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S. Darby, A. Simon (1999)
Incised river channels : processes, forms, engineering, and management
S. Trimble (1983)
A sediment budget for Coon Creek basin in the Driftless Area, Wisconsin, 1853-1977American Journal of Science, 283
Yangkang Zhang, Yu Zhang, Hua-Wei Zhou (2005)
DEPARTMENT OF EARTH AND ATMOSPHERIC SCIENCES
Xxyyzz (1997)
Guidelines for Retirement of Dams and Hydroelectric Facilities
E. Stanley, M. Doyle (2002)
A Geomorphic Perspective on Nutrient Retention Following Dam Removal, 52
(2002)
Dam Removal: Science and Decision Making
J. Evans, S. Mackey, J. Gottgens, W. Gill (2000)
Lessons from a Dam Failure
(1999)
Streambank mechanics and the role of bank and near-bank processes in incised channels, in Incised River Channels: Processes, Forms, Engineering, and Management, edited by S
J. Egan, J. Pizzuto (2000)
Geomorphic effects of the removal of the Manatawny Dam, Pottstown, PAEos, Transactions American Geophysical Union, 81
(2000)
CONCEPTS — Conservational channel evolution and pollutant transport system
E. Stanley, M. Luebke, M. Doyle, D. Marshall (2002)
Short-Term Changes in Channel Form and Macroinvertebrate Communities Following Low-Head Dam RemovalJournal of the North American Benthological Society, 21
A. Marion, Matteo Bellinello, I. Guymer, A. Packman (2002)
Effect of bed form geometry on the penetration of nonreactive solutes into a streambedWater Resources Research, 38
J. Harbor (1993)
Proposed measures to alleviate the environmental impacts of hydroelectric dams on the Elwha River, Washington, U.S.A
M. Madej, V. Ozaki (1996)
CHANNEL RESPONSE TO SEDIMENT WAVE PROPAGATION AND MOVEMENT, REDWOOD CREEK, CALIFORNIA, USAEarth Surface Processes and Landforms, 21
David Williams (1977)
Effects of Dam Removal: An Approach to Sedimentation.
A. Simon, S. Darby (1997)
Process-form interactions in unstable sand-bed river channels: A numerical modeling approachGeomorphology, 21
Gordon Novak
The Finite String Newsletter Abstracts of Current Literature Glisp User's Manual
C. Groat (2001)
Field Methods for Measurement of Fluvial Sediment
Egan Egan, Pizzuto Pizzuto (2000)
Geomorphic effects of the removal of the Manatawny Dam, Pottstown, PAEos Trans. AGU, 81
M. Doyle, E. Stanley, J. Harbor (2002)
GEOMORPHIC ANALOGIES FOR ASSESSING PROBABLE CHANNEL RESPONSE TO DAM REMOVAL 1JAWRA Journal of the American Water Resources Association, 38
J. Shuman (1995)
Environmental considerations for assessing dam removal alternatives for river restorationRegulated Rivers-research & Management, 11
Gilbert Gilbert (1917)
Hydraulic‐mining debris in the Sierra NevadaU.S. Geol. Surv. Prof. Pap., 105
R. Ferguson, C. Paola (1997)
Bias and precision of percentiles of bulk grain size distributionsEarth Surface Processes and Landforms, 22
(2000)
CONCEPTS—Conservational channel evolution and pollutant transport system, Res
A. Howard (1982)
Equilibrium and time scales in geomorphology: Application to sand-bed alluvial streamsEarth Surface Processes and Landforms, 7
T. Lisle, Yantao Cui, G. Parker, J. Pizzuto, A. Dodd (2001)
The dominance of dispersion in the evolution of bed material waves in gravel‐bed riversEarth Surface Processes and Landforms, 26
(2001)
Predicting channel morphology following dam removal using historic channel conditions
Peter Kareiva, Michelle Marvier, Michelle McClure (2000)
Recovery and management options for spring/summer chinook salmon in the Columbia River basin.Science, 290 5493
E. Wohl, D. Cenderelli (2000)
Sediment deposition and transport patterns following a reservoir sediment releaseWater Resources Research, 36
(1978)
The hydrologist and dam removal: A legal perspective
S. Wik (1995)
Reservoir Drawdown: Case Study in Flow Changes to Potentially Improve FisheriesJournal of Energy Engineering-asce, 121
L. Leopold (1992)
Sediment Size that Determines Channel Morphology
J. Pizzuto (2002)
Effects of Dam Removal on River Form and Process, 52
(1999)
Glysson, Field methods for measurement of fluvial sediment, in Techniques of Water-Resources Investigations of the U.S
A. Simon (1992)
Energy, time, and channel evolution in catastrophically disturbed fluvial systemsGeomorphology, 5
P. Billi (1992)
Dynamics of gravel-bed rivers
(1999)
Streambank mechanics and the role of bank and near-bank processes in incised channels
(1999)
Bank processes and channel evolution in the incised rivers of north-central Mississippi
M. Wolman (1954)
A method of sampling coarse river‐bed materialEos, Transactions American Geophysical Union, 35
D. Ritter, R. Kochel, Jerry Miller (1999)
The disruption of Grassy Creek: implications concerning catastrophic events and thresholdsGeomorphology, 29
M. Harvey, C. Watson, S. Schumm (1984)
Incised Channels: Morphology, Dynamics, and Control
R. Simons, D. Simons (1991)
Sediment Problems Associated with Dam Removal, Muskegon River, MichiganHydraulic Engineering
J. Buffington, D. Montgomery (1997)
A systematic analysis of eight decades of incipient motion studies, with special reference to gravel‐bedded riversWater Resources Research, 33
A. Simon, C. Hupp (1992)
Geomorphic and Vegetative Recovery Processes Along Modified Stream Channels of West Tennessee
(1999)
Geomorphological approaches to incised stream channel restoration in the United States and Europe
S. Rathburn, E. Wohl (2001)
One-dimensional sediment transport modeling of pool recovery along a mountain channel after a reservoir sediment releaseRegulated Rivers-research & Management, 17
G. Grant (2001)
Dam removal: Panacea or Pandora for rivers?Hydrological Processes, 15
Wolman Wolman (1954)
A method of sampling coarse river‐bed materialEos Trans. AGU, 35
M. Doyle (2002)
River response to disturbance: Geomorphology and nutrient dynamics following dam removal and urbanization
T. Sturm, J. Tuzson (2001)
Open Channel Hydraulics
A. Simon (1989)
A model of channel response in disturbed alluvial channelsEarth Surface Processes and Landforms, 14
(1999)
Friends of the Earth, and Trout Unlimited, Dam Removal Success Stories
(1999)
Bank processes and channel evolution in the incised rivers of north-central Mississippi, in Incised River Channels: Processes, Forms, Engineering, and Management, edited
We examined channel response following the removal of low‐head dams on two low‐gradient, fine‐ to coarse‐grained rivers in southern Wisconsin. Following removal, channels eroded large quantities of fine sediment, resulting in deposition 3–5 km downstream. At one site (Baraboo River), upstream changes were rapid and included bed degradation, minimal bank erosion, and sediment deposition on channel margins and new floodplain. Sand was transported through the former impoundment and temporarily deposited downstream. At the second site (Koshkonong River), head‐cut migration governed channel adjustments. A deep, narrow channel formed downstream of the head‐cut, with negligible changes upstream of the head‐cut. Fluvial changes were summarized in a conceptual channel evolution model that highlighted (1) similarities between adjustments associated with dam removal and other events that lower channel base‐level, and (2) the role of reservoir sediment characteristics (particle size, cohesion) in controlling the rates and mechanisms of sediment movement and channel adjustment.
Water Resources Research – Wiley
Published: Jan 1, 2003
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