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Wetlands are highly valued and significant ecosystems with a large range of services and functions. To help manage and protect them, it is important to map and monitor their spatial extent and condition. However, wetlands have not yet been comprehensively and reliably mapped at the national level, although elements for mapping national coverage exist in two of our national databases: Waters of National Importance (WONI), and the New Zealand Land Cover Database (LCDB). The extent of freshwater wetlands in WONI was derived by identifying all types of freshwater wetlands, excluding inland saline. The extent of freshwater wetlands in the LCDB was derived by identifying areas with either a wet context, herbaceous freshwater vegetation, or flax. We then combined identified freshwater wetlands from the two databases recognising the superior boundary delineation of LCDB and the superior wetland detection of WONI. The current spatial extent of freshwater wetlands in New Zealand is now calculated at 249,214 ha, or 10.08% of the historical extent, rather than the 7.4% reported by LCDB5 alone. This is at least 5,954 ha less than that in 1996. The revised extent of freshwater wetlands is an improvement over either WONI or LCDB because it now includes a more comprehensive set of wetlands over 0.5 ha in area with well-defined boundaries. However, the revised extent does not include small wetlands less than 0.5 ha in area. While adding little to the total area of wetlands in New Zealand, small wetlands have significant ecological value. The National Policy Statement for Freshwater Management mandates the national mapping of the small wetlands down to 0.05 ha, but we suggest their ecological value be considered in land use change decisions only, thereby avoiding the excessive cost of mapping many millions of small wetlands.
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This dataset was developed to understand the nutrient content of the commonly consumed foods in New Zealand.
References
Last update: 12 September 2020
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Land Environments of New Zealand (LENZ) is a classification of fifteen climate, landform, and soil variables chosen for their relevance to biological distributions. Classification groups were derived by automatic classification using a multivariate procedure. Four levels of classification detail have been produced from this analysis, containing 20, 100, 200, and 500 groups respectively. More information is available from the LENZ web site: http://www.landcareresearch.co.nz/databases/lenz/
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Analytical tools and databases that use predictive microbiology to support safe water and/or safe sanitation systems.
https://data.mfe.govt.nz/license/attribution-3-0-new-zealand/https://data.mfe.govt.nz/license/attribution-3-0-new-zealand/
Land Environments of New Zealand (LENZ) is a classification of fifteen climate, landform, and soil variables chosen for their relevance to biological distributions. Classification groups were derived by automatic classification using a multivariate procedure. Four levels of classification detail have been produced from this analysis, containing 20, 100, 200, and 500 groups respectively. More information is available from the LENZ web site: http://www.landcareresearch.co.nz/databases/lenz/
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This dataset contains major outputs of a study on collaboration links between all New Zealand universities based on Scopus publications within 2010-2015. For more details about the study, one may refer toSamin Aref, David Friggens, and Shaun Hendy. 2018. Analysing Scientific Collaborations of New Zealand Institutions using Scopus Bibliometric Data. In Proceedings of ACSW 2018: Australasian Computer Science Week 2018, January 29-February 2, 2018, Brisbane, QLD, Australia, 10 pages.
https://doi.org/10.1145/3167918.3167920The number of collaboration records of 15 New Zealand universities and crown research institutes (government-funded research centres) are categorised based on the type of collaborator (business enterprise, government, higher education, and private not-for-profit) and the subject of publication venue and provided as a CSV file.New Zealand scientific collaboration network is provided in 3 formats: .gephi, .graphml, and an edge list in .csv format7 Induced subgraphs of the network are also provided. Each induced subgraph (ego network) represents the collaborators network of a crown research institute. Two formats are provided: .gephi and .graphml.Please cite the research paper (doi: 10.1145/3167918.3167920) as well as this Figshare dataset (doi 10.6084/m9.figshare.5705167) when using the data.ACKNOWLEDGMENTSAndrew Marriott and Sam Holmes at Ministry of Business Innovation & Employment (MBIE) performed much of the work classifying New Zealand institutions. The first author would like to thank Peter Ellis and Franz Smith for their support.
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A summary of water quality models in use around the globe (not exhaustive).
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This repository contains the data generated in and some data from the FDHI database (Sarmiento et al., 2021) required to run the scripts used in our publication "The effect of fault geometrical complexity on surface rupture length".
Table of contents:
File/directory | File type | Notes | References (if applicable) |
geometrical_complexity_shapefiles_v1.zip | Shapefiles |
Shapefiles for the breached and unbreached geometrical features in Rodriguez Padilla et al. 202X. The name of each file is the geometrical feature, followed by whether the feature is breached or unbreached, followed by the name of the event the feature was mapped from. Example: stepover_breached_Borrego.shp Note some shapefiles are empty because that feature type was not observed for a given event. |
Rodriguez Padilla et al. (202X) Sarmiento et al. (2021) https://www.risksciences.ucla.edu/nhr3/fdhi/databases |
Regional_maps.zip | Shapefiles | Shapefiles for each regional fault map (Qfaults for US, NZAFD for New Zealand, AFEAD for Asia and the Middle East, and GEM for remaining regions) | USGS and CGS, Langridge et al. (2016), Bachmanov et al. (2021), Styron and Pagani (2020) |
event_rupture_shp.zip | Shapefiles | Shapefiles with the primary ruptures for each of the events as mapped in the FDHI database |
Sarmiento et al. (2021) https://www.risksciences.ucla.edu/nhr3/fdhi/databases |
data_FDHI.xlsx | Spreadhsheet | Event information, including magnitude, date, displacement distribution, etc. from the FDHI database. The data that is compiled in the spreadsheet can be accessed from the appendices of the FDHI database. |
Sarmiento et al. (2021) |
reflines_FDHI.zip | Shapefiles |
ECS reference lines for each event from the FDHI database (Sarmiento et al., 2021) in shapefile format |
Sarmiento et al. (2021) |
geometries.csv | Spreadsheet |
Feature geometries, including lengths, widths, angles, and other measured attributes, generated using the Matlab code measure_EQgates.m in Github repository https://github.com/absrp/passing_probabilities_EQgates This csv file also serves as the input for the Jupyter Notebook for estimating passing probabilities and event likelihoods. | Rodriguez Padilla et al. (202X) |
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Summary of key microbial water quality databasesa.
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The traits of organisms provide critical information for understanding changes in biodiversity and ecosystem function at large scales. In recent years, trait databases of macroinvertebrates have been developed across continents. Anyone using different databases to search for traits will encounter a series of problems that lead to uncertain results due to the inconsistency of the trait information. For example, traits for a particular macroinvertebrate taxon may be inconsistent across databases, coded in inconsistent ways, or cannot be found. However, most of the current studies do not clearly state their solutions, which seriously hinders the accuracy and comparability of global trait studies. To solve these problems, we collected representative databases from several continents, including the United States, Europe, South Africa, Bolivia, Australia, and New Zealand. By comparing the inconsistency of similar trait classifications in the nine databases, we harmonized 41 of these grouping features. We found that these databases differed widely in terms of the range and category of traits. And the method of coding traits also varies from database to database. Moreover, we showed a set of trait searching rules that integrate trait databases from different regions of the world, allowing traits to be identified more easily and uniformly using different trait databases worldwide. We also applied this method to determine the traits of 155 macroinvertebrate taxa in the Three Parallel Rivers Region (TPRR). The results showed that among a total of 155 macroinvertebrate taxa, the 41 grouping features of all genera were not fully identified, and 32 genera were not recorded (thus using family-level data). No trait information was found at all for two families, which contain two genera. This suggests that many macroinvertebrate taxa and their traits have not been fully studied, especially in those regions, including China, where macroinvertebrate trait studies are lagging. This inadequacy and unevenness have seriously hindered the study and development of macroinvertebrate trait and functional diversity worldwide. Our results complement the information on stream macroinvertebrate traits in the TPRR, a global biodiversity hotspot, and greatly promote the uniformity of global trait research and the accuracy and comparability of trait research in different regions.
The Rafter Radiocarbon Databases and Archive contain radiocarbon submission, treatment and measurement data spanning 70 years.
The Rafter Radiocarbon Lab manages the digital databases, paper records and physical remains of submitted materials. All ~60,000 results reported by our laboratory since 1951 are digitised and available on request.
Most gas counting results were reported prior to the implementation of the current radiocarbon reporting conventions and therefore we strongly recommend that users of our gas counting results contact us to obtain recalculated results that follow the current reporting conventions.
For early samples, details of sample provenance and preparation are archived as paper records and access to these may incur a charge.
AMS results can usually only be provided with permission of the original submitter. Full details are available digitally with permission.
Contact radiocarbon@gns.cri.nz for data access.
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The traits of organisms provide critical information for understanding changes in biodiversity and ecosystem function at large scales. In recent years, trait databases of macroinvertebrates have been developed across continents. Anyone using different databases to search for traits will encounter a series of problems that lead to uncertain results due to the inconsistency of the trait information. For example, traits for a particular macroinvertebrate taxon may be inconsistent across databases, coded in inconsistent ways, or cannot be found. However, most of the current studies do not clearly state their solutions, which seriously hinders the accuracy and comparability of global trait studies. To solve these problems, we collected representative databases from several continents, including the United States, Europe, South Africa, Bolivia, Australia, and New Zealand. By comparing the inconsistency of similar trait classifications in the nine databases, we harmonized 41 of these grouping features. We found that these databases differed widely in terms of the range and category of traits. And the method of coding traits also varies from database to database. Moreover, we showed a set of trait searching rules that integrate trait databases from different regions of the world, allowing traits to be identified more easily and uniformly using different trait databases worldwide. We also applied this method to determine the traits of 155 macroinvertebrate taxa in the Three Parallel Rivers Region (TPRR). The results showed that among a total of 155 macroinvertebrate taxa, the 41 grouping features of all genera were not fully identified, and 32 genera were not recorded (thus using family-level data). No trait information was found at all for two families, which contain two genera. This suggests that many macroinvertebrate taxa and their traits have not been fully studied, especially in those regions, including China, where macroinvertebrate trait studies are lagging. This inadequacy and unevenness have seriously hindered the study and development of macroinvertebrate trait and functional diversity worldwide. Our results complement the information on stream macroinvertebrate traits in the TPRR, a global biodiversity hotspot, and greatly promote the uniformity of global trait research and the accuracy and comparability of trait research in different regions.
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Overall percentage of products permitted and not permitted under each category of brands.
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BackgroundSelf-harm and suicide behaviours are a major public health concern. Several factors are associated with these behaviours among military communities. Identifying these factors may have important implications for policy and clinical services. The aim of this review was to identify the risk and protective factors associated with self-harm and suicide behaviours among serving and ex-serving personnel of the United Kingdom Armed Forces, Canadian Armed Forces, Australian Defence Force and New Zealand Defence Force.MethodsA systematic search of seven online databases (PubMed, Web of Science, Embase, Global Health, PsycINFO, PTSDpubs and CINAHL) was conducted alongside cross-referencing, in October 2022. Following an a priori PROSPERO approved protocol (CRD42022348867), papers were independently screened and assessed for quality. Data were synthesised using a narrative approach.ResultsOverall, 28 papers were included: 13 from Canada, 10 from the United Kingdom, five from Australia and none from New Zealand. Identified risk factors included being single/ex-relationship, early service leavers, shorter length of service (but not necessarily early service leavers), junior ranks, exposure to deployment-related traumatic events, physical and mental health diagnoses, and experience of childhood adversity. Protective factors included being married/in a relationship, higher educational attainment, employment, senior ranks, and higher levels of perceived social support.ConclusionAdequate care and support are a necessity for the military community. Prevention and intervention strategies for self-harm and suicide behaviours may be introduced early and may promote social networks as a key source of support. This review found a paucity of peer-reviewed research within some populations. More peer-reviewed research is needed, particularly among these populations where current work is limited, and regarding modifiable risk and protective factors.
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Applying a threshold of brands permitted to be marketed.
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Risk and Protective Factors Identified in Included Studies (N = 28).
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Midwifery continuity of care: Where, how, by whom and for whom by income level.
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Initiatives for women, newborns and families with risk of adverse outcomes by country.
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Methodological characterization of selected studies.
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Midwifery continuity of care publications by country.
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Wetlands are highly valued and significant ecosystems with a large range of services and functions. To help manage and protect them, it is important to map and monitor their spatial extent and condition. However, wetlands have not yet been comprehensively and reliably mapped at the national level, although elements for mapping national coverage exist in two of our national databases: Waters of National Importance (WONI), and the New Zealand Land Cover Database (LCDB). The extent of freshwater wetlands in WONI was derived by identifying all types of freshwater wetlands, excluding inland saline. The extent of freshwater wetlands in the LCDB was derived by identifying areas with either a wet context, herbaceous freshwater vegetation, or flax. We then combined identified freshwater wetlands from the two databases recognising the superior boundary delineation of LCDB and the superior wetland detection of WONI. The current spatial extent of freshwater wetlands in New Zealand is now calculated at 249,214 ha, or 10.08% of the historical extent, rather than the 7.4% reported by LCDB5 alone. This is at least 5,954 ha less than that in 1996. The revised extent of freshwater wetlands is an improvement over either WONI or LCDB because it now includes a more comprehensive set of wetlands over 0.5 ha in area with well-defined boundaries. However, the revised extent does not include small wetlands less than 0.5 ha in area. While adding little to the total area of wetlands in New Zealand, small wetlands have significant ecological value. The National Policy Statement for Freshwater Management mandates the national mapping of the small wetlands down to 0.05 ha, but we suggest their ecological value be considered in land use change decisions only, thereby avoiding the excessive cost of mapping many millions of small wetlands.