA data are available on request using procedure described at How to obtain data (https://euroveg.org/eva-database/obtaining-data).
DOI: 10.58060/eh3f-4c98
title: EVA project # 213 2024-06-27 WINALP 21 - Bergwälder fit im Klimawandel - M. Olleck
title: SELECTION 2024-07-31

description: Final approved selection from European Vegetation Archive (EVA, incl. ReSurveyEurope) database for this EVA project specified with selection date. The EVA data are available on request using procedure described at How to obtain data (https://euroveg.org/eva-database/obtaining-data).
DOI: 10.15468/dl.erwt52
title: Occurrence Download

description: A dataset containing 276 species occurrences available in GBIF matching the query:
{
 "TaxonKey" : [
 "is Zoraptera"
 ]
}

 The dataset includes 276 records from 36 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0118342-240626123714530/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.58060/q81c-5244
title: EVA project # 214 2024-07-17 Vegetation resurvey studies in Europe, a review on methodologies, bias and mitigating techniques - J. Iaria
title: SELECTION 2024-08-30

description: Final approved selection from European Vegetation Archive (EVA, incl. ReSurveyEurope) database for this EVA project specified with selection date. The EVA data are available on request using procedure described at How to obtain data (https://euroveg.org/eva-database/obtaining-data).
DOI: 10.5281/zenodo.7496218
title: The source crater of depleted shergottites

description: The raw data of the counting areas and crater statistics for martian impact craters, including 09-000015, 16-001276, Gratteri, Mojave, Tooting, Zunil, and 3-7-km craters located in the Amazonian and Hesperian-aged volcanic areas within the Tharsis dome and the Elysium Planitia. IDs of images used to perform the crater statistics are provided.
DOI: 10.5281/zenodo.7496219
title: The source crater of depleted shergottites

description: The raw data of the counting areas and crater statistics for martian impact craters, including 09-000015, 16-001276, Gratteri, Mojave, Tooting, Zunil, and 3-7-km craters located in the Amazonian and Hesperian-aged volcanic areas within the Tharsis dome and the Elysium Planitia. IDs of images used to perform the crater statistics are provided.
DOI: 10.58060/cw7v-t740
title: EVA project # 215 2024-07-16 FuD WE PIC – Functional and biological Diversity and habitat assessment of Wild Edible Plants in Italy for Conservation - C. Marcenò
title: SELECTION 2024-08-20

description: Final approved selection from European Vegetation Archive (EVA, incl. ReSurveyEurope) database for this EVA project specified with selection date. The EVA data are available on request using procedure described at How to obtain data (https://euroveg.org/eva-database/obtaining-data).
DOI: 10.15468/dl.dcwfa4
title: Occurrence Download

description: A dataset containing 235 species occurrences available in GBIF matching the query:
{
 "and" : [
 "Continent is Asia",
 "Country is China",
 "HasCoordinate is true",
 "HasGeospatialIssue is false",
 "OccurrenceStatus is Present",
 "TaxonKey is Syrmaticus reevesii (J.E.Gray, 1829)",
 "Year 2013-2022"
 ]
}

 The dataset includes 235 records from 4 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0118343-240626123714530/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.6084/m9.figshare.24417376
title: Data for making Fig. 2

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.
DOI: 10.6084/m9.figshare.24417376.v1
title: Data for making Fig. 2

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.
DOI: 10.6084/m9.figshare.24417379
title: Data for making Fig. 3

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.
DOI: 10.6084/m9.figshare.24417379.v1
title: Data for making Fig. 3

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.
DOI: 10.6084/m9.figshare.24417382
title: Data for making Fig. 4

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.
DOI: 10.6084/m9.figshare.24417382.v1
title: Data for making Fig. 4

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.
DOI: 10.6084/m9.figshare.24440431
title: Trichopelma_grande_datasets

description: Suplementary material from the original description of Trichopelma grande (Araneae: Theraphosidae)
DOI: 10.6084/m9.figshare.24440431.v1
title: Trichopelma_grande_datasets

description: Suplementary material from the original description of Trichopelma grande (Araneae: Theraphosidae)
DOI: 10.6084/m9.figshare.24417502
title: Data for Prey Composition MixSIAR Analyses: S. purpurea

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.
DOI: 10.6084/m9.figshare.24417502.v1
title: Data for Prey Composition MixSIAR Analyses: S. purpurea

description: <b>1.</b><b> </b>Carnivorous plants obtain nutrients from arthropod prey (carnivory) and their environment. However, little is known about the seasonal diet shifts between carnivory vs environment among co-occurring carnivorous plant species. Although studies reporting captured prey species for carnivorous plants are abundant, studies investigating the composition of assimilated prey species in their leaves are scarce. Here, we report spatiotemporal dynamics in carnivory vs environmental nutrient acquisition and compositional analysis of prey species assimilated in carnivorous plants of New England (USA).<b>2.</b><b> </b>We measured the natural abundance stable isotope ratios of aquatic <i>Utricularia inflata </i>(Lentibulariaceae), terrestrial <i>Sarracenia purpurea</i> (Sarraceniaceae), and <i>Drosera intermedia</i> (Droseraceae), and their nutrient sources during their growing season in two oligotrophic ponds in New England (USA). MixSIAR, a Bayesian stable isotope mixing model, was used to estimate the extent of carnivory for each plant species and the composition of prey species assimilated in terrestrial carnivorous plants.<b>3.</b><b> </b>Aquatic <i>U. inflata</i> spatiotemporally acquired more nutrients from carnivory (<i>c.</i> 70 to 100%) than terrestrial species (<i>c.</i> 30% to 60%). <i>Sarracenia purpurea</i> acquired nutrients mainly from Formicidae. The nutrient sources for <i>D. intermedia</i> varied spatiotemporally between arthropod species.<b>4.</b><b> </b>The large contribution of carnivory to the nutrient budget of <i>U. inflata</i> could be due to its lack of roots and high metabolic rate. <i>Sarracenia purpurea</i> and <i>D. intermedia</i> could effectively regulate the nutrient level in their habitat and / or could benefit from dissolved organic nitrogen in the environment. Our findings on prey compositions can be used as the first available prior information for the Bayesian approach in future studies. Understanding the sources of nutrients in carnivorous plants can provide invaluable insight into their ecophysiology and conservation and their fragile wetland ecosystems.