cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.25573/data.10042658.v23
title: Galeta_Wind Speed

description: Galeta Island marine laboratory. <br>Two sensors: pier tower and outer reef<br>Location: 9.402742°, -79.860837°<br>Wind Speed, interval max/min/avg<br><br>Galeta Island Marine Laboratory physical monitoring station established in 1974<br>Galeta station is located 6 km North East of the city of Colon. Established in the 1960’s.
DOI: 10.6084/m9.figshare.24582333
title: 20231118_starrydata2

description: All data on Starrydata2, a database of experimental properties in the field of inorganic materials
DOI: 10.6084/m9.figshare.24582333.v1
title: 20231118_starrydata2

description: All data on Starrydata2, a database of experimental properties in the field of inorganic materials
DOI: 10.25573/data.10042637.v23
title: Galeta_Water Temperature

description: Galeta Island marine laboratory. below Pier Tower <br>Location: 9.402742°, -79.860837°<br>Water Temperature, interval average<br>Galeta Island Marine Laboratory physical monitoring station established in 1974<br>Galeta station is located 6 km North East of the city of Colon. Established in the 1960’s.
DOI: 10.25573/data.10042640.v23
title: Galeta_Wind Direction

description: Galeta Island marine laboratory. Pier Tower and ReefTwo sensors: pier tower and pylon on outer reef<br>Location: 9.402742°, -79.860837°<br>Wind direction, Interval mean vector and standard deviation<br><br>Galeta Island Marine Laboratory physical monitoring station established in 1974<br>Galeta station is located 6 km North East of the city of Colon. Established in the 1960’s.
DOI: 10.25573/data.10042649.v23
title: Galeta_Solar Radiation, Pyranometer

description: Galeta Island marine laboratory. Pier towerThree sensors: two sensors on tower (North and South), and one on outer reef (no longer active)<br>Location: 9.402742°, -79.860837°<br>Solar Radiation, Pyranometer, interval max/min/avg<br><br>Galeta Island Marine Laboratory physical monitoring station established in 1974<br>Galeta station is located 6 km North East of the city of Colon. Established in the 1960’s.
DOI: 10.25573/data.19795387.v6
title: Parque Metropolitano Crane, 65m_Wind speed & Direction

description: In 2021 the original crane was dismantled and replaced with a new, 45m crane in Jan. 2022. The temperature and humidity were moved to the top of the crane. <br> Parque Natural Metropolitano (PNM) crane station. <br> Two sensors: Front and Back <br> Location: 8.994410°, - 79.543000°<br> <br> <br> Solar Radiation, Pyranometer, Interval max/min/avg <br> <br> <br> Established in 1995, the PNM canopy crane is located at the North Western edge of Panama City, at the eastern edge of the Parque Natural Metropolitano (Metropolitan Nature Park) and is surrounded by 80-year old, lowland semi-deciduous forest. <br> The original station was located on the side of the tower at approximately 25m. Some sensors were later moved to the top of the tower.<br> <br> The original crane was 42 meters tall with a radius of 51 meters. In 2021 the original crane was dismantled and replaced with a new, 68m crane in Jan. 2022. A new anemomenter was installed at 65m on March of 2022.
DOI: 10.25573/data.19333379.v7
title: Metropolitan Park Crane Top - Relative Humidity

description: Parque Natural Metropolitano (PNM) crane station.<br> Location: 8.994410°, - 79.543000°<br> <br> Relative Humidity, Interval max/min/avg<br> <br> Established in 1995, the PNM canopy crane is located at the North Western edge of Panama City, at the eastern edge of the Parque Natural Metropolitano (Metropolitan Nature Park) and is surrounded by 80-year old, lowland semi-deciduous forest. The crane was 42 meters tall. <br> In 2021 the original crane was dismantled and replaced with a new, 68m crane in Jan. 2022. The temperature and humidity were moved to the top of the crane.
DOI: 10.25573/data.19333376.v7
title: Parque Metropolitano Crane Top_Air Temperature

description: Parque Natural Metropolitano (PNM) crane station.<br> Location: 8.994410°, - 79.543000°<br> <br> Relative Humidity, Interval max/min/avg<br> <br> Established in 1995, the PNM canopy crane is located at the North Western edge of Panama City, at the eastern edge of the Parque Natural Metropolitano (Metropolitan Nature Park) and is surrounded by 80-year old, lowland semi-deciduous forest. The crane was 42 meters tall. <br> In 2021 the original crane was dismantled and replaced with a new, 68m crane in Jan. 2022. The temperature and humidity were moved to the top of the crane.
DOI: 10.25573/data.10042676.v17
title: Parque Metropolitano Crane_Precipitation

description: Parque Natural Metropolitano (PNM) crane station.<br> Location: 8.994410°, - 79.543000° <br> Precipitation, Interval total precipitation<br> Established in 1995, the PNM canopy crane is located at the North Western edge of Panama City, at the eastern edge of the Parque Natural Metropolitano (Metropolitan Nature Park) and is surrounded by 80-year old, lowland semi-deciduous forest. The crane is 42 meters tall.<br> <br> The original station was located on the side of the tower at approximately 25m. The gauge was moved from the 25m station to the top of the tower in 2009 <br> In 2021 the original crane was dismantled and replaced with a new, 45m crane locate approximately 20m to the east in Jan. 2022.<br> <br> <br> <br>
DOI: 10.25573/data.10042673.v16
title: Parque Metropolitano Crane, Top_Solar Radiation, Pyranometer

description: In 2021 the original crane was dismantled and replaced with a new, 45m crane in Jan. 2022. The temperature and humidity were moved to the top of the crane.<br> Parque Natural Metropolitano (PNM) crane station.<br> Two sensors: Front and Back<br> Location: 8.994410°, - 79.543000° <br> Solar Radiation, Pyranometer, Interval max/min/avg<br> <br> Established in 1995, the PNM canopy crane is located at the North Western edge of Panama City, at the eastern edge of the Parque Natural Metropolitano (Metropolitan Nature Park) and is surrounded by 80-year old, lowland semi-deciduous forest. <br> The original station was located on the side of the tower at approximately 25m. Some sensors were later moved to the top of the tower. The original crane was 42 meters tall with a radius of 51 meters. In 2021 the original crane was dismantled and replaced with a new, 68m crane in Jan. 2022.
DOI: 10.48579/pro/tfqabr/cnbj1j
title: ReadMe.txt

description: :unav
DOI: 10.48579/pro/tfqabr/yf49jj
title: Segrestin et al 2023 JVS.tab

description: :unav
DOI: 10.6084/m9.figshare.24126336.v3
title: STIX dataset

description: The STIX1 and STIX2 data.
DOI: 10.25573/data.10042718.v23
title: San Lorenzo Crane_Wind direction

description: San Lorenzo (Formerly know as Fort Sherman) Canopy Access Crane. <br><br>Interval mean wind vector<br><br>Established in 1997, the San Lorenzo canopy crane (9.281031°, -79.974518°) is located approximately 11 km South West from the city of Colon, in the middle the Parque Natural San Lorenzo (formerly known as Fort Sherman) and is surrounded by 300-year old, low-land tropical rainforest
DOI: 10.25573/data.10042688.v23
title: San Lorenzo Crane_Wind Speed

description: San Lorenzo (Formerly know as Fort Sherman) Canopy Access Crane. <br><br>Wind speed, interval max/min/avg<br>Established in 1997, the San Lorenzo canopy crane (9.281031°, -79.974518°) is located approximately 11 km South West from the city of Colon, in the middle the Parque Natural San Lorenzo (formerly known as Fort Sherman) and is surrounded by 300-year old, low-land tropical rainforest
DOI: 10.25573/data.10042691.v22
title: San Lorenzo Crane_Relative Humidity

description: San Lorenzo (Formerly know as Fort Sherman) Canopy Access Crane. <br><br>Relative humidity, interval max/min/avg<br>Established in 1997, the San Lorenzo canopy crane (9.281031°, -79.974518°) is located approximately 11 km South West from the city of Colon, in the middle the Parque Natural San Lorenzo (formerly known as Fort Sherman) and is surrounded by 300-year old, low-land tropical rainforest
DOI: 10.25573/data.10042694.v23
title: San Lorenzo Crane_Air Temperature

description: San Lorenzo (Formerly know as Fort Sherman) Canopy Access Crane. <br><br>Air temperature, interval max/min/avg<br><br>Established in 1997, the San Lorenzo canopy crane (9.281031°, -79.974518°) is located approximately 11 km South West from the city of Colon, in the middle the Parque Natural San Lorenzo (formerly known as Fort Sherman) and is surrounded by 300-year old, low-land tropical rainforest
DOI: 10.25573/data.10042670.v23
title: San Lorenzo Crane_Solar Radiation, Pyranometer

description: San Lorenzo (Formerly know as Fort Sherman) Canopy Access Crane. <br><br>Solar Radiation, Pyranometer, interval max/min/avg<br>Established in 1997, the San Lorenzo canopy crane (9.281031°, -79.974518°) is located approximately 11 km South West from the city of Colon, in the middle the Parque Natural San Lorenzo (formerly known as Fort Sherman) and is surrounded by 300-year old, low-land tropical rainforest
DOI: 10.6073/pasta/e0fe1849da3cf214197a336f5b0fe462
title: Sabana pasture permanent plot vegetation sampling

description: Permanent plot data is expected to show these temporal patterns: (1) rapid increases in percent cover and tree stem density, and (2) rapid turnover from early to late successional plant species. Plant-plant competition should show quick increases in intensity with native grass species and exotic as top competitors. These may lead to exclusion of some trees common after landslide disturbance. Spatial patterns of invading trees should include edge effects due to dispersal limitation with clumping of bird-dispersed species before the first five years after cow exclusion. Because of intact soil and low vegetation in the pasture trees should grow, as measured by biomass(productivity), height, and basal diameter increases, significantly faster compared to colonization of landslides. Support for this work was provided by grants BSR-8811902, DEB-9411973, DEB-9705814 , DEB-0080538, DEB-0218039 , DEB-0620910 , DEB-1239764, DEB-1546686, and DEB-1831952 from the National Science Foundation to the University of Puerto Rico as part of the Luquillo Long-Term Ecological Research Program. Additional support provided by the University of Puerto Rico and the International Institute of Tropical Forestry, USDA Forest Service.
DOI: 10.25573/data.10042679.v23
title: San Lorenzo Crane_Precipitation

description: San Lorenzo (Formerly know as Fort Sherman) Canopy Access Crane. <br><br>Precipitation, interval total<br>Established in 1997, the San Lorenzo canopy crane (9.281031°, -79.974518°) is located approximately 11 km South West from the city of Colon, in the middle the Parque Natural San Lorenzo (formerly known as Fort Sherman) and is surrounded by 300-year old, low-land tropical rainforest
DOI: 10.21223/f6zzjh
title: Dataset for: Assessment of baked potatoes quality traits during 2020-2021

description: In 2021, in the CIP physiology and post-harvest laboratory in La Molina, quality tests were carried out for baked in eight potato clones with high levels of resistance to late blight and two varieties Canchan and Unica, the samples came from 5 localities of Peru , where these clones were planted in adaptation and efficiency experiments for the registration of varieties within the CIP-PODEROSA project, under the tax research law, Law 30309, which encourages the Peruvian government to encourage agricultural research in the country. Tests to determine heat for baking, evaluating flavor and texture of the clones after baking. The clone CIP396034.103 was selected for high-quality for baking.
DOI: 10.21223/ztpo9t
title: Dataset for: Assessment of french fries quality traits during 2020-2021

description: In 2021, in the CIP physiology and post-harvest laboratory in La Molina, quality tests were carried out for frying in eighth potato clones with high levels of resistance to late blight and excellent quality for frying in french fries and two varieties Canchan and Unica, the samples came from 5 localities of Peru, where these clones were planted in adaptation and efficiency experiments for the registration of varieties within the CIP-PODEROSA project, under the tax research law, Law 30309, which encourages the Peruvian government to encourage agricultural research in the country. Tests to determine the dry matter, frying color, reducing sugar content, and frying with scalding were carried out.
DOI: 10.21223/ff5czt
title: Dataset for: Assessment of french fries quality traits during 2019-2020

description: In 2020, in the CIP physiology and post-harvest laboratory in La Molina, quality tests were carried out for frying in ten potato clones with high levels of resistance to late blight and excellent quality for frying in french fries and two varieties Canchan and Unica, the samples came from 5 localities of Peru, where these clones were planted in adaptation and efficiency experiments for the registration of varieties within the CIP-PODEROSA project, under the tax research law, Law 30309, which encourages the Peruvian government to encourage agricultural research in the country. Tests to determine the dry matter, frying color, reducing sugar content, and frying with scalding were carried out.
DOI: 10.6084/m9.figshare.23816446
title: The effects of climate change on cytotype distributions of endemic genera in the North American Coastal Plain

description: Approximately 33% of plant species face extinction due to climate change. Polyploidisation, a process resulting in more than two complete sets of chromosomes, may be promoted by periods of climate fluctuations. Ecological niche modelling (ENM) using occurrences of endemic plants in the North American Coastal Plain (NACP) biodiversity hotspot could be used to evaluate the potential effects of climate change on cytotype distributions. We used known diploid and polyploid taxa endemic to the NACP to test hypotheses that diploids and polyploids differed in habitat preferences, considerable overlap existed between cytotypes, and polyploid distributions would increase under climate change projections. We examined niche identity and overlap of 28 congeneric ploidy level pairs and performed ENM to evaluate how climate change could affect these groups. Congeneric ploidy level pairs differed significantly in niche identity, and overlap varied across genera. Eleven genera showed greater than 100% increases in habitat suitability and six genera showed almost no remaining suitable habitat in at least one future climate scenario. With 70% of the species that showed substantial declines in projected suitable habitat being of conservation concern, we propose that future studies of these genera should be a primary focus in the NACP.
DOI: 10.6084/m9.figshare.23816446.v1
title: The effects of climate change on cytotype distributions of endemic genera in the North American Coastal Plain

description: Approximately 33% of plant species face extinction due to climate change. Polyploidisation, a process resulting in more than two complete sets of chromosomes, may be promoted by periods of climate fluctuations. Ecological niche modelling (ENM) using occurrences of endemic plants in the North American Coastal Plain (NACP) biodiversity hotspot could be used to evaluate the potential effects of climate change on cytotype distributions. We used known diploid and polyploid taxa endemic to the NACP to test hypotheses that diploids and polyploids differed in habitat preferences, considerable overlap existed between cytotypes, and polyploid distributions would increase under climate change projections. We examined niche identity and overlap of 28 congeneric ploidy level pairs and performed ENM to evaluate how climate change could affect these groups. Congeneric ploidy level pairs differed significantly in niche identity, and overlap varied across genera. Eleven genera showed greater than 100% increases in habitat suitability and six genera showed almost no remaining suitable habitat in at least one future climate scenario. With 70% of the species that showed substantial declines in projected suitable habitat being of conservation concern, we propose that future studies of these genera should be a primary focus in the NACP.
DOI: 10.6084/m9.figshare.24225341
title: The relationship between vegetation, plant functional diversity and environment on rock outcrops in the Western Ghats, India

description: Rock outcrops support specialist plant communities that are often adapted to highly seasonal climates and heterogeneous soil cover. However, the relationship between environmental parameters and plant functional types remains unexplored in many regions of the world, including the Northern Western Ghats (NWG) in India. In the present work, we characterised the vegetation of high and low elevation rock outcrops in the NWG, and investigate the relationship between plant functional types and environmental variables. Vegetation surveys were conducted on 16 high elevation and 14 low elevation sites using a transect and quadrat method. Floristic data were used to calculate plant diversity and plant functional type abundance. The relationship between vegetation and climatic (temperature, precipitation) and soil (soil carbon and nitrogen) variables was explored using cluster and ordination analysis. Rock outcrop sites were grouped into two clusters based on elevation, distance from the sea and mean diurnal range. Plant functional type abundance was related to macro-environmental variables such as temperature, precipitation and soil nutrients such as carbon and nitrogen. We inferred that the distribution and dominance of different plant functional types in the NWG are related to primarily by elevation (a proxy for temperature) and distance from the sea.
DOI: 10.6084/m9.figshare.24225341.v1
title: The relationship between vegetation, plant functional diversity and environment on rock outcrops in the Western Ghats, India

description: Rock outcrops support specialist plant communities that are often adapted to highly seasonal climates and heterogeneous soil cover. However, the relationship between environmental parameters and plant functional types remains unexplored in many regions of the world, including the Northern Western Ghats (NWG) in India. In the present work, we characterised the vegetation of high and low elevation rock outcrops in the NWG, and investigate the relationship between plant functional types and environmental variables. Vegetation surveys were conducted on 16 high elevation and 14 low elevation sites using a transect and quadrat method. Floristic data were used to calculate plant diversity and plant functional type abundance. The relationship between vegetation and climatic (temperature, precipitation) and soil (soil carbon and nitrogen) variables was explored using cluster and ordination analysis. Rock outcrop sites were grouped into two clusters based on elevation, distance from the sea and mean diurnal range. Plant functional type abundance was related to macro-environmental variables such as temperature, precipitation and soil nutrients such as carbon and nitrogen. We inferred that the distribution and dominance of different plant functional types in the NWG are related to primarily by elevation (a proxy for temperature) and distance from the sea.
DOI: 10.6084/m9.figshare.24151865
title: Ecohydrological niche segregation among desert shrubs in a gypsum-calcareous formation, north-western Iran

description: Xerophilic subshrubs exhibit multiple functional types and frequently show hydrological niche segregation. In the poorly studied Irano-Turanian gypsum deserts, knowledge of the ecohydrological strategies of different plant species is essential to understand community complexity in these vulnerable ecosystems. We studied the ecohydrological strategies of five co-existing subshrub members of Caryophyllales, ascertaining if their rooting architecture, gypsum affinity or photosynthetic pathway determined their water uptake, and if gypsum crystallisation water could be a relevant water source for plants in different seasons. We conducted soil and xylem sampling for isotope analyses in spring and summer and extracted water by cryogenic vacuum distillation. Oxygen and hydrogen isotope compositions were determined and compared with visual representation and Bayesian Mixing Models to determine species ecohydrological strategies. Species – season interactions were related to differences in xylem sap isotopic composition. Three basic strategies relying on contrasting the use of free topsoil moisture and deep soil water could be detected and were in part explained by rooting architecture. Plant gypsum affinity and photosynthetic pathways did not have a significant effect on the water sources used by the plants. Ecohydrological niche segregation was explained partly by rooting architecture and species-specific traits. Gypsum crystallisation water was not used in summer by the studied species.
DOI: 10.6084/m9.figshare.24151865.v2
title: Ecohydrological niche segregation among desert shrubs in a gypsum-calcareous formation, north-western Iran

description: Xerophilic subshrubs exhibit multiple functional types and frequently show hydrological niche segregation. In the poorly studied Irano-Turanian gypsum deserts, knowledge of the ecohydrological strategies of different plant species is essential to understand community complexity in these vulnerable ecosystems. We studied the ecohydrological strategies of five co-existing subshrub members of Caryophyllales, ascertaining if their rooting architecture, gypsum affinity or photosynthetic pathway determined their water uptake, and if gypsum crystallisation water could be a relevant water source for plants in different seasons. We conducted soil and xylem sampling for isotope analyses in spring and summer and extracted water by cryogenic vacuum distillation. Oxygen and hydrogen isotope compositions were determined and compared with visual representation and Bayesian Mixing Models to determine species ecohydrological strategies. Species – season interactions were related to differences in xylem sap isotopic composition. Three basic strategies relying on contrasting the use of free topsoil moisture and deep soil water could be detected and were in part explained by rooting architecture. Plant gypsum affinity and photosynthetic pathways did not have a significant effect on the water sources used by the plants. Ecohydrological niche segregation was explained partly by rooting architecture and species-specific traits. Gypsum crystallisation water was not used in summer by the studied species.
DOI: 10.6084/m9.figshare.24151865.v1
title: Ecohydrological niche segregation among desert shrubs in a gypsum-calcareous formation, north-western Iran

description: Xerophilic subshrubs exhibit multiple functional types and frequently show hydrological niche segregation. In the poorly studied Irano-Turanian gypsum deserts, knowledge of the ecohydrological strategies of different plant species is essential to understand community complexity in these vulnerable ecosystems. We studied the ecohydrological strategies of five co-existing subshrub members of Caryophyllales, ascertaining if their rooting architecture, gypsum affinity or photosynthetic pathway determined their water uptake, and if gypsum crystallisation water could be a relevant water source for plants in different seasons. We conducted soil and xylem sampling for isotope analyses in spring and summer and extracted water by cryogenic vacuum distillation. Oxygen and hydrogen isotope compositions were determined and compared with visual representation and Bayesian Mixing Models to determine species ecohydrological strategies. Species – season interactions were related to differences in xylem sap isotopic composition. Three basic strategies relying on contrasting the use of free topsoil moisture and deep soil water could be detected and were in part explained by rooting architecture. Plant gypsum affinity and photosynthetic pathways did not have a significant effect on the water sources used by the plants. Ecohydrological niche segregation was explained partly by rooting architecture and species-specific traits. Gypsum crystallisation water was not used in summer by the studied species.