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https://github.com/csdms/jetstream

Resources for working on XSEDE's Jetstream cloud computing service
https://github.com/csdms/jetstream

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Resources for working on XSEDE's Jetstream cloud computing service

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README 

        
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   "source": [

    "# CSDMS and Landlab Jupyter Notebooks"

   ]

  },

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   "metadata": {},

   "source": [

    "All CSDMS and Landlab Jupyter Notebooks are located in the [~/notebooks](./notebooks) directory. A description of each is given below. Click on a link to open and run a Notebook."

   ]

  },

  {

   "cell_type": "markdown",

   "metadata": {},

   "source": [

    "## CSDMS"

   ]

  },

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    "A demostration of the Python Modeling Tool (PyMT) is given in a set of notebooks:\n",

    "\n",

    "* [Introduction to PyMT](./notebooks/pymt-demo/Introduction.ipynb). An overview of PyMT.\n",

    "* Run three different models in PyMT: [Hydrotrend](./notebooks/pymt-demo/Example 0.ipynb), [SedFlux3D](./notebooks/pymt-demo/Example 1.ipynb), and [Child](./notebooks/pymt-demo/Example 2.ipynb). These notebooks are nearly identical because once you know how to run one model in PyMT, you can run *any* model in PyMT.\n",

    "* [Couple Child and SedFlux](./notebooks/pymt-demo/Example 3.ipynb). Use PyMT to interactively couple the Child and SedFlux models."

   ]

  },

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   "metadata": {},

   "source": [

    "## Landlab"

   ]

  },

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   "cell_type": "markdown",

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   "source": [

    "A suggested introduction to Landlab follows roughly this order:\n",

    "\n",

    "* [Introduction to Python and NumPy](./notebooks/python_intro/Python_intro.ipynb). The very basics of Python.\n",

    "* [Introduction to Landlab: example model of fault-scarp degradation](./notebooks/fault_scarp/landlab-fault-scarp.ipynb).\n",

    "A short overview of some of the things Landlab can do.\n",

    "* [Introduction to the model grid object](./notebooks/grid_object_demo/grid_object_demo.ipynb).\n",

    "Grid topology; how landlab represents data; connectivity of grid elements.\n",

    "* [Introduction to Landlab data fields](./notebooks/fields/working_with_fields.ipynb).\n",

    "How Landlab stores spatial data on the grid; a little on naming conventions.\n",

    "* [Introduction to plotting output with Landlab](./notebooks/plotting/landlab-plotting.ipynb).\n",

    "The basics of plotting with Landlab; combining matplotlib and out plots; the all-powerful `imshow_grid()` function.\n",

    "* [Introduction to using the Landlab component library](./notebooks/component_tutorial/component_tutorial.ipynb).\n",

    "The basics of working with and coupling components, using _diffusion_, _stream power_, and a _storm generator_ as examples.\n",

    "* [Using the gradient and flux-divergence functions](./notebooks/gradient_and_divergence/gradient_and_divergence.ipynb).\n",

    "Landlab as solving environment for staggered grid finite difference differential approximations; functions available to help you do this.\n",

    "* [Mapping values from nodes to links](./notebooks/mappers/mappers.ipynb).\n",

    "Options for getting data on links to nodes, nodes to links, etc.; min, max, and mean; upwinding and downwinding schemes; one-to-one, one-to-many, and many-to-one mappings.\n",

    "* [Setting boundary conditions on Landlab grids (several tutorials)](https://nbviewer.jupyter.org/github/landlab/tutorials/tree/master/boundary_conds/)\n",

    "How Landlab conceptualises boundary conditions; various ways to interact and work with them.\n",

    "* [Reading DEMs into Landlab](./notebooks/reading_dem_into_landlab/reading_dem_into_landlab.ipynb)\n",

    "Getting an ARC ESRI ASCII into Landlab; getting the boundary conditions set right.\n",

    "* [How to write a Landlab component](./notebooks/making_components/making_components.ipynb)\n",

    "What makes up a Landlab Component Standard Interface; how to make one for your process model.\n",

    "\n",

    "Notebook tutorials on Landlab's components include:\n",

    "* Flow Direction and Accumulation\n",

    "  * [Introduction to the FlowDirector Components](./notebooks/flow_direction_and_accumulation/Comparison%20of%20FlowDirectors.ipynb)\n",

    "  * [Introduction to the FlowAccumulator Component](./notebooks/flow_direction_and_accumulation/Introduction%20to%20the%20FlowAccumulator.ipynb)\n",

    "  * [Comparison of FlowDirector Components](./notebooks/flow_direction_and_accumulation/Comparison%20of%20FlowDirectors.ipynb)\n",

    "* [Flexure](./notebooks/flexure/lots_of_loads.ipynb)\n",

    "* [Overland flow](./notebooks/overland_flow/overland_flow_driver.ipynb)\n",

    "* [Diffusion, stream power, and the storm generator](./notebooks/component_tutorial/component_tutorial.ipynb)\n",

    "* [Ecohydrology Model on Flat Domain](./notebooks/ecohydrology/cellular_automaton_vegetation_flat_surface/cellular_automaton_vegetation_flat_domain.ipynb)\n",

    "* [Ecohydrology Model on Actual Landscape](./notebooks/ecohydrology/cellular_automaton_vegetation_DEM/cellular_automaton_vegetation_DEM.ipynb)"

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