https://csdms.colorado.edu/csdms_wiki/api.php?action=feedcontributions&feedformat=atom&user=Scho 2026-04-28T12:59:07Z User contributions MediaWiki 1.44.2 https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346441 2021-11-22T20:02:19Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://gcc02.safelinks.protection.outlook.com/?url=https%3A%2F%2Fcsdms.rc.colorado.edu%2Fhub%2Fuser-redirect%2Fgit-pull%3Frepo%3Dhttps%253A%252F%252Fgithub.com%252Fespin-2021%252Fslopes-channels%26urlpath%3Dtree%252Fslopes-channels%252FNST%252FNST_project_ESPIn_v2.ipynb%26branch%3Dmain&amp;data=04%7C01%7Cscho%40usgs.gov%7C5b76d784b7a844c4e6ad08d9adf1e5e9%7C0693b5ba4b184d7b9341f32f400a5494%7C0%7C0%7C637732077354233857%7CUnknown%7CTWFpbGZsb3d8eyJWIjoiMC4wLjAwMDAiLCJQIjoiV2luMzIiLCJBTiI6Ik1haWwiLCJXVCI6Mn0%3D%7C3000&amp;sdata=PxnhqyUuoFseZo9VSZeJoBgHmtm7rTnx%2FUohWzuQr7k%3D&amp;reserved=0<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Sedimentsourceillustrated.JPG<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346440 2021-11-22T19:48:16Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.rc.colorado.edu/user/scho/notebooks/slopes-channels/NST/NST_project_ESPIn_v2.ipynb<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Sedimentsourceillustrated.JPG<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346439 2021-11-22T19:45:29Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.rc.colorado.edu/hub/user-redirect/git-pull?repo=https%3A%2F%2Fgithub.com%2Fespin-2021%2Fslopes-channels%2Fblob%2Fmain%2FNST%2F&amp;urlpath=tree%2F%2FNST_project_ESPIn_v2.ipynb&amp;branch=main<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Sedimentsourceillustrated.JPG<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346438 2021-11-22T19:39:11Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Sedimentsourceillustrated.JPG<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=File:Sedimentsourceillustrated.JPG&diff=346437 2021-11-22T19:38:39Z

<p>Scho: </p> <hr /> <div></div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346436 2021-11-22T19:36:50Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://gcc02.safelinks.protection.outlook.com/?url=https%3A%2F%2Fcsdms.rc.colorado.edu%2Fhub%2Fuser-redirect%2Fgit-pull%3Frepo%3Dhttps%253A%252F%252Fgithub.com%252Fespin-2021%252Fslopes-channels%26urlpath%3Dtree%252Fslopes-channels%252Fcreate_networkgrid_from_rastergrid.ipynb%26branch%3Dmain&amp;data=04%7C01%7Cscho%40usgs.gov%7C5d139e658ce643caf32308d9aded0bb2%7C0693b5ba4b184d7b9341f32f400a5494%7C0%7C0%7C637732056970307650%7CUnknown%7CTWFpbGZsb3d8eyJWIjoiMC4wLjAwMDAiLCJQIjoiV2luMzIiLCJBTiI6Ik1haWwiLCJXVCI6Mn0%3D%7C3000&amp;sdata=5Sx01o%2BvThVFGAFT0KhqYFm7BrPGXcDU%2BzxbATLMVAU%3D&amp;reserved=0<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346329 2021-11-18T22:18:28Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.rc.colorado.edu/hub/user-redirect/git-pull?repo=https%3A%2F%2Fgithub.com%2Fespin-2021%2Fslopes-channels%2Ftree%2Fmain%2FNST&amp;urlpath=tree%2FNST%2FNST_project_ESPIn_v2.ipynb&amp;branch=main<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346328 2021-11-18T22:15:26Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.rc.colorado.edu/hub/user-redirect/git-pull?repo=https%3A%2F%2Fgithub.com%2Fespin-2021%2Fslopes-channels%2Fblob%2Fmain%2FNST%2FNST_project_ESPIn_v2.ipynb&amp;urlpath=tree%2FNST_project_ESPIn_v2.ipynb%2F&amp;branch=main<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346327 2021-11-18T22:13:22Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.rc.colorado.edu/hub/user-redirect/git-pull?repo=https%3A%2F%2Fgithub.com%2Fespin-2021%2Fslopes-channels%2Fblob%2Fmain%2FNST%2FNST_project_ESPIn_v2.ipynb&amp;urlpath=tree%2FNST_project_ESPIn_v2.ipynb%2F&amp;branch=master<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346326 2021-11-18T22:10:02Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.rc.colorado.edu/hub/user-redirect/git-pull?repo=https%3A%2F%2Fgithub.com%2Fespin-2021%2Fslopes-channels%2Fblob%2Fmain%2FNST%2FNST_project_ESPIn_v2.ipynb&amp;urlpath=lab%2Ftree%2FNST_project_ESPIn_v2.ipynb%2F&amp;branch=master<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346227 2021-11-05T16:48:05Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open<br /> Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346226 2021-11-05T16:44:37Z

<p>Scho: </p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.colorado.edu/wiki/linkingNST_sedimentpulse<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=US Geological Survey<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> <br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}<br /> {{LabReferences<br /> |LabReferences=Pfeiffer et al., (2020). NetworkSedimentTransporter: A Landlab component for bed material transport through river networks. Journal of Open<br /> Source Software, 5(53), 2341. https://doi.org/10.21105/joss.02341<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=Lab-0026&diff=346225 2021-11-05T16:40:18Z

<p>Scho: Created page with &quot;{{Labbasics |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter |LabCOModule=1 of 1 |LabDateContributedOrUpdated=2021-10-29 |...&quot;</p> <hr /> <div>{{Labbasics<br /> |Labtitle=Linking other Landlab components and creating sediment pulses in NetworkSedimentTransporter<br /> |LabCOModule=1 of 1<br /> |LabDateContributedOrUpdated=2021-10-29<br /> |LabDescriptionShort=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input condition; 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield<br /> |LabCODuration=1.5 hrs<br /> |LabModelDocumentation=River Network Bed-Material Sediment<br /> |LabAssociatedLesson=Jupyter Notebook<br /> |LabURLDownloadNotebook=https://github.com/espin-2021/slopes-channels/blob/main/NST/NST_project_ESPIn_v2.ipynb<br /> |LabURLStartNotebook=https://csdms.colorado.edu/wiki/linkingNST_sedimentpulse<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Se Jong Cho<br /> |LabContributorInstitute=USGS<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Mel Guirro<br /> |LabContributorInstitute=Durham University<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Muneer Ahammad<br /> |LabContributorInstitute=Virginia Tech<br /> }}<br /> {{LabContributorData<br /> |LabContributorName=Marius Huber<br /> |LabContributorInstitute=Université de Lorraine<br /> }}<br /> {{LabIntro<br /> |LabDescription=1) Demonstrate a potential to couple NST with existing landlab models that generate sediment sources or other sediment input conditions: We present here the overall modeling framework linking Landlab NetworkSedimentTransport (NST) component to Landlab SPACE component. We imported DEM generated from running SPACE component with random fire generations over the simulation period and converted to stream network.<br /> <br /> 2) Run the NetworkSedimentTransporter with pulses of sediment to understand the impact of landscape disturbance on sediment yield: We evaluate sediment delivery and yield across a stream network in response to random pulses of sediment synthetically generated in the NST module.<br /> |LabPicture=Conceptual model slope-channels.jpg<br /> }}<br /> {{LabClassroomOrganization<br /> |LabCOIntro=Sediment pulses are synthetically introduced to simulate erosive conditions, which may be caused by fire or landslide occurrences in the landscape, to quantify sediment yield across river network using the Landlab NetworkSedimentTransporter (NST) component.<br /> |LabCOPresentationUpload=ESPIN2021 project Creating sediment input into Landlab Network Sediment Transporter.pptx<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Import external gridded topography and create NetworkModelGrid (NMG)<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to import shapefiles of stream network and convert to NMG<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Set up NST by populating NMG with relevant topographic, hydrologic, and sediment parcel information<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to create arrays using different random number generators<br /> }}<br /> {{LabLearningObjectivesSkills<br /> |LabSkill=Learn to execute NST forward in time and make plots to understand simulation outputs<br /> }}<br /> {{Headerplaceholder}}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Interact with and learn about NetworkModelGrid (NMG): its geometry, and the connectivity among the various element types and information<br /> }}<br /> {{LabTopicalLearningObjectives<br /> |LabTopicalLearningObjective=Learn about Data Record to store variables in time and/or space dimensions.<br /> }}<br /> {{LabNotes<br /> |LabNotesInstructions=The lab consists of two main parts:<br /> Sections 1-2 demonstrates the use of a function &quot;create_network_from_raster&quot; to link DEM created from other Landlab component. <br /> Section 3-5 demonstrates NST application with synthetically generated sediment pulses. <br /> The user may begin the lab from Section 3 to focus on NST application.<br /> |LabNotesFigure=Landscape dist.png<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=File:Landscape_dist.png&diff=346224 2021-11-05T16:40:15Z

<p>Scho: An illustration of landscape disturbance impacting river system.</p> <hr /> <div>An illustration of landscape disturbance impacting river system.</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=File:ESPIN2021_project_Creating_sediment_input_into_Landlab_Network_Sediment_Transporter.pptx&diff=346222 2021-11-05T16:15:54Z

<p>Scho: Presentation given at CSDMS on 10/29/2021</p> <hr /> <div>Presentation given at CSDMS on 10/29/2021</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=File:Conceptual_model_slope-channels.jpg&diff=346221 2021-11-05T16:15:07Z

<p>Scho: A conceptual model linking NST to other Landlab components</p> <hr /> <div>A conceptual model linking NST to other Landlab components</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=User:Scho&diff=325284 2021-06-07T15:25:14Z

<p>Scho: </p> <hr /> <div>{{Signup information member<br /> |First name member=Se<br /> |Last name member=Cho<br /> |Picture member=SJCsurfing.JPG<br /> |Institute member=US Geological Survey<br /> |City member=Reston<br /> |Country member=United States<br /> |State member=Virginia<br /> |Confirm email member=scho@usgs.gov<br /> |Working group member=Hydrology Focus Research Group, Chesapeake Focus Research Group, Human Dimensions Focus Research Group, Modeling Platform Interoperability Initiative, River Network Modeling Initiative<br /> |Emaillist group member=yes<br /> |Description of your CSDMS-related interests member=Geomorphic change detection, modeling, and prediction<br /> |Memberagreement=I have read and agree to the Privacy Policy<br /> }}</div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=File:SJCsurfing.JPG&diff=325283 2021-06-07T15:25:09Z

<p>Scho: </p> <hr /> <div></div>

Scho https://csdms.colorado.edu/csdms_wiki/index.php?title=User:Scho&diff=325282 2021-06-07T15:24:25Z

<p>Scho: Created page with &quot;{{Signup information member |First name member=Se |Last name member=Cho |Institute member=US Geological Survey |City member=Reston |Country member=United States |State member=...&quot;</p> <hr /> <div>{{Signup information member<br /> |First name member=Se<br /> |Last name member=Cho<br /> |Institute member=US Geological Survey<br /> |City member=Reston<br /> |Country member=United States<br /> |State member=Virginia<br /> |Confirm email member=scho@usgs.gov<br /> |Working group member=Hydrology Focus Research Group, Chesapeake Focus Research Group, Human Dimensions Focus Research Group, Modeling Platform Interoperability Initiative, River Network Modeling Initiative<br /> |Emaillist group member=yes<br /> |Description of your CSDMS-related interests member=Geomorphic change detection, modeling, and prediction<br /> |Memberagreement=I have read and agree to the Privacy Policy<br /> }}</div>

Scho