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media)","infrastructureCategory":["Environmental data and information"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:17.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/2252e775-3276-404a-8f0c-c7f980ba3487"],"resourceType":"Science infrastructure","scienceArea":"Water Resources","shortenedDescription":"The purpose of the Historic Drought Inventory is to provide a tool for exploring the information gathered on historical droughts (impacts, responses and so on) as part of the Historic Droughts project.","state":"published","title":"Historic Drought Inventory Explorer (EXCLUDE)","version":1.0,"view":["public","naj"]},{"catalogue":"infrastructure","description":"GWAVA predicts the impacts of humans on future water availability, water quality and damage to river ecosystems.  It operates at monthly or daily timescale and from large basins to global geographic scales.  GWAVA has been applied to global, continental and basin scales across Europe, Africa and Asia for more than 20 years by scientists and water practitioners to: (1) predict water resource availability and water quality; (2) assess the impacts of climate and socio-economic changes; and (3) understand anthropogenic influences and their effects. ","documentType":"infrastructurerecord","identifier":"a1eec9fd-44de-4f34-b817-db8e832b2bd8","incomingCitationCount":0,"infrastructureCapabilities":"GWAVA is a hydrology model used to study changing water resource availability, quality and other impacts driven by human influences.  It uses Fortran code that can be run on multiple operating systems from individual PCs to high-performace computers.  A GWAVA-GUI version of the model provides a basic GWAVA model with a graphical user interface (GUI).  GWAVA combines locally sourced data with global datasets.  A sequence of processes represents interactions between environmental and human water systems, including: (i) surface water and subsurface flow representation; (ii) natural features (eg. lakes, wetlands and glaciers), as well as human interventions such as reservoirs and long-distance transfers; (iii) water demands from household supply, irrigation, livestock and industry; (iv) water quality assessment; and (v) environmental flows assessment.  GWAVA can be run at spatial scales from basins (5 arc minutes) to global (30 arc minutes) and temporal scales from daily to monthly.  It has an autocalibration routine for streamflow with a choice of efficiency metrics.","infrastructureCategory":["Environmental models"],"infrastructureChallenge":["Climate change: adaptation"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:17.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/a1eec9fd-44de-4f34-b817-db8e832b2bd8"],"resourceType":"Science infrastructure","scienceArea":"Water Resources","shortenedDescription":"GWAVA predicts the impacts of humans on future water availability, water quality and damage to river ecosystems.  It operates at monthly or daily timescale and from large basins to global geographic scales.  GWAVA has been applied to global, continental and basin scales...","state":"published","title":"Global Water Availability Assessment Model (GWAVA)","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"MADOC predicts the effects of nitrogen and sulphur deposition (from air pollution) on soil acidity and carbon uptake and/or emissions.  It is used by researchers to project future impacts of, and recovery from, air pollution on ecosystems and ecosystem services, such as: (1) acidification and eutrophication (for Defra); (2) biodiversity (here MADOC is coupled to MultiMOVE: see separate entry); (3) heavy metal solubility and soil concentrations (here MADOC is coupled to IDMM: see separate entry).","documentType":"infrastructurerecord","identifier":"0504a896-a971-41ce-ab67-449bf2b49b80","incomingCitationCount":0,"infrastructureCapabilities":"MADOC is a process model based on observations and understanding of how soil behaves in response to nitrogen and sulphur inputs.   It predicts effects on soil pH (acidity) and dissolved organic carbon flux.  MADOC is a dynamic integration of three component models: the UKCEH N14CP model (see separate entry) to simulate organic matter dynamics; Very Simple Dynamic model (VSD developed by Max Posch of IAASA) to simulate cation exchange; and the UKCEH DyDOC model (Dynamics of Dissolved Organic Carbon developed by Ed Tipping) to simulate dissolved organic carbon flux.  MADOC can be coupled to other models to study impacts on biodiversity (see MultiMOVE entry) and toxic metals (see IDMM entry).","infrastructureCategory":["Environmental models"],"infrastructureChallenge":["Pollution","Climate change: mitigation"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:37.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/0504a896-a971-41ce-ab67-449bf2b49b80"],"resourceType":"Science infrastructure","scienceArea":"Soils and Land Use","shortenedDescription":"MADOC predicts the effects of nitrogen and sulphur deposition (from air pollution) on soil acidity and carbon uptake and/or emissions.  It is used by researchers to project future impacts of, and recovery from, air pollution on ecosystems and ecosystem services, such...","state":"published","title":"Model of Acidity Dynamics and Organic Carbon (MADOC)","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The NanoFASE model predicts the fate and bio-uptake, across space and time, of nanomaterials entering soils, freshwaters, estuaries and waterbed sediments.  It is used to assess pollution risk from nanomaterials entering the environment.","documentType":"infrastructurerecord","identifier":"f5894002-6811-4c52-b55c-2393d6fd66a9","incomingCitationCount":0,"infrastructureCapabilities":"NanoFASE is a water-soil-organism model that predicts the concentration, fate and bio-uptake of nanomaterials entering the soil and aquatic environments across space (up to whole catchments) and time (years to decades, with approx daily timesteps).  It combines empirical data with process-based understanding and works by coupling submodels for environmental compartments (soils, rivers, bed sediments, lakes, estuaries and the sea) then simulating the transport of nanomaterials between these compartments.  The model takes account of the fact that, within each compartment, nanomaterials can transform between different forms and states, and be taken up by the biota present, through processes such as soil erosion, bioturbation, hydrology, sediment dynamics, physical and chemical reactions of nanomaterials (including heteraggregation), dissolution and chemical transformation.  The NanoFASE model must be coupled to a source of data on nanomaterial releases (inputs) either to soils or directly into surface waters.  The model can also be coupled to an atmospheric deposition model to simulate the fate of nanomaterials which were emitted to the atmosphere and subsequently deposited to the land or water surface.","infrastructureCategory":["Environmental models"],"infrastructureChallenge":["Pollution"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-04T11:49:19.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/f5894002-6811-4c52-b55c-2393d6fd66a9"],"resourceType":"Science infrastructure","scienceArea":"Pollution","shortenedDescription":"The NanoFASE model predicts the fate and bio-uptake, across space and time, of nanomaterials entering soils, freshwaters, estuaries and waterbed sediments.  It is used to assess pollution risk from nanomaterials entering the environment.","state":"published","title":"Nanomaterial Fate and Speciation in the Environment (NanoFASE)","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The purpose of the Sand Dune Ecohydrology Network is to monitor the effects of climate change in dune wetlands across Britain.  Dune wetlands are highly biodiverse, but are particularly sensitive to climate change through subtle changes in the balance between rainfall and evapotranspiration.  Groundwater levels in dune systems are a good integrator of climate change, and directly affect vegetation communities and their ecological condition.  For example, the area of dune wetlands on protected sites in England has decreased by 30% in 25 years due to drying out.  This is an instrumented network of co-located groundwater, vegetation and soil monitoring locations in dune wetlands.  The Newborough Dunes site is also used for field experiments.","documentType":"infrastructurerecord","identifier":"f9725fdc-2f20-4469-8164-7de106e4924e","incomingCitationCount":0,"infrastructureCapabilities":"The Sand Dune Ecohydrology Network provides co-located monitoring of groundwater, vegetation and soil at ten dune wetland sites with geographic coverage across the UK.  Groundwater is continuously monitored using automated dataloggers, supplemented with manual monthly measurements.  Vegetation surveys are conducted at varying frequency from annual to 5-yearly or longer.  The Newborough Dunes site also hosts a series of restored dune wetlands, annually monitored since 2014, plus a nitrogen x grazing manipulation experiment: three grazing treatments maintained via 10x10m enclosures (2003 onwards); five nutrient treatments nested within grazing (application period 2003-2011); three replicate blocks.","infrastructureCategory":["Instrumented sites"],"infrastructureChallenge":["Sustainable ecosystems: biodiversity net gain"],"infrastructureClass":["Environmental observatories"],"keyword":["Newborough Warren NNR and forest","Aberffraw dunes","Talacre Warren","Whitford Burrows","Sandscale Haws","Ainsdale & Sefton coast dunes","Braunton Burrows","Sandwich Bay","Tentsmuir","Coll"],"metadataDate":"2025-04-09T09:24:37.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue-staging.ceh.ac.uk/id/5fe5d48d-aded-4256-9e18-ce39c2c5d365","https://catalogue.ceh.ac.uk/id/f9725fdc-2f20-4469-8164-7de106e4924e"],"resourceType":"Science infrastructure","scienceArea":"Soils and Land Use","shortenedDescription":"The purpose of the Sand Dune Ecohydrology Network is to monitor the effects of climate change in dune wetlands across Britain.  Dune wetlands are highly biodiverse, but are particularly sensitive to climate change through subtle changes in the balance between rainfall...","state":"published","title":"Sand Dune Ecohydrology Network","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The purpose of the SUNRISE Flood Frequency Estimation App is to provide a method of flood frequency estimation within the Godavari and Krishna river basins, focusing on Maharashtra state.","documentType":"infrastructurerecord","identifier":"d5d3d389-5921-4aab-9973-87771027d5e4","incomingCitationCount":0,"infrastructureCapabilities":"The SUNRISE Flood Frequency Estimation App is a Shiny app data explorer tool which allows users to select a location, and a flood frequency curve will be shown corresponding to the nearest station, either geographically or downstream along the river network. Along with this are presented key catchment descriptors such as area, aspect and mean annual rainfall.  The flood frequency curve shows the relationship between the rarity of a flood (known as return period), and the amount of flow in a flood (measured in cubic metres per second).","infrastructureCategory":["Environmental data and information"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2026-01-19T16:16:25.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/d5d3d389-5921-4aab-9973-87771027d5e4"],"resourceType":"Science infrastructure","scienceArea":"Hydro-climate Risks","shortenedDescription":"The purpose of the SUNRISE Flood Frequency Estimation App is to provide a method of flood frequency estimation within the Godavari and Krishna river basins, focusing on Maharashtra state.","state":"published","title":"SUNRISE Flood Frequency Estimation App","version":1.0,"view":["public","naj"]},{"catalogue":"infrastructure","description":"The purpose of the Aber experimental exposure facility is to determine the impact of ozone on vegetation such as crops, grassland, heath and small trees.  Ground-level ozone is not only an air pollutant, it is also a greenhouse gas, contributing to global warming.  Background ozone concentrations are rising and average levels are now above thresholds for adverse effects on vegetation (e.g. reduced growth, leaf damage) in many areas of the UK.  The Aber facility enables researchers to study the interactive effects of air pollutants and a changing climate (such as warming, drought and flooding) and to establish critical thresholds and tipping points for ozone effects on vegetation.","documentType":"infrastructurerecord","identifier":"4d86fed7-5e0a-4d45-be7b-b26e682f0aa3","incomingCitationCount":0,"infrastructureCapabilities":"The Aber experimental exposure facility comprises 8 enclosed solardomes and 9 free-air ozone exposure (FAOE) rings.  Each solardome encloses a 4m2 plot of vegetation and is independently controlled, allowing up to 8 different ozone treatments at high precision.   Ambient air is filtered through charcoal and then injected with controlled amounts of ozone, with constant feedback from the points of release.  All domes are ventilated at a rate of two air changes per minute.  Three domes are also equipped to heat or cool the air above or below ambient temperature.  Each FAOE ring surrounds a 13m2 plot of vegetation and uses an automated free-air release system to apply additional ozone to the plot, with varying release rates according to wind speed.  All 9 FAOE rings can receive additional ozone, currently three FAOE rings are exposed to ambient air, whereas the other six rings can be exposed to enhanced levels of ozone.  Temperature, humidity and photosynthetic active radiation are monitored in both systems.","infrastructureCategory":["Controlled environment platforms"],"infrastructureChallenge":["Pollution"],"infrastructureClass":["Environmental experiment platforms"],"infrastructureScale":"Area, city, farm, habitat","metadataDate":"2025-04-09T09:24:17.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue-staging.ceh.ac.uk/id/1ee80206-15fc-46d7-bd10-8a144783aadd","https://catalogue.ceh.ac.uk/id/4d86fed7-5e0a-4d45-be7b-b26e682f0aa3"],"resourceType":"Science infrastructure","scienceArea":"Soils and Land Use","shortenedDescription":"The purpose of the Aber experimental exposure facility is to determine the impact of ozone on vegetation such as crops, grassland, heath and small trees.  Ground-level ozone is not only an air pollutant, it is also a greenhouse gas, contributing to global warming. ...","state":"published","title":"Ozone Pollution and Climate Change Exposure Facility (Aber Solardomes)","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The purpose of the Biological Record Centre is to work in partnership with more than 100 recording schemes and societies, providing a national capability to support and encourage biological recording for a wide range of plant and animal groups, improving how data is collected, made available and used. \n","documentType":"infrastructurerecord","identifier":"2c3f4b2a-b366-4da8-9bd7-7a1e40b451cb","incomingCitationCount":0,"infrastructureCapabilities":"BRC helps the recording community to publish atlases, data and other online resources to provide essential information which informs research, policy and the conservation of our heritage of wildlife. As part of this work we provide website hosting and development support.  The BRC applies innovative use of technology and science excellence to help harness the enthusiasm and knowledge of naturalists, and enable them to collate and analyse their records.","infrastructureCategory":["Environmental data and information"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:48.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/2c3f4b2a-b366-4da8-9bd7-7a1e40b451cb"],"resourceType":"Science infrastructure","scienceArea":"Biodiversity","shortenedDescription":"The purpose of the Biological Record Centre is to work in partnership with more than 100 recording schemes and societies, providing a national capability to support and encourage biological recording for a wide range of plant and animal groups, improving how data is...","state":"published","title":"Biological Records Centre (BRC)","version":1.0,"view":["public","naj"]},{"catalogue":"infrastructure","description":"The purpose of the Ammonia Capture using Trees is to provide guidance for farmers, planners and tree planters, to maximize the benefits of planting tree shelterbelts for ammonia recapture","documentType":"infrastructurerecord","identifier":"99e6649f-fdb4-4085-901d-bb3ce91da088","incomingCitationCount":0,"infrastructureCapabilities":"Ammonia Capture using Trees is a web-based data explorer.  It allows users to enter a British National Grid reference or select a location from an interactive map, and choose soil type, main canopy and backstop canopy.  This includes information on a number of important aspects of planting, such as recommended planting distances and configurations, which species are better at ammonia capture, and other aspects of design. New planting for this purpose can optimize potential benefits and units located near existing woodland can be situated to capitalize on potential benefits.","infrastructureCategory":["Environmental data and information"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:17.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/99e6649f-fdb4-4085-901d-bb3ce91da088"],"resourceType":"Science infrastructure","scienceArea":"Atmospheric Chemistry and Effects","shortenedDescription":"The purpose of the Ammonia Capture using Trees is to provide guidance for farmers, planners and tree planters, to maximize the benefits of planting tree shelterbelts for ammonia recapture","state":"published","title":"Ammonia Capture using Trees","version":1.0,"view":["public","naj"]},{"catalogue":"infrastructure","description":"The Air Quality Equipment Testing facility at Edinburgh Bush Station has three purposes: (1) to conduct atmospheric research; (2) to conduct atmospheric monitoring as part of wider networks of monitoring stations: Defra Automatic Urban and Rural Network (AURN) and SEPA flood monitoring network; (3) to test and calibrate atmospheric chemistry analysers (Thermos, Picarros, MARGAs etc).","documentType":"infrastructurerecord","identifier":"385d892f-475f-49da-a25e-86c867a44fc3","incomingCitationCount":0,"infrastructureCapabilities":"The Edinburgh Bush station including cabins are equipped for Air Quality Equipment Testing: 10m meteorological mast; manifold for atmospheric composition; calibrators and atmospheric composition instruments; storage; plus outdoor area for instrumentation testing.","infrastructureCategory":["Test labs"],"infrastructureChallenge":["Pollution"],"infrastructureClass":["Analytical facilities"],"metadataDate":"2025-04-09T09:24:17.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue-staging.ceh.ac.uk/id/3836aa0d-05cf-4a18-abc4-d9867e762432","https://catalogue.ceh.ac.uk/id/385d892f-475f-49da-a25e-86c867a44fc3"],"resourceType":"Science infrastructure","scienceArea":"Atmospheric Chemistry and Effects","shortenedDescription":"The Air Quality Equipment Testing facility at Edinburgh Bush Station has three purposes: (1) to conduct atmospheric research; (2) to conduct atmospheric monitoring as part of wider networks of monitoring stations: Defra Automatic Urban and Rural Network (AURN) and SEPA...","state":"published","title":"Air Quality Equipment Testing : Edinburgh Bush Cabins","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"EMEP4UK provides UK atmospheric chemistry forecasts, linked to weather forecasts, to predict the transport and deposit of pollutants carried by air.  It is used by weather and pollution forecasters, government agencies and researchers to monitor air pollution risks. ","documentType":"infrastructurerecord","identifier":"9ae81c6b-fb6b-40b9-b9bf-5294a8b04b61","incomingCitationCount":0,"infrastructureCapabilities":"EMEP4UK is an atmospheric chemistry transport model (ACTM) that uses process understanding to simulate and predict atmospheric composition, transport and deposition (dry and wet) of pollutants, including: particulate matter (PM10, PM2.5); seondary organic aerosols (SOA); secondary inorganic aerosols (SIA); elemental carbon (EC); sulphur dioxide (SO2); ammonia (NH3); nitorogen oxides (NOx) and ozone O3).  It models surface and 3D concentrations of pollutants for the UK with horizontal resolutions from 1km to 100km (typically 3x3km2 grid) at hourly intervals (and can calculate annual averages).  The Weather Research Forecast Model (WRF) is used to calculate the required meteorological input data for the ACTM.","infrastructureCategory":["Environmental models"],"infrastructureChallenge":["Pollution"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:49.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/9ae81c6b-fb6b-40b9-b9bf-5294a8b04b61"],"resourceType":"Science infrastructure","scienceArea":"Atmospheric Chemistry and Effects","shortenedDescription":"EMEP4UK provides UK atmospheric chemistry forecasts, linked to weather forecasts, to predict the transport and deposit of pollutants carried by air.  It is used by weather and pollution forecasters, government agencies and researchers to monitor air pollution risks....","state":"published","title":"European Monitoring and Evaluation Programme (EMEP4UK) UK arm of the Meteorological Synthesizing Centre-West (MSC-W)","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The purpose of the Molecular Biology Laboratories is to perform genetic analysis to identify and understand species, communities and ecological interactions - including microbial functional processes - in freshwater and terrestrial habitats.  The labs provide continuity of analyses to UKCEH's long term-projects, advice to colleagues and training and support to PhD students.","documentType":"infrastructurerecord","identifier":"1f9348fa-260a-4691-83bc-04264766c78c","incomingCitationCount":0,"infrastructureCapabilities":"The Molecular Biology Labs host a team of dedicated laboratory and data analysts who perform DNA sequencing and associated cell and ecosystem function methodologies.  We conduct high-throughput DNA sequencing and computational analysis on a range of different matrices, including water, soils, animals, animal products and plants.  Our laboratories are equipped for: (1) DNA extraction; (2) DNA amplification and quantification (in a dedicated clean PCR laboratory); (3) DNA sequencing; (4) Cellular analysis using flow cytometry and flow cytometric cell sorting; (5) Analysis of microbial function using extracellular enzyme assays and respirometry; and (6) Microbiology culturing in Class II laboratories.  Genomic data analysis is performed on in-house bioinformatic data servers.","infrastructureCategory":["Analysis labs"],"infrastructureChallenge":["Sustainable ecosystems: biodiversity net gain"],"infrastructureClass":["Analytical facilities"],"metadataDate":"2025-04-09T09:24:49.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue-staging.ceh.ac.uk/id/fbb77e0f-aded-4a91-9524-cd392ace5f70","https://catalogue.ceh.ac.uk/id/1f9348fa-260a-4691-83bc-04264766c78c"],"resourceType":"Science infrastructure","scienceArea":"Soils and Land Use","shortenedDescription":"The purpose of the Molecular Biology Laboratories is to perform genetic analysis to identify and understand species, communities and ecological interactions - including microbial functional processes - in freshwater and terrestrial habitats.  The labs provide continuity...","state":"published","title":"Molecular Biology Laboratories","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"CAMPS predicts the effects of heavy metal, nitrogen and sulphur pollution on soils and soil water.  It is used by researchers to understand and predict the behaviour of toxic, acidifiying and eutrophying (excess nutrient) pollutants in and through the soil-water environment.  It is currently being used to assess implications of different human development pathways (SSPs) for concentrations of toxic pollutants in UK ecosystems.","documentType":"infrastructurerecord","identifier":"305494c9-535f-4cc7-83c1-ac253275e758","incomingCitationCount":0,"infrastructureCapabilities":"CAMPS is a model chain that predicts the effects of toxic, acidifiying and eutrophying pollutants (through deposition of metals, nitrogen and suphur) on soils and soil water leachate, ie: pH; dissolved organic carbon fluxes; and heavy metal concentrations (stocks and flows).  It is a point model that has been upscaled to run the UK on a 1 x 1 km grid.  CAMPS consists of the IDMM model (see separate entry) driven by the MADOC model (see separate entry) which is part of the N14CP family (see separate entry). ","infrastructureCategory":["Environmental models"],"infrastructureChallenge":["Pollution"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:27.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/305494c9-535f-4cc7-83c1-ac253275e758"],"resourceType":"Science infrastructure","scienceArea":"Soils and Land Use","shortenedDescription":"CAMPS predicts the effects of heavy metal, nitrogen and sulphur pollution on soils and soil water.  It is used by researchers to understand and predict the behaviour of toxic, acidifiying and eutrophying (excess nutrient) pollutants in and through the soil-water environment....","state":"published","title":"Carbon and Acidity effects on Metal Processing in Soil (CAMPS)","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The purpose of the Drought Data Hub is to provide a simple, visual summary of the data outputs from the About Drought projects.  The data can be viewed as gridded or point data on a map of the UK.  ","documentType":"infrastructurerecord","identifier":"fd21c328-dd53-4a07-bd8e-c9a4bb58a4ee","incomingCitationCount":0,"infrastructureCapabilities":"The Drought Data Hub enables visualisation of gridded and point drought-related data for research purposes. A dataset can be viewed on the map and a timeseries can be visualised on a graph. Historical simulations of DECIPHeR, GR4J and G2G models can also be visualised. Climate model-driven simulations of the MaRIUS-G2G-WAH2 monthly mean river flow data is also available.","infrastructureCategory":["Environmental data and information"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:47.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/fd21c328-dd53-4a07-bd8e-c9a4bb58a4ee"],"resourceType":"Science infrastructure","scienceArea":"Water Resources","shortenedDescription":"The purpose of the Drought Data Hub is to provide a simple, visual summary of the data outputs from the About Drought projects.  The data can be viewed as gridded or point data on a map of the UK.  ","state":"published","title":"Drought Data Hub","version":1.0,"view":["public","naj"]},{"catalogue":"infrastructure","description":"The purpose of the Fish Tissue Archive is to preserve biological samples collected from known locations and dates by the National Fish Monitoring Scheme, which can then be used for future analysis and research.","documentType":"infrastructurerecord","identifier":"d2b37b19-868a-4512-a5c9-23245ff49f0a","incomingCitationCount":0,"infrastructureCapabilities":"The Fish Tissue Archive holds more than 2,200 samples collected annually from several English rivers: mainly roach, together with data on their time and place of collection plus weight and length.  Most samples are of whole fish, frozen at -80°C, and some have been homogenised by cryogrinding.  Annual collection was interrupted in 2020/21 due to the COVID pandemic.  Approximately 10% of samples have already been analysed for one or more groups of pollutants generally using a homogenised subsample, but for a small number the whole sample had to be used.","infrastructureCategory":["Discovery collections"],"infrastructureChallenge":["Pollution"],"infrastructureClass":["Environmental observatories"],"metadataDate":"2025-04-09T09:24:17.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue-staging.ceh.ac.uk/id/8b815296-892b-42a9-96a8-cd7d842613ef","https://catalogue.ceh.ac.uk/id/d2b37b19-868a-4512-a5c9-23245ff49f0a"],"resourceType":"Science infrastructure","scienceArea":"Pollution","shortenedDescription":"The purpose of the Fish Tissue Archive is to preserve biological samples collected from known locations and dates by the National Fish Monitoring Scheme, which can then be used for future analysis and research.","state":"published","title":"Fish Tissue Archive","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The purpose of the ASSET tool is to explore the impacts of potential changes in the way we use the UK countryside. It can be used to compare the ways in which future changes in the types of land we have (e.g. farmland, grassland, forest) and the way we use them (e.g. which crops we grow, what we use our forests for) might affect society and the environment.  ASSET was built to explore scenarios of future changes at broad national and regional scales. Scenarios are plausible storylines about the future - rather than attempting to predict exactly what will happen, the aim of scenarios is to better understand the range of potential outcomes and trade-offs between different responses. This is important for informing people about the impacts of possible changes and contributes to develop management strategies and policies.","documentType":"infrastructurerecord","identifier":"496b58ce-b3aa-49ff-8a25-034f77eab97f","incomingCitationCount":0,"infrastructureCapabilities":"The ASSET tool is a web-based data explorer which works by building new scenarios of land cover and land use and then modelling their impacts on a series of environmental outcomes.  There are also information icons within ASSET which you can use to help you understand what’s what. For further information, we've summarised what the different land cover and crop scenarios mean and given some detail for each of the different variables modelled under ASSET. ","infrastructureCategory":["Environmental data and information"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:16.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/496b58ce-b3aa-49ff-8a25-034f77eab97f"],"resourceType":"Science infrastructure","scienceArea":"Biodiversity","shortenedDescription":"The purpose of the ASSET tool is to explore the impacts of potential changes in the way we use the UK countryside. It can be used to compare the ways in which future changes in the types of land we have (e.g. farmland, grassland, forest) and the way we use them (e.g....","state":"published","title":"ASSIST senario exploration tool (ASSET)","version":1.0,"view":["public","naj"]},{"catalogue":"infrastructure","description":"The purpose of the NHMP is to provide an authoritative voice on hydrological conditions across the UK, to place them in a historical context and, over time, identify and interpret any emerging hydrological trends","documentType":"infrastructurerecord","identifier":"e6f4cba5-9a14-476f-a07c-c7a523293f2c","incomingCitationCount":0,"infrastructureCapabilities":"Produces monthly Hydrological Summaries for the UK: This regular report describes the hydrological conditions during the preceding month, using the data holdings of the National River Flow Archive (maintained by UKCEH) and National Groundwater Level Archive (maintained by BGS). Focusing on rainfall, river flows, groundwater levels, soil moisture (using both Met Office and COSMOS-UK data) and reservoir stocks, it places the events of each month, and the conditions at the end of the month, in a historical context.  \nIt also produces blog posts, journal papers and occasional reports for particular drought and flood events, and undertakes trend assessments (e.g. assessing whether river flows or extreme events are changing over time).","infrastructureCategory":["Environmental data and information"],"infrastructureChallenge":["Climate change: adaptation"],"infrastructureClass":["Digital infrastructures"],"metadataDate":"2025-04-09T09:24:56.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue.ceh.ac.uk/id/e6f4cba5-9a14-476f-a07c-c7a523293f2c"],"resourceType":"Science infrastructure","scienceArea":"Water Resources","shortenedDescription":"The purpose of the NHMP is to provide an authoritative voice on hydrological conditions across the UK, to place them in a historical context and, over time, identify and interpret any emerging hydrological trends","state":"published","title":"National Hydrological Monitoring Programme (NHMP)","version":1.0,"view":["public","naj"]},{"catalogue":"infrastructure","description":"The purpose of these two boats (an ARCboat and an ARCboatlite) is to enable safe, remotely controlled measurements of river flow, bathymetry and water quality.","documentType":"infrastructurerecord","identifier":"1b7a151f-754c-4b13-a0ad-cf1051e4c4d9","incomingCitationCount":0,"infrastructureCapabilities":"The ARCboat and ARCboatlite are remote controlled boats that are used to collect lake, river and estuarine data such as discharge, depth, bathymetry and water quality. Both boats can be equipped with a Sontek M9 Acoustic Doppler Current Profiler (ADCP) and differential GPS, a Single Beam Echo Sounder, or a RDI Rio Grande ADCP and differential GPS. Other equipment can be deployed as required, including multi-parameter water quality sondes (YSI EXO for example).","infrastructureCategory":["Mobile observing platforms"],"infrastructureChallenge":["Pollution","Sustainable ecosystems: biodiversity net gain"],"infrastructureClass":["Environmental observatories"],"metadataDate":"2025-04-04T11:52:12.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue-staging.ceh.ac.uk/id/b9aefcef-6bfe-4355-95a3-eb8206757c92","https://catalogue.ceh.ac.uk/id/1b7a151f-754c-4b13-a0ad-cf1051e4c4d9"],"resourceType":"Science infrastructure","scienceArea":"Hydro-climate Risks","shortenedDescription":"The purpose of these two boats (an ARCboat and an ARCboatlite) is to enable safe, remotely controlled measurements of river flow, bathymetry and water quality.","state":"published","title":"Research Boats: remote controlled","version":1.0,"view":["public","phtr"]},{"catalogue":"infrastructure","description":"The purpose of the UK-SCAPE Digital Assets Catalogue (UK-SCAPE DAC) it to provide information about and access to the datasets, data papers, models and other data products generated by the UK-SCAPE programme.  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Originally established as the UK Acid Waters Monitoring Network to assess the ecological impact of acid emissions on acid-sensitive surface waters around the UK, the Upland Water Monitoring Network now has a broader remit to address other potential drivers of change in upland headwater systems, particularly nitrogen deposition (causing eutrophication), climate change and land use change.  UWMN provides the UK contribution to the UNECE International Cooperative Programme ICP Waters.","documentType":"infrastructurerecord","identifier":"0d588453-31ab-4eeb-91a1-cf9cd2a9f387","incomingCitationCount":0,"infrastructureCapabilities":"The Upland Waters Monitoring Network covers 11 lakes and 14 streams across the UK.  UWMN conducts chemical, physical and biological monitoring including: monthly and quarterly sampling for water chemistry; continuous monitoring of water temperature (using thermistor loggers); and a range of biological surveys (yearly for epilithic and sediment trap diatoms and macroinvertebrates; and three-yearly for aquatic macrophytes).  UWMN is closely aligned with other specialist long-term UKCEH upland water monitoring activities, particularly the Conwy and Plynlimon Research Catchments.","infrastructureCategory":["Instrumented sites"],"infrastructureChallenge":["Pollution"],"infrastructureClass":["Environmental observatories"],"infrastructureScale":"UK","metadataDate":"2025-04-09T09:24:37.000Z","recordType":"Science infrastructure","resourceIdentifier":["https://catalogue-staging.ceh.ac.uk/id/9f35435c-9320-4cd8-874d-7dd503aa7797","https://catalogue.ceh.ac.uk/id/0d588453-31ab-4eeb-91a1-cf9cd2a9f387"],"resourceType":"Science infrastructure","scienceArea":"Water Resources","shortenedDescription":"The purpose of the Upland Waters Monitoring Network (UWMN) is to monitor water quality and biodiversity in upland water bodies threatened by air pollution, climate change and land use change.  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