Lidar Quantification of Bank Erosion in Blue Earth County, Minnesota

Sediment and phosphorus (P) transport from the Minnesota River Basin to Lake Pepin on the upper Mississippi River has garnered much attention in recent years. However, there is lack of data on the extent of sediment and P contributions from riverbanks vis‐à‐vis uplands and ravines. Using two light d...

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Veröffentlicht in:Journal of environmental quality 2012-01, Vol.41 (1), p.197-207
Hauptverfasser: Kessler, A. C., Gupta, S. C., Dolliver, H. A. S., Thoma, D. P.
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Dolliver, H. A. S.
Thoma, D. P.
description Sediment and phosphorus (P) transport from the Minnesota River Basin to Lake Pepin on the upper Mississippi River has garnered much attention in recent years. However, there is lack of data on the extent of sediment and P contributions from riverbanks vis‐à‐vis uplands and ravines. Using two light detection and ranging (lidar) data sets taken in 2005 and 2009, a study was undertaken to quantify sediment and associated P losses from riverbanks in Blue Earth County, Minnesota. Volume change in river valleys as a result of bank erosion amounted to 1.71 million m3 over 4 yr. Volume change closely followed the trend: the Blue Earth River > the Minnesota River at the county's northern edge > the Le Sueur River > the Maple River > the Watonwan River > the Big Cobb River > Perch Creek > Little Cobb River. Using fine sediment content (silt + clay) and bulk density of 37 bank samples representing three parent materials, we estimate bank erosion contributions of 48 to 79% of the measured total suspended solids at the mouth of the Blue Earth and the Le Sueur rivers. Corresponding soluble P and total P contributions ranged from 0.13 to 0.20% and 40 to 49%, respectively. Although tall banks (>3 m high) accounted for 33% of the total length and 63% of the total area, they accounted for 75% of the volume change in river valleys. We conclude that multitemporal lidar data sets are useful in estimating bank erosion and associated P contributions over large scales, and for riverbanks that are not readily accessible for conventional surveying equipment.
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Volume change closely followed the trend: the Blue Earth River &gt; the Minnesota River at the county's northern edge &gt; the Le Sueur River &gt; the Maple River &gt; the Watonwan River &gt; the Big Cobb River &gt; Perch Creek &gt; Little Cobb River. Using fine sediment content (silt + clay) and bulk density of 37 bank samples representing three parent materials, we estimate bank erosion contributions of 48 to 79% of the measured total suspended solids at the mouth of the Blue Earth and the Le Sueur rivers. Corresponding soluble P and total P contributions ranged from 0.13 to 0.20% and 40 to 49%, respectively. Although tall banks (&gt;3 m high) accounted for 33% of the total length and 63% of the total area, they accounted for 75% of the volume change in river valleys. 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Using two light detection and ranging (lidar) data sets taken in 2005 and 2009, a study was undertaken to quantify sediment and associated P losses from riverbanks in Blue Earth County, Minnesota. Volume change in river valleys as a result of bank erosion amounted to 1.71 million m3 over 4 yr. Volume change closely followed the trend: the Blue Earth River &gt; the Minnesota River at the county's northern edge &gt; the Le Sueur River &gt; the Maple River &gt; the Watonwan River &gt; the Big Cobb River &gt; Perch Creek &gt; Little Cobb River. Using fine sediment content (silt + clay) and bulk density of 37 bank samples representing three parent materials, we estimate bank erosion contributions of 48 to 79% of the measured total suspended solids at the mouth of the Blue Earth and the Le Sueur rivers. Corresponding soluble P and total P contributions ranged from 0.13 to 0.20% and 40 to 49%, respectively. Although tall banks (&gt;3 m high) accounted for 33% of the total length and 63% of the total area, they accounted for 75% of the volume change in river valleys. We conclude that multitemporal lidar data sets are useful in estimating bank erosion and associated P contributions over large scales, and for riverbanks that are not readily accessible for conventional surveying equipment.</abstract><cop>United States</cop><pub>The American Society of Agronomy, Crop Science Society of America, and Soil Science Society of America, Inc</pub><pmid>22218188</pmid><doi>10.2134/jeq2011.0181</doi><tpages>11</tpages></addata></record>
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subjects Bank erosion
Bank failures
Conservation of Natural Resources
Councils
Earth
Ecosystem
Environmental Monitoring - methods
Estimates
Geologic Sediments
Geological Phenomena
Lasers
Lidar
Load
Mean square errors
Minnesota
Phosphorus
Ravines
Remote sensing
River banks
River basins
River valleys
Rivers
Sediments
Sensitivity analysis
Studies
Surface water
Surveying equipment
Total suspended solids
Water quality
title Lidar Quantification of Bank Erosion in Blue Earth County, Minnesota
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