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Massachusetts Stream Crossing Project Data Web Map Service
The U.S. Geological Survey and the University of Massachusetts at Amherst (UMass Amherst), in cooperation with the Massachusetts Department of Environmental Protection (MassDEP), began a series of studies in 2019 to develop a web-based statewide hydraulic modeling tool to provide preliminary culvert designs to support stream crossing replacement projects in Massachusetts. This Web Map Service (WMS) has been developed to query data from the hydraulic models at select stream crossing locations using the StreamStats web application for Massachusetts. The WMS contains stream crossing point locations with hydrology and hydraulic data tables and associated watershed polygons. These stream crossing locations were derived from the North Atlantic Aquatic Connectivity Collaborative data center (NAACC Data Center). Preliminary culvert designs for three-sided box, conspan arch, and a pipe culvert have been modeled using the U.S. Army Corps of Engineer’s Hydrologic Engineering Center’s River Analysis System (HEC-RAS) software with cross-sectional and channel geometry data derived from high-resolution light detection and ranging (lidar) Digital Elevation Models (DEM). The WMS layer provides the ability to generate reports in the StreamStats web application for Massachusetts at the stream crossing locations for site location information, preliminary culvert designs, flood flows, bankfull channel geometry, aquatic habitat and stream connectivity restoration potential, basin characteristics, and other select information.
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Massachusetts Stream Crossing Project Data Web Map Service
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The U.S. Geological Survey and the University of Massachusetts at Amherst (UMass Amherst), in cooperation with the Massachusetts Department of Environmental Protection (MassDEP), began a series of studies in 2019 to develop a web-based statewide hydraulic modeling tool to provide preliminary culvert designs to support stream crossing replacement projects in Massachusetts. This Web Map Service (WMS) has been developed to query data from the hydraulic models at select stream crossing locations using the StreamStats web application for Massachusetts. The WMS contains stream crossing point locations with hydrology and hydraulic data tables and associated watershed polygons. These stream crossing locations were derived from the North Atlantic Aquatic Connectivity Collaborative data center (NAACC Data Center). Preliminary culvert designs for three-sided box, conspan arch, and a pipe culvert have been modeled using the U.S. Army Corps of Engineer’s Hydrologic Engineering Center’s River Analysis System (HEC-RAS) software with cross-sectional and channel geometry data derived from high-resolution light detection and ranging (lidar) Digital Elevation Models (DEM). The WMS layer provides the ability to generate reports in the StreamStats web application for Massachusetts at the stream crossing locations for site location information, preliminary culvert designs, flood flows, bankfull channel geometry, aquatic habitat and stream connectivity restoration potential, basin characteristics, and other select information.
Massachusetts Sustainable-Yield Estimator (MASYE) application software (version 2.0)
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This software release provides the database application that runs the Massachusetts Sustainable-Yield Estimator (MA SYE) computer program (version 2.0). The MA SYE was developed by the U.S. Geological Survey, in cooperation with the Massachusetts Department of Environmental Protection, to provide a planning-level decision-support tool designed to help decision makers estimate daily mean streamflows and selected streamflow statistics that can be used to assess sustainable water use at ungaged sites in Massachusetts. The MA SYE provides estimates of unaltered streamflow (which is assumed to include effects of minimal human development but not the effects of instream regulation or water use), net streamflow alterations caused by water use, water-use-adjusted streamflow, streamflow yields (estimated unaltered streamflow minus user-defined flow targets), and estimates of the accuracy and uncertainty of estimated unaltered streamflow. The MA SYE uses basin characteristics and water-use volumes (water withdrawals and wastewater-return flows) obtained from the U.S. Geological Survey online StreamStats application to estimate the unaltered and water-use-adjusted streamflows. The MA SYE is a database application with a graphical user interface developed by using Visual Basic for Applications with the 32-bit version of Microsoft Access©. The graphical user interface is designed to include full documentation for users: an introductory instruction form and onscreen help within each interactive form, including explanation buttons, context-sensitive help buttons, and tool-tip and status-bar messages.
Massachusetts hydrologic unit subdivisions
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Impervious surfaces such as paved roads, parking lots, and building roofs can affect the natural streamflow patterns and ecosystems of nearby streams. This data set summarizes the percent of impervious surface for hydrologic units in Massachusetts using a newly available statewide 1-m binary raster dataset of impervious surface for 2005. A hydrologic unit consists of all or part of a drainage basin, or an area of coastal drainage. Hydrologic units subdivide large drainage basins into discrete, non-overlapping areas. This is one of three data layers in this data series publication.
Hydraulic Channel Geometry of Selected Tidal Rivers in Coastal Massachusetts, 2024
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The U.S. Geological Survey (USGS) collected elevation and location data at 24 selected river reaches along the coast of Massachusetts in 2024. These data were collected in cooperation with the Massachusetts Department of Environmental Protection (MassDEP) and the University of Massachusetts at Amherst (UMass Amherst). The 24 tidal rivers were selected based on the following criteria: spatial distribution along the coast, mean tidal range within 3 to 10 feet (Buzzards Bay National Estuary Program, 2017), upstream drainage-area size of under 30 square miles, and proximity to underserved populations (Commonwealth of Massachusetts, 2024). Channel bottom elevations were surveyed at 3 to 6 cross-section locations per reach; where possible, surveys were conducted upstream of tidal tributaries. Bridge or culvert structures were also surveyed at 18 of the 24 tidal river reaches. Structure surveys included measurements of important structural dimensions that include: height, width, and elevation of the opening or openings through which water would pass, elevations of the road or top of structure including any railings that would block the flow of water during normal or high flows, and cross sections of elevations of the channel bottom and associated top of bank areas both upstream and downstream from the structures. All surveys were conducted by wading, kayaking, or by canoeing the stream channel except for the Neponset River reach where an acoustic Doppler current profiler (ADCP) was used to collect river bottom elevations given the large size of the reach. Additional top of bank land-surface elevation points were collected on each side of the channel wherever possible. Structures were surveyed following techniques outlined in Taylor and Simeone (2021), while cross sections were surveyed to meet Level IV standards outlined in a U.S. Geological Survey Techniques and Methods report (Rydlund and Densmore, 2012). Elevations were measured relative to the North American Vertical Datum of 1988 (NAVD88) using real-time Global Navigation Satellite System (GNSS) techniques with Level IV positional-accuracy for cross sections and Level II positional-accuracy for all structures (Rydlund and Densmore, 2012). At some cross sections and structures and where tree-canopy cover created interference with direct GNSS observations, optical techniques including five-arc-second total stations were used to complete the survey (Noll and Rydlund, 2020). This data release includes 24 zip files containing measured land-surface and river bottom elevation points along cross sections as well as supplemental information documenting each location in photographs and sketches. A shapefile (.shp) and map (.jpg) are also included and show the locations of the 24 surveyed river reaches, associated tidal ranges, and locations of environmental justice areas. The zip file name for each tidal river reach is identified by the name of the tidal river reach followed by a three-letter acronym of the river name (e.g., ForestRiver_FOR.zip). Within each zip file are five categorical folders titled: “Control”, “Data”, "Notes”, “Photos”, and “Sketches”. These folders contain subfolders with data in comma-separated-values files (.csv) or images in .jpg format. The five categorical folders contain subfolders with an alphanumeric cross-section identification (e.g., FOR_ 0100, FOR_0200, FOR_0300, FOR_0400), where the letters indicate river name (e.g., Forest River is FOR) and the numbers indicate the cross-section number (e.g., 0100), which increase in the upstream direction of the river reach. Eighteen bridge or culvert structures were surveyed. In most cases, the structure itself as well as four accompanying cross sections (approach, upstream face, downstream face, and exit) are all surveyed in one job and the data included in a single .csv file (e.g., GLF_0200). In some cases, the approach, structure, and exit are treated as separate surveys and the data are in three separate .csv
Spatial Data Layers for Selected Stream Crossing Sites in the Squannacook River Basin, North-Central Massachusetts
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Spatial data layers of stream crossing point locations, cross-section polyline, centerline polyline, and bank polyline shapefiles have been developed for selected stream crossings in the Squannacook River basin, Massachusetts. The spatial data and calculated attribute values are model input data for U.S. Army Corps of Engineer’s Hydrologic Engineering Center’s River Analysis System (HEC-RAS) hydraulic models. The stream crossing point locations were derived from the North Atlantic Aquatic Connectivity Collaboration (NAACC) database. The stream channel cross-sections, centerlines, and bank polylines were derived using automated methods in a Geographic Information System (GIS) using ArcGIS Pro and Python programming language. The polyline shapefiles are Z-enabled and have elevation data derived from Light Detection and Ranging (lidar) Digital Elevation Models (DEM) for Z-coordinate vertex values in units of feet. The polyline shapefiles are also M-enabled and have profile stationing values for the M-coordinate vertex values in units of feet. The automated GIS processes delineated a series of stream channel cross-sections along lidar-derived stream centerlines and have stream channel bathymetry estimated from Massachusetts bankfull channel geometry equations (Bent and Waite, 2013). The bankfull equations were also used to derive stream bank polylines. This data release contains the following shapefiles in the Spatial_Data_Layers.zip file: 1. Stream_Crossing_Locations.shp - Esri point shapefile derived from the NAACC stream crossing database. 2. Stream_Crossing_Watersheds.shp - Esri polygon shapefile of lidar-derived watershed boundaries that estimate the upstream drainage area for each stream crossing location. 3. Model_Cross_Sections.shp - Esri Z- and M-enabled polyline shapefile of the cross-section data used for hydraulic model input. 4. Model_Flowpaths.shp - Esri Z- and M-enabled polyline shapefile of the stream centerline and stream bank line data used for hydraulic model input. References: Bent, G.C., and Waite, A.M., 2013, Equations for estimating bankfull channel geometry and discharge for streams in Massachusetts: U.S. Geological Survey Scientific Investigations Report 2013–5155, 62 p., http://dx.doi.org/10.3133/sir20135155
Hydraulic Models and Supplementary Data for Selected Stream Crossing Sites in the Squannacook River Basin, North-Central Massachusetts
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This data release contains links to two child items containing hydrology and hydraulic modeling data and supplemental geospatial data for selected stream crossing sites in the Squannacook River Basin in north-central Massachusetts. The child item named “Hydraulic model data for selected stream crossing sites in the Squannacook River Basin, North-Central Massachusetts” contains U.S. Army Corps of Engineers’ Hydrologic Engineering Center River Analysis System (HEC-RAS) hydraulic model files along with field survey data associated with each stream crossing location. This data release also includes a data dictionary defining culvert designs, site locations, modeled flows and water surface elevations, and aquatic habitat and stream connectivity restoration potential. The chile item named “Spatial Data Layers for Selected Stream Crossing Sites in the Squannacook River Basin, North-Central Massachusetts” contains geospatial data files of stream cross sections, stream centerlines, stream bank lines, and stream crossing location points used as input for hydraulic models. Additionally, these preliminary culvert designs and associated selected data are hosted on the U.S. Geological Survey StreamStats web application (https://streamstats.usgs.gov/ss/) for Massachusetts.
Lidar-Derived Hydrography in the Karner Brook Watershed, Massachusetts
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The U.S. Geological Survey (USGS), in cooperation with the Green Berkshires, Inc., has compiled Geographic Information Systems (GIS) datasets consisting of raster and vector data used to generate lidar-derived hydrography. The spatial data layers provided in this data release are hydrography data derived from high-resolution lidar digital elevation models (DEM). The vector data are in Esri shapefile format and include a Breach_Lines.shp file used to breach digital flow dams or obstructions in the DEM (connect erroneously disconnected flow) to aid flow direction processes and hydrologic conditioning; a Headwater_Seed_Points.shp file to guide stream network delineation; a Stream_Network_Karner_Brook_Watershed.shp file derived from the high-resolution lidar DEM that shows stream location; a Watershed_Boundary_Karner_Brook.shp file derived from the hydro-enforcement representing the greater Karner Brook watershed area; and a Potential_Wetlands.shp file derived from the DEM and used to help identify possible wetland locations in the Karner Brook watershed. The raster datasets are in GeoTIFF format and include the dem_clip_m_1.tif, digital elevation model clipped to the Karner Brook basin extent; an fdr_cf.tif, predicting the direction of flow based on the direction of the steepest drop in elevation; and an fac_cf.tif, predicting the number of upstream cells flowing into each one-meter cell.
Elevation-Derived Hydrography in the Upper Shawsheen River Basin, Massachusetts
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The U.S. Geological Survey (USGS), in cooperation with the Air Force Civil Engineer Center (AFCEC), has compiled Geographic Information Systems (GIS) datasets. The spatial data layers provided in this data release are hydrography data derived from high-resolution lidar digital elevation models (DEM). They include a hydroline polyline shapefile used to hydro-enforce the high-resolution lidar DEM; a stream network centerline polyline shapefile derived from the hydro-enforcement that shows stream location; a sub-basin polygon shapefile derived from the hydro-enforcement representing watershed areas for all stream network centerline polylines; a flow direction raster, predicting the direction of flow based on direction of steepest drop; and a flow accumulation raster, predicting the number of upstream cells flowing into each one-meter cell. Field verification was conducted for locations where the high-resolution lidar digital elevation models were unclear on hydraulic connection. Photographs were captured to confirm the conveyance of flow. The datasets are provided in separate child items.
Elevation-Derived Hydrography in the Upper Shawsheen River Basin, Massachusetts
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The U.S. Geological Survey (USGS), in cooperation with the Air Force Civil Engineer Center (AFCEC), has compiled Geographic Information Systems (GIS) datasets. The spatial data layers provided in this data release are hydrography data derived from high-resolution lidar digital elevation models (DEM). They include a hydroline polyline shapefile used to hydro-enforce the high-resolution lidar DEM; a stream network centerline polyline shapefile derived from the hydro-enforcement that shows stream location; a sub-basin polygon shapefile derived from the hydro-enforcement representing watershed areas for all stream network centerline polylines; a flow direction raster, predicting the direction of flow based on direction of steepest drop; and a flow accumulation raster, predicting the number of upstream cells flowing into each one-meter cell. Field verification was conducted for locations where the high-resolution lidar digital elevation models were unclear on hydraulic connection. Photographs were captured to confirm the conveyance of flow. The datasets are provided in separate child items.
Digital Elevation Model and Derivative Datasets to Support the Integration of Stormwater Drainage into the StreamStats Application for the Mystic River Watershed, Massachusetts
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The U.S. Geological Survey’s StreamStats program is a publicly-accessible web application (https://streamstats.usgs.gov) that can be used to delineate drainage areas, compute basin characteristics, and estimate flow statistics for user-selected locations on streams. StreamStats services are typically implemented at the statewide or watershed scale (referred to as state or basin applications), and although the three core functionalities remain consistent, many states have implemented custom tools to address specific water-resources planning and management needs. In Massachusetts, a watershed-scale application for the Mystic River Basin was developed to support stakeholder efforts to address stormwater challenges in this highly urbanized basin. The Mystic River Basin stormwater functionality was developed by incorporating 1-meter resolution lidar-derived elevation data and municipal storm drain data to accurately represent urban topography and stormwater flow (that is, subsurface piped flow). In the Mystic River Basin application, users can view the network of stormwater pipes and inlets, delineate drainage areas derived from lidar topography and stormwater infrastructure, and compute land-use/land-cover basin characteristics. This data release contains the 1-meter resolution digital elevation model (DEM; dem.tif) and two datasets derived from the DEM that support on-the-fly watershed delineation in the StreamStats web application. The flow direction raster (fdr.tif) is a raster dataset that indicates the direction of flow out of each cell; if the cell contains a stormwater inlet, it is represented as a sink in the flow direction raster. The catchment raster (cat.tif) represents the drainage areas to stormwater inlets and to surface-water flowpaths within the basin. The flow direction and catchment rasters are used in conjunction with the stormwater network to determine the drainage area to a point of interest selected by the user in StreamStats. This point must lie on the stormwater network, at either an inlet, on a pipe, or on a surface-water flowpath. The delineation produced in StreamStats is the accumulation of all catchments draining to the point of interest. To describe the processing steps used to produce the DEM, fdr, and cat rasters published in this data release, the overall approach to developing the Mystic River Basin stormwater functionality is given in the associated metadata. Please note that the stormwater network, comprised of stormwater inlets, pipes, culverts, and surface flow, produced for this study is not available for publication due to sensitivity concerns. Inquiries about these data may be made to the point of contact provided in the metadata.