Summary
Also known as
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Model type
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Single
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Model part of larger framework
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Note on status model
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Date note status model
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Technical specs
Supported platforms
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Unix, Linux, Mac OS, Windows
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Other platform
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Programming language
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IDL
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Other program language
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Code optimized
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Single Processor
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Multiple processors implemented
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Nr of distributed processors
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Nr of shared processors
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Start year development
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2003
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Does model development still take place?
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Yes
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If above answer is no, provide end year model development
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Code development status
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When did you indicate the 'code development status'?
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Model availability
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As code
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Source code availability (Or provide future intension)
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Through owner"Through owner" is not in the list (Through web repository, Through CSDMS repository) of allowed values for the "Source code availability" property.
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Source web address
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Source csdms web address
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Program license type
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Apache public license
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Program license type other
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Memory requirements
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Standard
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Typical run time
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hours-days
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In/Output
Describe input parameters
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Initial land surface (several built-in options), number of timesteps, DEM grid dimensions, DEM grid cell dimensions, R = "geomorphic" rainrate (m/yr), U=uplift rate (mm/yr), BLR = base-level lowering rate (mm/yr), Kf="erodibility coefficient (m^3/yr)^(1-m), m = area/discharge exponent, n = slope exponent, p = area-discharge exponent, toggles for different types of boundary conditions (e.g. periodic), DEM georeferencing info (bounding box, pixel geometry, etc.)
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Input format
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Other input format
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Command line
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Describe output parameters
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A sequence of grids that represent DEMs at different times in the evolution. Saved in RTS (RiverTools Sequence) format with RTI file for georeferencing.
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Output format
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Binary
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Other output format
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Pre-processing software needed?
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No
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Describe pre-processing software
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Post-processing software needed?
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Yes
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Describe post-processing software
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RiverTools or a similar program can be used to create animations of the grid sequence.
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Visualization software needed?
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Yes
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If above answer is yes
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Other visualization software
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Rivertools
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Process
Describe processes represented by the model
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Sediment transport (parameterized with slope and contributing area grids), rainfall, uplift, base-level lowering.
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Describe key physical parameters and equations
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The main equations are:
Q = R * A^p
Qs = Kf * (Q^m) * (S^n),
2D mass conservation equations for water and sediment
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Describe length scale and resolution constraints
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Typical grid cell dimensions are 10 to 500 meters.
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Describe time scale and resolution constraints
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Typical simulated time is 1000 to 100,000 years.
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Describe any numerical limitations and issues
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D8 flow codes are used to compute contributing areas. Would be better to use D-Infinity or the Mass-Flux method.
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Testing
Describe available calibration data sets
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None
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Upload calibration data sets if available:
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Describe available test data sets
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None
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Upload test data sets if available:
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Describe ideal data for testing
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[[Describe ideal data::Same as used for other LEMs, like CHILD and MARSSIM.]]
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Other
Do you have current or future plans for collaborating with other researchers?
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See comments below.
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Is there a manual available?
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No
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Upload manual if available:
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Model website if any
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Model forum / discussion board
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Comments
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I currently have an NSF-CMG grant to work with Greg Tucker, Tom Manteuffel and Steve McCormick to find faster algorithms for this type of model.
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Erode
Introduction
History
Papers
Erode Questionnaire
Contact Information
Model:
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Erode
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Contact person:
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Scott Peckham
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Institute:
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CSDMS, INSTAAR, University of Colorado
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City:
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Boulder, CO
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Country:
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USA
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Email:
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Scott.Peckham@colorado.edu
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2nd person involved:
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--
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3rd person involved:
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--
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Model description
Model type:
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Modular model for the terrestrial domain.
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Description:
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Erode is a raster-based, fluvial landscape evolution model written in IDL.
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Technical information
Supported platforms:
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UNIX, Linux, Mac OSX, Windows
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Programming language:
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IDL
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Model development started at:
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2003 and development still takes place.
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To what degree will the model become available:
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Source code will be available. Model also available as teaching tool, and as IDL SAV file (can run with free IDL VM)
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Current license type:
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Apache public license
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Memory requirements:
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Standard
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Typical run time:
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Hours to days
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Input / Output description
Input parameters:
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Initial land surface (several built-in options), number of timesteps, DEM grid dimensions, DEM grid cell dimensions, R = "geomorphic" rainrate (m/yr), U=uplift rate (mm/yr), BLR = base-level lowering rate (mm/yr), Kf="erodibility coefficient (m^3/yr)^(1-m), m = area/discharge exponent, n = slope exponent, p = area-discharge exponent, toggles for different types of boundary conditions (e.g. periodic), DEM georeferencing info (bounding box, pixel geometry, etc.)
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Input format:
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Command line
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Output parameters:
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A sequence of grids that represent DEMs at different times in the evolution. Saved in RTS (RiverTools Sequence) format with RTI file for georeferencing.
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Output format:
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Binary
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Post-processing software (if needed):
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Yes, RiverTools or a similar program can be used to create animations of the grid sequence.
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Visualization software (if needed):
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Yes, RiverTools
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Process description
Processes represented by model:
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Sediment transport (parameterized with slope and contributing area grids), rainfall, uplift, base-level lowering.
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Key physical parameters & equations:
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The main equations are:
Q = R * A^p
Qs = Kf * (Q^m) * (S^n),
2D mass conservation equations for water and sediment
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Length scale & resolution constraints:
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Typical grid cell dimensions are 10 to 500 meters.
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Time scale & resolution constraints:
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Typical simulated time is 1000 to 100,000 years.
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Numerical limitations and issues :
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D8 flow codes are used to compute contributing areas. Would be better to use D-Infinity or the Mass-Flux method.
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Testing
Available calibration data sets:
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None
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Available test data sets:
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None
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Ideal data for testing:
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Same as used for other LEMs, like CHILD and MARSSIM.
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User groups
Currently or plans for collaborating with:
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See comments below.
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Documentation
Key papers of the model:
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None.
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Is there a manual available:
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no
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Model website if any:
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--
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Comments:
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I currently have an NSF-CMG grant to work with Greg Tucker, Tom Manteuffel and Steve McCormick to find faster algorithms for this type of model.
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Issues
Help
Input Files
Output Files
Download
Source |