cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.5683/sp3/fxpsar
title: Supply and Use Tables, 2010-2021, Level L61 [Canada]
title: Tableaux des ressources et des emplois, 2010-2021, Niveau L61 [Canada]

description: &lt;p&gt;The supply and use tables focus on measuring the productive structure of the economy. They trace production of products by domestic industries, combined with imports, through their use as intermediate inputs or as final consumption, investment or exports. The system provides a measure of value added by industry—total output less intermediate inputs. These tables can be used to calculate economy-wide gross domestic product (GDP) either directly, by summing value added over the industries, or indirectly, by summing to the economy-wide cost of primary inputs (income-based GDP) or by computing the grand total of the flow of commodities into final demand categories (expenditure-based GDP).&lt;/p&gt;

&lt;p&gt;With the 2015 comprehensive revision, the Canadian System of Macroeconomic Accounts (CSMA) has introduced a major presentational change to the national and the provincial and territorial input-output tables. The previous CSMA input-output presentation differed from the international standard and the practice found in most national statistical organizations. The CSMA has aligned its presentation with the international standard and replaces the presentation found in catalogues 15F0041X and 15F0042X, as well as 15F0002X. (Replaces the "interprovincial and international trade flows", "national input output tables", and "provincial input output tables")&lt;/p&gt;
description: Supply and Use Tables
DOI: 10.15139/s3/ng3nt1
title: City of Seguin Comprehensive Safety Action Plan November 2024 (2024). Seguin, Texas

description: Vision Zero is a strategy to reduce all traffic fatalities and severe injuries to zero, while increasing safe, equitable, and healthy mobility for all. Vision Zero Plans help guide municipalities, counties, and other areas to address these strategies considering the local context
description: The plan was originally downloaded on 12.15.2025 at the following link: https://www.seguintexas.gov/DocumentCenter/View/5800/Seguin-CSAP-Report?bidId=
DOI: 10.34740/kaggle/dsv/14169285
title: List Benchmarks Kaggle
DOI: 10.6084/m9.figshare.28740490
title: Aquatic metabolism after impoundment of a low productivity boreal reservoir using free water oxygen

description: Inland waterbodies play a significant role in the global cycling of greenhouse gases. Impoundment of rivers changes their greenhouse gas dynamics and leads to a pulse of emissions, primarily due to the respiration of introduced organic matter. Aquatic metabolism estimates using free water oxygen curves were calculated at 5 sites on the lower Nelson River, Manitoba, Canada, in 2021 to assess immediate conditions after impounding a hydroelectric reservoir at the Keeyask Generating Station. Net ecosystem production varied significantly across the study area (<i>P</i> &lt; 0.001), with the most heterotrophic sites found in the reservoir. More specifically, ecosystem respiration (R) and gross primary production rates varied significantly (<i>P</i> &lt; 0.001) within the reservoir itself. The greatest R (mean [standard deviation]) was observed in a former tributary inflow (−1.94 [1.03] g C m<sup>−2</sup> d<sup>−1</sup>) and then in the forebay (−1.06 [0.74] g C m<sup>−2</sup> d<sup>−1</sup>), an order of magnitude greater than the upstream extent of the reservoir area (−0.13 [0.29] g C m<sup>−2</sup> d<sup>−1</sup>). Benthic and pelagic R had greater relative importance in the former tributary inflow and the forebay, respectively. Loading of organic matter seemed to vary across the reservoir, and evidence suggests it was a key factor regulating R. Light limitation seemed prevalent throughout the study area, consistent with previous studies in the region. The results presented here update understanding of aquatic metabolism in a region characterized by hydroelectric development.
DOI: 10.6084/m9.figshare.28740490.v1
title: Aquatic metabolism after impoundment of a low productivity boreal reservoir using free water oxygen

description: Inland water bodies play a significant role in the global cycling of greenhouse gases. Impoundment of rivers changes their greenhouse gas dynamics and leads to a pulse of emissions, primarily due to the respiration of introduced organic matter. Aquatic metabolism estimates using free water oxygen curves were calculated at five sites on the lower Nelson River, Manitoba, Canada in 2021 to assess immediate conditions after impounding a hydroelectric reservoir at the Keeyask Generating Station. Net ecosystem production varied significantly across the study area (<i>P</i> &lt; 0.001), with the most heterotrophic sites being found in the reservoir. More specifically, ecosystem respiration (R) and gross primary production rates varied significantly (<i>P</i> &lt; 0.001) within the reservoir itself. The greatest R was observed in a former tributary inflow (-1.94 ± 1.03 g C m<sup>-2</sup> d<sup>-1</sup>) and then in the forebay (-1.06 ± 0.74 g C m<sup>-2</sup> d<sup>-1</sup>), an order of magnitude greater than the upstream extent of the reservoir area (-0.13 ± 0.29 g C m<sup>-2</sup> d<sup>-1</sup>). Benthic and pelagic R were of greater relative importance in the former tributary inflow and the forebay, respectively. Loading of organic matter appeared to vary across the reservoir, and evidence suggests this was a key factor regulating R. Light limitation appeared to be prevalent throughout the study area, consistent with previous studies in the region. The results presented here updated the understanding of aquatic metabolism in a region characterized by hydroelectric development.
DOI: 10.6084/m9.figshare.28740490.v2
title: Aquatic metabolism after impoundment of a low productivity boreal reservoir using free water oxygen

description: Inland waterbodies play a significant role in the global cycling of greenhouse gases. Impoundment of rivers changes their greenhouse gas dynamics and leads to a pulse of emissions, primarily due to the respiration of introduced organic matter. Aquatic metabolism estimates using free water oxygen curves were calculated at 5 sites on the lower Nelson River, Manitoba, Canada, in 2021 to assess immediate conditions after impounding a hydroelectric reservoir at the Keeyask Generating Station. Net ecosystem production varied significantly across the study area (<i>P</i> &lt; 0.001), with the most heterotrophic sites found in the reservoir. More specifically, ecosystem respiration (R) and gross primary production rates varied significantly (<i>P</i> &lt; 0.001) within the reservoir itself. The greatest R (mean [standard deviation]) was observed in a former tributary inflow (−1.94 [1.03] g C m<sup>−2</sup> d<sup>−1</sup>) and then in the forebay (−1.06 [0.74] g C m<sup>−2</sup> d<sup>−1</sup>), an order of magnitude greater than the upstream extent of the reservoir area (−0.13 [0.29] g C m<sup>−2</sup> d<sup>−1</sup>). Benthic and pelagic R had greater relative importance in the former tributary inflow and the forebay, respectively. Loading of organic matter seemed to vary across the reservoir, and evidence suggests it was a key factor regulating R. Light limitation seemed prevalent throughout the study area, consistent with previous studies in the region. The results presented here update understanding of aquatic metabolism in a region characterized by hydroelectric development.
DOI: 10.6084/m9.figshare.28770618
title: Hydroclimate change affects tropical lake ecosystems on floodplains in the Pantanal

description: Global climate change, particularly altered precipitation patterns, has significantly impacted tropical ecosystems like floodplain lakes that are highly sensitive to fluctuations in riverine discharge. Here, we investigate the effects of interannual hydrological changes in the Upper Paraguay River on floodplain lake ecosystems in the Pantanal, the largest tropical wetland on Earth. Our analysis includes a time series of river levels (1985–2023), Landsat imagery, and lake sediment geochemistry datasets that untangle connections among river hydrology, lake basin morphology, and the proliferation of aquatic vegetation. Our results found that Lakes Cáceres, Vermelha, Uberaba, and Negra have significant temporal variations in open water habitats. They are particularly vulnerable to hydroclimatic changes because of their flat lake beds and shallow bathymetry, which promote rapid replacement of open water habitats with dense aquatic macrophyte cover during droughts. Lakes Gaíva and Mandioré are more resistant to changes in the Upper Paraguay River level, with a dominance of open water habitats even during severe drought events. Our time series analysis shows the severe drought of 2019–2020 as a tipping point in the Pantanal’s floodplain lake ecosystems, with the analyzed lakes experiencing marked reductions in open water habitat and expansion of aquatic vegetation. Predictive climate models indicate that more frequent, extended drought may result in floodplain lake ecosystem transformations in the coming decades. Low river levels drive transitions in tropical floodplain lakes, leading to macrophyte and terrestrial vegetation expansion and increased fuel accumulation. These changes elevate wildfire risk, reduce aquatic biodiversity, and threaten local livelihoods that depend on fisheries and other ecosystem services.
DOI: 10.6084/m9.figshare.28770618.v1
title: Hydroclimate change affects tropical lake ecosystems on floodplains in the Pantanal

description: Global climate change, particularly altered precipitation patterns, has significantly impacted tropical ecosystems like floodplain lakes that are highly sensitive to fluctuations in riverine discharge. Here, we investigate the effects of interannual hydrological changes in the Upper Paraguay River on floodplain lake ecosystems in the Pantanal, the largest tropical wetland on Earth. Our analysis includes a time series of river levels (1985–2023), Landsat imagery, and lake sediment geochemistry datasets that untangle connections among river hydrology, lake basin morphology, and the proliferation of aquatic vegetation. Our results found that Lakes Cáceres, Vermelha, Uberaba, and Negra have significant temporal variations in open water habitats. They are particularly vulnerable to hydroclimatic changes because of their flat lake beds and shallow bathymetry, which promote rapid replacement of open water habitats with dense aquatic macrophyte cover during droughts. Lakes Gaíva and Mandioré are more resistant to changes in the Upper Paraguay River level, with a dominance of open water habitats even during severe drought events. Our time series analysis shows the severe drought of 2019–2020 as a tipping point in the Pantanal’s floodplain lake ecosystems, with the analyzed lakes experiencing marked reductions in open water habitat and expansion of aquatic vegetation. Predictive climate models indicate that more frequent, extended drought may result in floodplain lake ecosystem transformations in the coming decades. Low river levels drive transitions in tropical floodplain lakes, leading to macrophyte and terrestrial vegetation expansion and increased fuel accumulation. These changes elevate wildfire risk, reduce aquatic biodiversity, and threaten local livelihoods that depend on fisheries and other ecosystem services.
DOI: 10.6084/m9.figshare.29041056
title: A bibliographic review on vascular flora of Italian volcanic lakes

description: Although wetlands cover only a small area worldwide, they are rich reservoirs of biodiversity and provide valuable ecosystem services. Nevertheless, wetlands are severely threatened by human activities that modify their structure and functionality, with serious consequences on native diversity. In such vulnerable environments, it is important to adequately characterize their biodiversity to understand the ongoing processes and enable timely management interventions. This review aims to provide the state of floristic knowledge of Italian volcanic lakes, a major freshwater system in the Mediterranean basin. All relevant botanic literature produced to date on these lakes was collected and evaluated from a multispatial and temporal perspective. In total, 982 taxa of vascular plants, including 99 aliens, were recorded in the literature. Of these, 215 taxa are closely related to the wetland environment, including aquatic and shore habitat. The floristic explorations range discontinuously from the first half of the 19th century to the present, but 75% of the contributions were published between 1980 and 2010. Of the available literature, 75% of the contributions report only a few taxa. Lakes Vico and Bracciano have high plant diversity, whereas a low number of taxa was reported for Lakes Giulianello, Martignano, and Mezzano. Remarkably, for Bolsena, Europe’s largest volcanic lake, a limited number of taxa was reported. Overall, floristic information on Italian volcanic lakes is fragmentary and often outdated, especially for plants occurring along the shores, suggesting the need for integrative floristic studies to update and supplement this knowledge.
DOI: 10.6084/m9.figshare.29041056.v3
title: A bibliographic review on vascular flora of Italian volcanic lakes

description: Although wetlands cover only a small area worldwide, they are rich reservoirs of biodiversity and provide valuable ecosystem services. Nevertheless, wetlands are severely threatened by human activities that modify their structure and functionality, with serious consequences on native diversity. In such vulnerable environments, it is important to adequately characterize their biodiversity to understand the ongoing processes and enable timely management interventions. This review aims to provide the state of floristic knowledge of Italian volcanic lakes, a major freshwater system in the Mediterranean basin. All relevant botanic literature produced to date on these lakes was collected and evaluated from a multispatial and temporal perspective. In total, 982 taxa of vascular plants, including 99 aliens, were recorded in the literature. Of these, 215 taxa are closely related to the wetland environment, including aquatic and shore habitat. The floristic explorations range discontinuously from the first half of the 19th century to the present, but 75% of the contributions were published between 1980 and 2010. Of the available literature, 75% of the contributions report only a few taxa. Lakes Vico and Bracciano have high plant diversity, whereas a low number of taxa was reported for Lakes Giulianello, Martignano, and Mezzano. Remarkably, for Bolsena, Europe’s largest volcanic lake, a limited number of taxa was reported. Overall, floristic information on Italian volcanic lakes is fragmentary and often outdated, especially for plants occurring along the shores, suggesting the need for integrative floristic studies to update and supplement this knowledge.
DOI: 10.6084/m9.figshare.29467487
title: Organic matter decomposition in Neotropical streams: a comparison of paired catchments with different stressors

description: Functional indicators are valuable tools to assess how human activities affect stream ecosystems. In Neotropical regions, however, our understanding of how anthropogenic stressors influence ecosystem processes such as organic matter (OM) decomposition is still limited. Here, we explored human impacts on OM decomposition in Neotropical streams by comparing a reference and an impacted subcatchment within the same watershed in southeastern Brazil. We used the cotton-strip assay as a standardized proxy for OM decomposition and incubated strips for 41 days under in situ conditions, measuring tensile strength loss and microbial respiration throughout the experiment. Environmental conditions differed markedly between streams: the impacted stream exhibited higher nutrient concentrations (e.g., ammonium, soluble reactive phosphorus, and total phosphorus), higher mean pH (6.52 vs. 5.85), and greater diel temperature amplitude (4.39 vs. 0.89 °C). Decomposition rates (<i>K<sub>d</sub></i>) were significantly higher in the impacted stream (0.0796 d<sup>–1</sup>) than in the reference stream (0.0176 d<sup>–1</sup>), with the largest differences occurring in the first half of the experiment. Respiration rates were similar in the impacted stream and the reference stream, and not statistically different. Our high-resolution temporal sampling (every 2–3 d) allowed us to capture dynamic changes in decomposition over time. These results suggest that human activities alter stream ecosystem functioning through multiple, co-occurring stressors, including temperature, nutrients, and other physicochemical changes, and that high-frequency functional indicators like cotton-strip decomposition can provide valuable insights into the ecological impacts of human pressures in Neotropical freshwater systems.
DOI: 10.6084/m9.figshare.29467487.v1
title: Organic matter decomposition in Neotropical streams: a comparison of paired catchments with different stressors

description: Functional indicators are valuable tools to assess how human activities affect stream ecosystems. In Neotropical regions, however, our understanding of how anthropogenic stressors influence ecosystem processes such as organic matter (OM) decomposition is still limited. Here, we explored human impacts on OM decomposition in Neotropical streams by comparing a reference and an impacted subcatchment within the same watershed in southeastern Brazil. We used the cotton-strip assay as a standardized proxy for OM decomposition and incubated strips for 41 days under in situ conditions, measuring tensile strength loss and microbial respiration throughout the experiment. Environmental conditions differed markedly between streams: the impacted stream exhibited higher nutrient concentrations (e.g., ammonium, soluble reactive phosphorus, and total phosphorus), higher mean pH (6.52 vs. 5.85), and greater diel temperature amplitude (4.39 vs. 0.89 °C). Decomposition rates (<i>K<sub>d</sub></i>) were significantly higher in the impacted stream (0.0796 d<sup>–1</sup>) than in the reference stream (0.0176 d<sup>–1</sup>), with the largest differences occurring in the first half of the experiment. Respiration rates were similar in the impacted stream and the reference stream, and not statistically different. Our high-resolution temporal sampling (every 2–3 d) allowed us to capture dynamic changes in decomposition over time. These results suggest that human activities alter stream ecosystem functioning through multiple, co-occurring stressors, including temperature, nutrients, and other physicochemical changes, and that high-frequency functional indicators like cotton-strip decomposition can provide valuable insights into the ecological impacts of human pressures in Neotropical freshwater systems.
DOI: 10.6084/m9.figshare.28633567
title: Forty years of climatic and human management controls on winter flooding of rice fields in Albufera of Valencia wetland, Spain

description: The structure and ecological functions of wetlands depend on their hydrological regimes, which are influenced by various natural factors such as precipitation, geomorphology, vegetation, and evapotranspiration. However, alterations caused by climate change have a significant impact on these hydrological cycles, one of which is rice cultivation, especially in coastal lagoons. This study analyzes the effect of human management and climate change on the winter flooding of rice fields in the Albufera Natural Park in Valencia (Spain), using 4 decades of Landsat imagery. The Normalized Difference Water Index (NDWI) was used to determine the flooded area and to develop an equation to estimate the flood level, which facilitated the calculation of the flood water volume. A decreasing trend in winter precipitation was associated with climate change as well as a reduction in flooded area not related to precipitation, suggesting a significant influence of human management of the area. Although precipitation affects the amount of water stored in winter, there is no consistent trend over time. The practice of flooding rice fields in winter benefits both agriculture and biodiversity in addition to other activities such as hunting. The results highlight the importance of integrated management involving all stakeholders in the conservation of these ecosystems. Environmental monitoring, with remote sensing as a key tool, is essential for effective and sustainable management of these areas.
DOI: 10.6084/m9.figshare.28633567.v2
title: Forty years of climatic and human management controls on winter flooding of rice fields in Albufera of Valencia wetland, Spain

description: The structure and ecological functions of wetlands depend on their hydrological regimes, which are influenced by various natural factors such as precipitation, geomorphology, vegetation, and evapotranspiration. However, alterations caused by climate change have a significant impact on these hydrological cycles, one of which is rice cultivation, especially in coastal lagoons. This study analyzes the effect of human management and climate change on the winter flooding of rice fields in the Albufera Natural Park in Valencia (Spain), using 4 decades of Landsat imagery. The Normalized Difference Water Index (NDWI) was used to determine the flooded area and to develop an equation to estimate the flood level, which facilitated the calculation of the flood water volume. A decreasing trend in winter precipitation was associated with climate change as well as a reduction in flooded area not related to precipitation, suggesting a significant influence of human management of the area. Although precipitation affects the amount of water stored in winter, there is no consistent trend over time. The practice of flooding rice fields in winter benefits both agriculture and biodiversity in addition to other activities such as hunting. The results highlight the importance of integrated management involving all stakeholders in the conservation of these ecosystems. Environmental monitoring, with remote sensing as a key tool, is essential for effective and sustainable management of these areas.
DOI: 10.6084/m9.figshare.28633567.v1
title: Forty years of climatic and Human Management Controls on Winter Flooding of Rice Fields in Albufera of Valencia wetland, Spain

description: The structure and ecological functions of wetlands depend on their hydrological regimes, which are influenced by various natural factors such as precipitation, geomorphology, vegetation and evapotranspiration. However, alterations caused by climate change have a significant impact on these hydrological cycles. Rice cultivation, especially in coastal lagoons, is also an activity that significantly modifies these cycles. This study analyzes the effect of human management and climate change on the winter flooding of rice fields in the Albufera Natural Park in Valencia (Spain), using four decades of Landsat imagery. The Normalized Difference Water Index (NDWI) was used to determine the flooded area and to develop an equation to estimate the flood level with an Normalized Root Mean Square Error (nRMSE) of 15.39%. The results made it possible to calculate the flooding water volume. A decreasing trend in winter precipitation was associated with climate change, as well as a reduction in flooded area not related to precipitation, suggesting a significant influence of human management of the area. Although precipitation affects the amount of water stored in winter, there is no consistent trend over time. The practice of flooding rice fields in winter benefits both agriculture and biodiversity, in addition to other activities such as hunting. The results underline the importance of integrated management involving all stakeholders in the conservation of these ecosystems. Environmental monitoring, with remote sensing as a key tool, is essential for effective and sustainable management of these areas.