David Tarboton dtarb@usu.edu Digital Elevation Models, Flood Inundation Mapping and River Hydraulic Properties David Tarboton dtarb@usu.edu.

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Presentation transcript:

David Tarboton dtarb@usu.edu Digital Elevation Models, Flood Inundation Mapping and River Hydraulic Properties David Tarboton dtarb@usu.edu

River Hydraulic Properties Comid H A R P T V Ab As 5781175 3 4 A table with reach hydraulic parameters as an addition to a geographic feature resource This may be derived from LIDAR using an automated tool or HEC RAS cross sections As Surface Area Wetted Bed Area Ab L V Volume T 𝐴= 𝑉 𝐿 Cross Section Area Depth h A P= 𝐴𝑏 𝐿 P Wetted Perimeter T= 𝐴𝑠 𝐿 Top Width R= 𝐴 𝑃 Hydraulic Radius

Real-Time Water Surface Elevation: Two Methods Each reach has a center point and a flow forecast (1) Establish a rating curve at center point and use this to convert flow, Q, to water depth, h, and water surface elevation (2) Use the SPRNT model to compute both flow and depth h Q h Depth Rating Curve Forecast, Q

DEM Based Flood Plain Mapping Each reach has a water depth hw (e.g. from SPRNT) Each reach has an ID Each grid cell has the ID of the reach it connects to and the height above the stream hs Flood extent is “rapidly” mapped as If(hw(id) > hs(id)) Inundation depth = hw(id) - hs(id) Else Inundation depth = 0

Drop to Stream from TauDEM for Onion Creek

Inundation for DTS < 4m

Drop to stream and inundation (DTS < 2 m)

Height above nearest stream raster hs Technical details Reach and Watershed id Height above nearest stream raster hs hw(1) = 1.5 Elevations are filled to that of the pools pour point hw(2) = 2.5 hw(3) = 3.5

Notes Based on 1/3 arc sec National Elevation Dataset (pit filled) Drop to stream used Dinfinity average (could modify to shortest distance) Thresholding based on catchment not (yet) implemented