cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.13019410
title: Identification of the ecological preferences of <i>Cyclotella comensis</i> in mountain lakes of the northern European Alps

description: Planktic diatom ecology in the mountain lakes of the northern European Alps has only been studied sparsely so far. To fill this knowledge gap, the driving parameters of planktic diatom assemblage composition in the euphotic zones of twenty lakes located between 955 and 2,060 m a.s.l. were assessed. The mean August water temperature, concentration of major ions, total phosphorous, and lake physical parameters explained significant amounts of variation within the diatom assemblages, as identified by redundancy analysis and consecutive backward selection. <i>Cyclotella comensis</i> was the most abundant taxon in these oligotrophic (&lt;17 total phosphorus µg/L), phosphorous (P) limited, stratified study lakes, particularly when the calcium concentration was high (&gt;35 mg/L). The results of generalized linear models and generalized additive models further revealed that August surface temperature, thermocline depth, and nitrate-N positively and significantly influenced <i>C. comensis</i> growth. These results shed light on the interplay between physical and chemical parameters as important drivers of <i>C. comensis</i> abundance in temperate mountain lakes. They may aid in the interpretation of past and the prediction of future climate-driven changes in planktic diatom composition in these lakes.
DOI: 10.6084/m9.figshare.13019410.v1
title: Identification of the ecological preferences of <i>Cyclotella comensis</i> in mountain lakes of the northern European Alps

description: Planktic diatom ecology in the mountain lakes of the northern European Alps has only been studied sparsely so far. To fill this knowledge gap, the driving parameters of planktic diatom assemblage composition in the euphotic zones of twenty lakes located between 955 and 2,060 m a.s.l. were assessed. The mean August water temperature, concentration of major ions, total phosphorous, and lake physical parameters explained significant amounts of variation within the diatom assemblages, as identified by redundancy analysis and consecutive backward selection. <i>Cyclotella comensis</i> was the most abundant taxon in these oligotrophic (&lt;17 total phosphorus µg/L), phosphorous (P) limited, stratified study lakes, particularly when the calcium concentration was high (&gt;35 mg/L). The results of generalized linear models and generalized additive models further revealed that August surface temperature, thermocline depth, and nitrate-N positively and significantly influenced <i>C. comensis</i> growth. These results shed light on the interplay between physical and chemical parameters as important drivers of <i>C. comensis</i> abundance in temperate mountain lakes. They may aid in the interpretation of past and the prediction of future climate-driven changes in planktic diatom composition in these lakes.
DOI: 10.6084/m9.figshare.11629089
title: Alpine plant community diversity in species–area relations at fine scale

description: Observations of diversity in alpine vegetation appear to be scale dependent. The relations of plant species richness with surface processes and geomorphology have been studied, but patterns of beta diversity are less known. In Glacier National Park, Montana, diversity has been examined within 1 m<sup>2</sup> plots and for 16 m<sup>2</sup> plots across two ranges, with within-plot and across-range explanatory factors, respectively. The slopes of species–area equations for nested 4, 8, 12, and 16 m<sup>2</sup> plots were used as an indicator of beta diversity in Glacier National Park, where smaller and larger scales have been examined. The slopes were negatively related to a field assessment of surface stability and positively to the presence of talus—two sides of the same coin. A positive relationship with bedrock outcrops may be due to a misrepresentation of area for plants. The relationship of species–area slopes to plot-level gamma diversity was negative, weak, and marginally significant, and this variable did not enter the general linear model (GLM). Beyond simple differences in diversity with differences in environment, examination of beta diversity at a scale between that of earlier studies revealed surface processes and geomorphology as drivers that were also at a scale between those previously reported.
DOI: 10.6084/m9.figshare.11629089.v1
title: Alpine plant community diversity in species–area relations at fine scale

description: Observations of diversity in alpine vegetation appear to be scale dependent. The relations of plant species richness with surface processes and geomorphology have been studied, but patterns of beta diversity are less known. In Glacier National Park, Montana, diversity has been examined within 1 m<sup>2</sup> plots and for 16 m<sup>2</sup> plots across two ranges, with within-plot and across-range explanatory factors, respectively. The slopes of species–area equations for nested 4, 8, 12, and 16 m<sup>2</sup> plots were used as an indicator of beta diversity in Glacier National Park, where smaller and larger scales have been examined. The slopes were negatively related to a field assessment of surface stability and positively to the presence of talus—two sides of the same coin. A positive relationship with bedrock outcrops may be due to a misrepresentation of area for plants. The relationship of species–area slopes to plot-level gamma diversity was negative, weak, and marginally significant, and this variable did not enter the general linear model (GLM). Beyond simple differences in diversity with differences in environment, examination of beta diversity at a scale between that of earlier studies revealed surface processes and geomorphology as drivers that were also at a scale between those previously reported.
DOI: 10.6084/m9.figshare.12881439.v1
title: Applying the index of watershed integrity to the Matanuska–Susitna basin

description: The Matanuska–Susitna Borough is the fastest growing region in the State of Alaska and is impacted by a number of human activities. We conducted a multiscale assessment of the stressors facing the borough by developing and mapping the Index of Watershed Integrity (IWI) and Index of Catchment Integrity (the latter considers stressors in areas surrounding individual stream segments exclusive of upstream areas). The assessment coincided with the borough’s stormwater management planning. We adapted the list of anthropogenic stressors used in the original conterminous United States IWI application to reflect the borough’s geography, human activity, and data availability. This analysis also represents an early application of the NHDPlus High Resolution geospatial framework and the first use of the framework in an IWI study. We also explored how remediation of one important stressor, culverts, could impact watershed integrity at the catchment and watershed scales. Overall, we found that the integrity scores for the Matanuska–Susitna basin were high compared to the conterminous United States. Low integrity scores did occur in the rapidly developing Wasilla–Palmer core area. We also found that culvert remediation had a larger proportional impact in catchments with fewer stressors.
DOI: 10.6084/m9.figshare.13400329
title: Moving up and over: redistribution of plants in alpine, Arctic, and Antarctic ecosystems under global change

description: Extreme abiotic conditions, geographic isolation, and low levels of disturbance have historically provided alpine, Arctic, and Antarctic regions with low input of and relative resistance to the introduction of new species. However, the climate is warming rapidly, concomitant with intense and diversified types of human influence in these cold environments. Consequently, many plant species, both native and nonnative, are now moving or expanding their ranges to higher elevations and latitudes, creating new species interactions and assemblages that challenge biodiversity conservation. Based on our synthesis, many of the same nonnative species invade multiple cold environments, and many more could move up or over from adjoining warmer areas. Transportation networks and the disturbances associated with burgeoning development are responsible for many movements. Prevention and monitoring for nonnative plant species is of paramount importance, and management should be directed toward species that negatively impact ecosystem function or human well-being. Management of native range shifters is more complicated; most movements will be desirable, but some may be locally undesirable. Overall, plant movements into alpine, arctic, and Antarctic areas are going to increase, and management will need to be adaptive because species movements and assemblages of the past will not reflect those of the future.
DOI: 10.6084/m9.figshare.13400329.v1
title: Moving up and over: redistribution of plants in alpine, Arctic, and Antarctic ecosystems under global change

description: Extreme abiotic conditions, geographic isolation, and low levels of disturbance have historically provided alpine, Arctic, and Antarctic regions with low input of and relative resistance to the introduction of new species. However, the climate is warming rapidly, concomitant with intense and diversified types of human influence in these cold environments. Consequently, many plant species, both native and nonnative, are now moving or expanding their ranges to higher elevations and latitudes, creating new species interactions and assemblages that challenge biodiversity conservation. Based on our synthesis, many of the same nonnative species invade multiple cold environments, and many more could move up or over from adjoining warmer areas. Transportation networks and the disturbances associated with burgeoning development are responsible for many movements. Prevention and monitoring for nonnative plant species is of paramount importance, and management should be directed toward species that negatively impact ecosystem function or human well-being. Management of native range shifters is more complicated; most movements will be desirable, but some may be locally undesirable. Overall, plant movements into alpine, arctic, and Antarctic areas are going to increase, and management will need to be adaptive because species movements and assemblages of the past will not reflect those of the future.
DOI: 10.6084/m9.figshare.12881439
title: Applying the index of watershed integrity to the Matanuska–Susitna basin

description: The Matanuska–Susitna Borough is the fastest growing region in the State of Alaska and is impacted by a number of human activities. We conducted a multiscale assessment of the stressors facing the borough by developing and mapping the Index of Watershed Integrity (IWI) and Index of Catchment Integrity (the latter considers stressors in areas surrounding individual stream segments exclusive of upstream areas). The assessment coincided with the borough’s stormwater management planning. We adapted the list of anthropogenic stressors used in the original conterminous United States IWI application to reflect the borough’s geography, human activity, and data availability. This analysis also represents an early application of the NHDPlus High Resolution geospatial framework and the first use of the framework in an IWI study. We also explored how remediation of one important stressor, culverts, could impact watershed integrity at the catchment and watershed scales. Overall, we found that the integrity scores for the Matanuska–Susitna basin were high compared to the conterminous United States. Low integrity scores did occur in the rapidly developing Wasilla–Palmer core area. We also found that culvert remediation had a larger proportional impact in catchments with fewer stressors.
DOI: 10.6084/m9.figshare.12988267.v1
title: Deeper snow increases the net soil organic carbon accrual rate in moist acidic tussock tundra: <sup>210</sup>Pb evidence from Arctic Alaska

description: The net change in the carbon inventory of arctic tundra remains uncertain as global warming leads to shifts in arctic water and carbon cycles. To better understand the response of arctic tundra carbon to changes in winter precipitation amount, we investigated soil depth profiles of carbon concentration and radionuclide activities (<sup>7</sup>Be, <sup>137</sup>Cs, <sup>210</sup>Pb, and <sup>241</sup>Am) in the active layer of a twenty-two-year winter snow depth manipulation experiment in moist acidic tussock tundra at Toolik Lake, Alaska. Depth correlations of cumulative carbon dry mass (g cm<sup>−2</sup>) vs. unsupported <sup>210</sup>Pb activity (mBq g<sup>−1</sup>) were examined using a modified constant rate of supply (CRS) model. Results were best fit by two-slope CRS models indicating an apparent step temporal increase in the accumulation rate of soil organic carbon. Most of the best-fit model chronologies indicated that the increase in carbon accumulation rate apparently began and persisted after snow fence construction in 1994. The inhomogeneous nature of permafrost soils and their relatively low net carbon accumulation rates make it challenging to establish robust chronologic records. Nonetheless, the data obtained in this study support a decadal-scale increase in net soil organic carbon accumulation rate in the active layer of arctic moist acidic tussock tundra under conditions of increased winter precipitation.
DOI: 10.6084/m9.figshare.12988267
title: Deeper snow increases the net soil organic carbon accrual rate in moist acidic tussock tundra: <sup>210</sup>Pb evidence from Arctic Alaska

description: The net change in the carbon inventory of arctic tundra remains uncertain as global warming leads to shifts in arctic water and carbon cycles. To better understand the response of arctic tundra carbon to changes in winter precipitation amount, we investigated soil depth profiles of carbon concentration and radionuclide activities (<sup>7</sup>Be, <sup>137</sup>Cs, <sup>210</sup>Pb, and <sup>241</sup>Am) in the active layer of a twenty-two-year winter snow depth manipulation experiment in moist acidic tussock tundra at Toolik Lake, Alaska. Depth correlations of cumulative carbon dry mass (g cm<sup>−2</sup>) vs. unsupported <sup>210</sup>Pb activity (mBq g<sup>−1</sup>) were examined using a modified constant rate of supply (CRS) model. Results were best fit by two-slope CRS models indicating an apparent step temporal increase in the accumulation rate of soil organic carbon. Most of the best-fit model chronologies indicated that the increase in carbon accumulation rate apparently began and persisted after snow fence construction in 1994. The inhomogeneous nature of permafrost soils and their relatively low net carbon accumulation rates make it challenging to establish robust chronologic records. Nonetheless, the data obtained in this study support a decadal-scale increase in net soil organic carbon accumulation rate in the active layer of arctic moist acidic tussock tundra under conditions of increased winter precipitation.
DOI: 10.34820/fk2/7kdvzc/cs3qzl
title: Upload Dataverse.tab

description: :unav
DOI: 10.34820/fk2/7kdvzc
title: Profitabilitas : Company Growth, Leverage, dan Efisiensi Operasional pada Perusahaan Real Estate

description: Penelitian ini bertujuan untuk mengetahui pengaruh secara parsial pertumbuhan perusahaan, leverage, dan efisiensi operasional terhadap profitabilitas pada Perusahaan Real Estate yang terdaftar pada Bursa Efek Indonesia (BEI) tahun 2016-2019.
DOI: 10.5281/zenodo.6394133
title: Dataset of the manuscript "Problems and Solutions in Applying Continuous Integration and Delivery to 20 Open-Source Cyber-Physical Systems"

description: This archive contains the artifacts (datasets) for the manuscript "Problems and Solutions in Applying Continuous Integration and Delivery to 20 Open-Source Cyber-Physical Systems"
DOI: 10.6084/m9.figshare.19447109.v3
title: Data for Seasonal variability of East Asian monsoon during the Holocene optimum

description: Data for Seasonal variability of East Asian monsoon during the Holocene optimum<br>
DOI: 10.6084/m9.figshare.19391282
title: ANSBE-P9-Benthos-4-hard-substrate-Calibrated Image Stills (2018-2020)

description: ####DATA WILL BE LOADED WHEN MSFD 2nd CYCLE REPORT WILL BE PUBLISHED (2024)<br><br>Zip folder "Batch_Convert.zip": Underwater video images (n=561) extracted from video transects (~length = 250 m) acquired by means of underwater videoframe (drifting) in the offshore Belgian Part of the North Sea, onboard RV A962 Belgica between 2018 and 2020. <b><br></b> <b>Associated metadata:</b> Image IDs match the excel file with metadata and coordinates available at<b>: </b>https://doi.org/10.6084/m9.figshare.19391054<br>Framework: Programme code: ANBE-P9-Benthos-4-hard-substrate. Further details on the monitoring programme: https://odnature.naturalsciences.be/msfd/nl/monitoring/2020/#ANSBE-P9-Benthos-4-hard-substrate Belgische Staat, 2018. Actualisatie van de omschrijving van goede milieutoestand & vaststelling van milieudoelen voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art 9 & 10. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 30 pp.<br> Belgische Staat, 2020. Actualisatie van het monitoringsprogramma voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art. 11. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 65 pp.
DOI: 10.6084/m9.figshare.19391282.v2
title: ANSBE-P9-Benthos-4-hard-substrate-Calibrated Image Stills (2018-2020)

description: ####DATA WILL BE LOADED WHEN MSFD 2nd CYCLE REPORT WILL BE PUBLISHED (2024)<br><br>Zip folder "Batch_Convert.zip": Underwater video images (n=561) extracted from video transects (~length = 250 m) acquired by means of underwater videoframe (drifting) in the offshore Belgian Part of the North Sea, onboard RV A962 Belgica between 2018 and 2020. <b><br></b> <b>Associated metadata:</b> Image IDs match the excel file with metadata and coordinates available at<b>: </b>https://doi.org/10.6084/m9.figshare.19391054<br>Framework: Programme code: ANBE-P9-Benthos-4-hard-substrate. Further details on the monitoring programme: https://odnature.naturalsciences.be/msfd/nl/monitoring/2020/#ANSBE-P9-Benthos-4-hard-substrate Belgische Staat, 2018. Actualisatie van de omschrijving van goede milieutoestand & vaststelling van milieudoelen voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art 9 & 10. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 30 pp.<br> Belgische Staat, 2020. Actualisatie van het monitoringsprogramma voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art. 11. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 65 pp.
DOI: 10.6084/m9.figshare.19391282.v1
title: ANSBE-P9-Benthos-4-hard-substrate-Calibrated Image Stills (2018-2020)

description: Zip folder "Batch_Convert.zip": Underwater video images (n=561) extracted from video transects (~length = 250 m) acquired by means of underwater videoframe (drifting) in the offshore Belgian Part of the North Sea, onboard RV A962 Belgica between 2018 and 2020. <b><br></b> <b>Associated metadata:</b> Image IDs match the excel file with metadata and coordinates available at<b>: </b>https://doi.org/10.6084/m9.figshare.19391054<br>Framework: Programme code: ANBE-P9-Benthos-4-hard-substrate. Further details on the monitoring programme: https://odnature.naturalsciences.be/msfd/nl/monitoring/2020/#ANSBE-P9-Benthos-4-hard-substrate Belgische Staat, 2018. Actualisatie van de omschrijving van goede milieutoestand & vaststelling van milieudoelen voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art 9 & 10. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 30 pp.<br> Belgische Staat, 2020. Actualisatie van het monitoringsprogramma voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art. 11. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 65 pp.
DOI: 10.6084/m9.figshare.19391054
title: ANSBE-P9-Benthos-4-hard-substrate-Excel file of annotated imagery (2018-2020)

description: ####DATA WILL BE LOADED WHEN MSFD 2nd CYCLE REPORT WILL BE PUBLISHED (2024)<br>Excel file Two sheets: 1) "Annotated Images"; 2) "ReadME_Key"1) geographical coordinates, metadata, and counts of visible benthic species2) Explanation of the header in sheet (1)Images Unique IDs are comparable with the image repository available at: https://doi.org/10.6084/m9.figshare.19391282 <br>https://figshare.com/articles/dataset/ANSBE-P9-Benthos-4-hard-substrate-Calibrated_Image_Stills_2018-2020_/19391282<br><br>Framework: Programme code: ANBE-P9-Benthos-4-hard-substrate. Further details on the monitoring programme: https://odnature.naturalsciences.be/msfd/nl/monitoring/2020/#ANSBE-P9-Benthos-4-hard-substrate Belgische Staat, 2018. Actualisatie van de omschrijving van goede milieutoestand & vaststelling van milieudoelen voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art 9 & 10. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 30 pp.<br> Belgische Staat, 2020. Actualisatie van het monitoringsprogramma voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art. 11. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 65 pp.
DOI: 10.6084/m9.figshare.19391054.v3
title: ANSBE-P9-Benthos-4-hard-substrate-Excel file of annotated imagery (2018-2020)

description: ####DATA WILL BE LOADED WHEN MSFD 2nd CYCLE REPORT WILL BE PUBLISHED (2024)<br>Excel file Two sheets: 1) "Annotated Images"; 2) "ReadME_Key"1) geographical coordinates, metadata, and counts of visible benthic species2) Explanation of the header in sheet (1)Images Unique IDs are comparable with the image repository available at: https://doi.org/10.6084/m9.figshare.19391282 <br>https://figshare.com/articles/dataset/ANSBE-P9-Benthos-4-hard-substrate-Calibrated_Image_Stills_2018-2020_/19391282<br><br>Framework: Programme code: ANBE-P9-Benthos-4-hard-substrate. Further details on the monitoring programme: https://odnature.naturalsciences.be/msfd/nl/monitoring/2020/#ANSBE-P9-Benthos-4-hard-substrate Belgische Staat, 2018. Actualisatie van de omschrijving van goede milieutoestand & vaststelling van milieudoelen voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art 9 & 10. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 30 pp.<br> Belgische Staat, 2020. Actualisatie van het monitoringsprogramma voor de Belgische mariene wateren. Kaderrichtlijn Mariene Strategie – Art. 11. BMM, Federale Overheidsdienst Volksgezondheid, Veiligheid van de Voedselketen en Leefmilieu, Brussel, België, 65 pp.