Point geodatabase with a record for each well report in Ecology's. Points are located by quarter quarter section centroid. Points contain all well report types including water wells, resource protection wells, and decommissioned wells.

This dataset is part of the Washington Geological Survey's (WGS) delivery to the National Groundwater Monitoring Network (NGWMN). It contains well construction data for wells submitted the NGWMN.

These data contain basic information describing well logs and compiled by the Washington Division of Geology and Earth Resources, published by the AZGS as a downloadable file, ESRI Service, Web Map Service, and as a Web Feature service for the National Geothermal Data System. The documents contain 9 worksheets, including information about the template, notes related to revisions of the template, Resource provider information, the data, a field list (data mapping view) and a worksheet with vocabularies for use in populating the spreadsheet (data valid terms). Data from 80,782 total well logs are included. Fields in the data table include Well Name, API Number, Ended Drilling Date, Well Type, Bottom Logged Interval,and Log Notes.

This dataset is part of the Washington Geological Survey's (WGS) delivery to the National Groundwater Monitoring Network (NGWMN). It contains well lithology data for wells submitted the NGWMN.

As part of a U.S. Geological Survey Groundwater Resources Program study, a three-dimensional geologic model was constructed for approximately 53,000 square miles of the Columbia Plateau in Idaho, Oregon, and Washington. This model was constructed to define the general aquifer system geometry for use in a regional numerical groundwater flow model. Simplifications and assumptions consistent with this ultimate goal and with the uncertainty in the available data were made. The model units consist of Miocene-age Columbia River Basalt Group strata and younger sedimentary overburden covering approximately 44,000 square miles. Data were compiled from numerous databases and detailed studies that were completed during the past three decades. These data include stratigraphic interpretations of more than 13,000 wells and a contiguous compilation of surficial geology and structural features in the study area. These data were simplified and used to construct piecewise-smooth trend surfaces that represent upper and lower subsurface model unit boundaries in this complex folded and faulted terrain. The smoothness of the surfaces implicitly represents uncertainty in prediction of each surface resulting from data gaps, errors in borehole interpretations, errors in mapped contact locations, and uncertainty in the shape of the paleosurface upon which flood basalts were emplaced. Surfaces were recombined using a rule-based algorithm to construct a fully three-dimensional model with a 500-foot grid resolution that is consistent with the data and for which error estimates may be made. The modeling process yielded improved estimates of unit volumes, refinement of location of large structural features, and identification of features that may be important for ongoing groundwater studies.

This resource is a metadata compilation for geothermal related resource records in data exchange content models submitted by Washington as their deliverables under the AASG NGDS project (2010-2014) for inclusion in the NGDS Catalog. The content model defines the information that will be associated with a feature or observation type; the content model may be implemented in a variety of ways, but USGIN is currently implementing these interchange formats as GML Simple Features to be served by an OGC WFS. Data is available in an Excel workbook, ESRI Map Server, Web Map Service, and Web Feature Service with appropriate ResourceURLs listed for each record.

SINGLE-TOPIC MAPS The Portal can be complex, so we've made several single-topic maps to simplify things. Seismic Scenarios CatalogInteractive map provides loss estimates for a suite of earthquake scenarios on various faults. Each of the twenty scenarios has additional Hazus and Summary reports for viewing or download.Layers generally include: projected damage to buildings and infrastructureinjuries and fatalitiesdisplaced householdsbuilding economic lossstatistical population information Natural HazardsNatural hazards interactive map showing information relating to faults, landslides, earthquakes, tsunamis, and volcanoes. Ideal for homeowners.Layers include: seismogenic features (faults and earthquakes)landslides ground response to earthquakes tsunami evacuation tsunami inundationvolcano hazardsnaturally occurring hazardous mineralsradonseismic scenarioscoal mine maps and locations Tsunami Evacuation MapTsunami evacuation information for areas along the Pacific Coast, Strait of Juan de Fuca, and northern Puget Sound communities. Data was developed from tsunami evacuation brochures developed with the cooperation of coastal communities, counties, and the Department of Emergency ManagementLayers include: evacuation routes and zonesassembly areaslocal landmarksevacuation brochure boundaries Geothermal ResourcesGeothermal resource interactive map, with temperature, chemistry, geophysical, and fault data along with statewide geothermal favorability modeling.Layers include: thermal and mineral springsgeothermal wellsgeothermal direct-use datageothermal favorability modelinggeophysical datavolcanic vents Subsurface DataDigital inventory and interactive map of subsurface data, including geotechnical boring logs, test pit logs, and water well records, with lithology information and links to original source documentation.Layers include: geotechnical borings water wellsshear wave dataoil and gas wellsgeothermal wellsgeothermal direct-use sites Earth ResourcesInteractive map of active surface mines permitted by DNR and oil and gas exploration wells, with links to scanned geophysical logs and other well permit documents.Layers include: active surface mine permit sitesdry oil and gas holes (with scanned documents) Coal Mine MapsCollection of historic coal mine locations, including links to scanned mine maps. The map collection includes both georeferenced and un-georeferenced maps.Layers include: coal mine locationsgeoreferenced maps

Well Record at Illinois State Geological Survey Type: Water Well Depth:

Processed in December 2014:1. Add CATEGORY field to DNR’s dataset Non-Department of Natural Resources Major Public Lands (ndmpl), and classify into the following categories: a. Wilderness (based on NAME)b. USFS (non-Wilderness, by MANAGER = US Forest Service)c. NPS (MANAGER = National Park Service more than the 3 National Parks)d. Military (MANAGER = Department of Defense)e. OWNER = ‘Tribal Govt’ and Name Like Reservationf. State: OWNER = ’State Government’g. County: OWNER = ‘County’h. City/UGA/Municipal: OWNER = ‘Municipal’i. OWNER = ‘Federal Government’ and CATEGORY IS NULL: Other Fed (mostly USFWS)2. From FWSApproved, emoved manually three FWS features within ocean.3. Union categorized ndmpl (called newndmpl), Ecology’s CityUGA, WA_DNR_Managed_Land_Parcels, DOT Tribal Lands (reservations only, for cleaner look; in particular, islands in ndmpl are pixelized), USFWS’s FWSApproved (OtherFed), Ecology’s ashington (will use for ‘Other’)4. Selected from Ecology’s NHD_MajorWaterbodies with Shape_Area > 35,000,000 (NHD_MajorWaterbodies0123_big). This was an arbitrary cut-off. If you need additional lakes, go ahead and adapt your clipped version.5. Erase waterbodies, including salt water, except for Lake Quinault.6. Clip to WRIA 1-23.7. Fill out CATEGORY where:a. NOT FID_WA_DNR_Managed_Land_Parcels = -1 AND NOT CATEGORY=’Reservation’ AND NOT CATEGORY=’City/UGA/Municipal’: Stateb. NOT FID_CityUGA= -1 AND NOT CATEGORY=’Reservation’: City/UGA/Municipalc. NOT FID_TribalLands_res = -1 TribalLands: Reservationd. NOT FID_FWSApproved0123 =-1: Other Fed

PWS SRC's whose well depth is less than 50ft.

Well Record at Illinois State Geological Survey Type: Water Well Depth: 39

PWS SRCs whose source capacity is less than 20 gal/min and well depth is less than 50ft.

The King County Groundwater Protection Program maintains a database of groundwater wells, water quality and water level sampling data. Users may search the database using Quick or Advanced Search OR use King County Groundwater iMap map set.

The viewer provides a searchable map interface for locating groundwater well data.

This dataset is a summary, by HUC12 watershed, of the number of water well logs reported by WA Ecology (01/13/15). Non-water wells were removed.

Well Record at Illinois State Geological Survey Type: Water Well Depth:

Geospatial data about Ridgefield, Washington Water - Wells. Export to CAD, GIS, PDF, CSV and access via API.

This archive contains the well input data for the logistic regression model for the five-year categories 2000-2004, 2005-2009, 2010-2014, and 2015-2019. Data were collected either at the well location or computed within a buffer area of the well location, as specified in the parameter definition.

Well Record at Illinois State Geological Survey Type: Water Well Depth:

This data release includes time series data collected at the Bremerton Naval Complex, Bremerton WA. Groundwater levels and water quality parameters in two monitoring wells were recorded every 15 minutes during a 7-month deployment. Time series data were collected from June 29, 2018, to February 26, 2019. Field deployment details and quality assurance methods are included in the following paragraphs. Groundwater monitoring well MW-709 was monitored using two data loggers. The first data logger is a non-vented pressure transducer (In-Situ Rugged TROLL 100) that was deployed resting on the well bottom (BOT). The well measurement point (MP) elevation is 16.86 feet above NAVD88 with a total depth from MP of 30.00 feet and the transducer rested at -14.14 feet below NAVD88. Data collected at this location is referenced by National Water Information System (NWIS) site ID 473324122382202. Temperature and depth were recorded every 15-mintes for the entire deployment. Time-series data from this data logger are located in the text file “MW-709_BOT_time-series_data.txt”. Temperature ranged from 12.1 to 18.8 degrees Celsius. Pressure transducers, which measure the pressure above the transducer, were programmed in feet for all loggers used in this data set. The collected depth data was corrected for changes in barometric pressure by subtracting the atmospheric (barometric) pressure (feet of water) from pressure transducer measurements for each 15-minute value, with due consideration of units. Barometric-corrected depth data was converted to water level altitude by adding an -13.41 feet offset to each 15-minute value to reference the North American Vertical Datum of 1988 (NAVD88). Water level altitude ranged from 1.75 to 6.71 feet. The second data logger is a non-vented pressure transducer (Solinst LTC Levelogger) programmed to record temperature, depth, specific conductance and salinity. The data logger was suspended from a buoy with a deployment depth of 1.55 feet below the water surface (TOP). Data collected at this location is referenced by NWIS site ID 473324122382201.The buoy system was intended to maintain a constant deployment depth below the well water surface as tidally-influenced monitoring well water levels change. There was a lag in the buoy system response to well water level changes caused by the 150 mL plastic bottle getting stuck moving up and down inside the well casing resulting in water depth fluctuation ranging from 2.77 to 8.75 feet. Temperature readings during the calibration check procedures were determined less than poor (greater than one degree Celsius lower than a NIST-certified thermistor at five temperatures); therefore, the time-series data did not meet USGS publication criteria. Specific conductance readings during the calibration check procedures were determined less than poor (greater than 15 percent lower than a calibration standard); therefore, the time-series data did not meet USGS publication criteria. Water level altitude time-series data from this data logger are located in text file: “MW-709_TOP_time-series_data.txt”. Groundwater monitoring well MW-412 was monitored using two data loggers. The first was a non-vented pressure transducer (In-Situ Rugged TROLL 100) that was deployed resting on the well bottom (BOT). The well measurement point (MP) elevation is 14.66 feet above NAVD88 with a total depth from MP of 24.00 feet and the transducer rested at -9.34 feet below NAVD88. Data collected at this location is referenced by NWIS site ID 473323122382902. Temperature and depth were recorded every 15-minutes for the entire deployment. Time-series data from this data logger are located in the text file “MW-412_BOT_time-series_data.txt”. Temperature ranged from 11.1 to 14.8 degrees Celsius. Barometric-corrected depth data was converted to water level altitude by adding an -9.40 feet offset to each 15-minute value to reference the North American Vertical Datum of 1988 (NAVD88). Water level altitude ranged from -0.06 to 2.86 feet. The second data logger is a non-vented pressure transducer (In-Situ Aqua TROLL 200) programmed to record temperature, depth, specific conductance and salinity suspended from a buoy and deployed 1.55 feet below the water surface (TOP). Data collected at this location is referenced by NWIS site ID 473323122382901. The buoy system was intended to maintain a constant deployment depth below the well water surface as tidally influenced monitoring well water levels change. There was a lag in the buoy system response to well water level changes caused by the 150 mL plastic bottle getting stuck moving up and down inside the well casing resulting in water depth fluctuation ranging from 0.95 to 4.36 feet. Time-series data from this data logger are located in the text file: “MW-412_TOP_time-series_data.txt”. Survey of MW-412 and MW-709 top-of-casing altitudes was completed on 4/26/2019. Vertical (altitude) position data was collected with RTN-GPS at each monitoring well measurement point (MP). MW-412 measured MP altitude is 14.66 feet and MW-709 MP is 16.86 feet above the North American Vertical Datum of 1988 (NAVD88). Depth to water (DTW) measurements recorded on the 15-minute interval and altitude of MP was used for calculating the offset applied to 15-minute time-series barometric corrected depth data. Offset calculation used is: Offset = (MP - Altitude - DTW - 15-minute depth). Hourly barometric pressure data from 06/01/2018 to 03/30/2019 was acquired from the Bremerton Naval Airport weather station. Missing data was flagged as not available (NA). All groundwater data was recorded at 15-minute intervals, so 15-minute time-steps were generated from barometric hourly data by keeping each hour data point constant for the remaining three 15-minute time steps within that hour. Barometric pressure in units of hectopascals at mean sea level was first converted to millimeters of mercury (conversion factor 0.7500616827) then converted to feet of water (conversion factor 0.04460334762). Depth data was corrected for barometric pressure effects by subtracting barometric pressure from each 15-minute depth data. Time-series data of barometric pressure are located in the text file: “Barometric Pressure.txt”. Tidal water level 15-minute time-series data was acquired from the National Oceanic and Atmospheric Administration (NOAA) Tide Station: 9445958 Bremerton, WA. The NOAA Tides and Currents website (https://tidesandcurrents.noaa.gov/stationhome.html?id=9445958#tides) for this station was accessed on 07/02/2019 for download of 15-minute tidal data referenced to NAVD88 from June 2018 to February 2019. Data time series was adjusted for consistent Pacific Standard Time step. Tidal water level altitude ranged from -6.02 to 11.29 feet. Time-series data of tidal levels are located in the text file: “Tidal_WL_Altitude_time_series_data.txt”. Quality assurance and control measures for continuous water-quality data were performed per USGS protocols (Wagner and others, 2006), which included temperature checks at five temperatures against a NIST-certified thermistor and specific conductance checks against calibration standards spanning the range of environmental values. Other than the temperature and specific conductance readings that were outside of publication criteria from the logger at the top of well 709, all other parameters met quality control criteria for publication and no corrections were applied. During site visits, discrete measurements of water level and water-quality data were collected, including vertical profiles to identify changes in temperature and specific conductance associated with a seawater-groundwater interface. Discrete water-quality data are published in the USGS National Water Information System database by Site ID (https://nwis.waterdata.usgs.gov/usa/nwis/qwdata).

Well Record at Illinois State Geological Survey Type: Water Well Depth: 128