source: anuga_work/production/bunbury_storm_surge_2009/project.py @ 7647

"""
This file contains all your file and directory definitions 
for elevation, meshes and outputs.
"""

import os
from anuga.utilities.system_tools import get_user_name, get_host_name
from time import localtime, strftime, gmtime
from os.path import join, exists
import anuga.utilities.log as log


#-------------------------------------------------------------------------------
# Directory setup
#-------------------------------------------------------------------------------

# this section needs to be updated to reflect the modelled community.
# Note, the user needs to set up the directory system accordingly
state = 'western_australia'
scenario_name = 'alby_coarse'
scenario_folder = 'bunbury_storm_surge_scenario_2009'

#-------------------------------------------------------------------------------
# Initial Conditions
#-------------------------------------------------------------------------------

# Model specific parameters.
# One or all can be changed each time the run_model script is executed


central_meridian = None # Central meridian for projection (optional)
zone = 50               # UTM zone for projection

event = 'alby_coarse'
tide = 0                # Mean Sea Level = 0,
                                                # Highest Astronomical Tide = 0.6 m for Bunbury - CHECK THIS! 
alpha = 0.1             # smoothing parameter for mesh
friction = 0.01           # manning's friction coefficient
starttime = 86400          # start time for simulation - -equivalent to 0000h 4 April 1978
finaltime = 87840 #172800         # final time for simulation - 24 hours for TC Alby

setup = 'storm_surge_final'      # This can be one of four values
                                                #    trial - coarsest mesh, fast
                                                #    basic - coarse mesh
                                                #    final - fine mesh, slowest
                                                #    storm_surge_final - as 'final' but with a longer yieldstep (12 mins)
                                                

#-------------------------------------------------------------------------------
# Output filename
#
# Your output filename should be unique between different runs on different data.
# The list of items below will be used to create a file in your output directory.
# Your user name and time+date will be automatically added.  For example,
#     [setup, tide, event_number]
# will result in a filename like
#     20090212_091046_run_final_0_27283_rwilson
#-------------------------------------------------------------------------------

output_comment = [setup, tide, event]    # event_number will have to
                                                                                                # change to something relevent
                                                                                                # for storm surge

#-------------------------------------------------------------------------------
# Input Data
#-------------------------------------------------------------------------------

# ELEVATION DATA
# Used in build_elevation.py
# Format for ascii grids, as produced in ArcGIS + a projection file
ascii_grid_filenames = ['swwa_10m_IC',                  # LiDAR mosaiced and resampled to 10m, clipped to IC to remove values in water
                                                'bunbury_5m_IC']        # Bunbury LiDar grid resampled to 5 m (1m data caused memory errors)
                                            # and clipped to Initial Conditions (to remove values in water)
                                                # 'bunbury_nth_a',      # 1m LiDAR from WA Dot - nothern quarter (file split as too large for dem2pts)
                                                # 'bunbury_nth_b',      # 1m LiDAR from WA Dot - 2nd northmost quarter (file split as too large for dem2pts)
                                                # 'bunbury_sth_a',      # 1m LiDAR from WA Dot - 2nd southmost quarter (file split as too large for dem2pts)
                                                # 'bunbury_sth_b']      # 1m LiDAR from WA Dot - southern quarter (file split as too large for dem2pts)
                                                # 'bunbury_aoi']                # 1m LiDAR from WA DoT - clipped to area_of_interest.csv
                                                # 'bunbury_nth',                # 1m LiDAR from WA Dot - nothern half (file split as too large for dem2pts)
                                                # 'bunbury_sth']                # 1m LiDAR data from WA DoT - southern half
                                                
                
# Format for point is x,y,elevation (with header)
point_filenames = ['DPI.txt',                                                   # Bathymetry data from DPI
                   'Busselton_Chart_Clip_ss.txt',               # Clipped from Busselton_Chart  - see Busselton Tsunami Scenario 2009
                   'Busselton_NavyFinal_Clip_ss.txt',   # Clipped from Busselton_NavyFinal - see Busselton Tsunami Scenario 2009
                   'Leschenault_TIN.txt',               # TIN created over the Leschenault Estuary
                   'Leschenault_inlet_TIN.txt'          # TIN created over the Leschenault Inlet
                   'DPI5U1A02_01a_edited.txt',          # Bathymetric LiDAR from DPI - split into manageable pieces
                   'DPI5U1A02_01b_edited.txt',  
                   'DPI5U1A02_01c_edited.txt',
                   'DPI5U1A02_01d_edited.txt',
                   'DPI5U1A02_01e_edited.txt']                                  

# BOUNDING POLYGON - for data clipping and estimate of triangles in mesh
# Used in build_elevation.py & run_model.py
# Format for points easting,northing (no header)
bounding_polygon_filename = 'bounding_polygon_ss.csv'
bounding_polygon_maxarea = 50000

# INTERIOR REGIONS -  for designing the mesh
# Used in run_model.py
# Format for points easting,northing (no header)                    
interior_regions_data = [['intermediate.csv', 2500],
                         ['area_of_interest.csv', 100],
                         ['storm_gate_area.csv', 1],
                         ['floodgates.csv', floodgate_resolution]]

# LAND - used to set the initial stage/water to be offcoast only
# Used in run_model.py.  Format for points easting,northing (no header)
land_initial_conditions_filename = [['initial_conditions.csv', 0]]

# GEMS order filename
# Format is index,northing, easting, elevation (without header)
gems_order_filename = 'gems_boundary_order_thinned.csv'

# GAUGES - for creating timeseries at a specific point
# Used in get_timeseries.py.  
# Format easting,northing,name,elevation (with header)
gauges_filename = 'gauges.csv'

# BUILDINGS EXPOSURE - for identifying inundated houses
# Used in run_building_inundation.py
# Format latitude,longitude etc (geographic)
building_exposure_filename = '' # from NEXIS

# Landward bounding points
# Format easting,northing (no header)
landward_boundary_filename = 'landward_boundary.csv'

### MUX input filename.
### If a meta-file from EventSelection is used, set 'multi-mux' to True.
### If a single MUX stem filename (*.grd) is used, set 'multi-mux' to False.
####mux_input_filename = event_number # to be found in event_folder
##                                    # (ie boundaries/event_number/)
####multi_mux = False
##mux_input_filename = 'event.list'
##multi_mux = True

#-------------------------------------------------------------------------------
# Clipping regions for export to asc and regions for clipping data
# Final inundation maps should only be created in regions of the finest mesh
#-------------------------------------------------------------------------------

# Elevation clip box - used when there are multiple overlapping datasets and you want to use 
# one over another in an area of overlap
elevation_clip_box_filename = 'elevation_clip_box.csv'

################################################################################
################################################################################
####         NOTE: NOTHING WOULD NORMALLY CHANGE BELOW THIS POINT.          ####
################################################################################
################################################################################

# Get system user and host names.
# These values can be used to distinguish between two similar runs by two
# different users or runs by the same user on two different machines.
user = get_user_name()
host = get_host_name()

# Environment variable names.
# The inundation directory, not the data directory.
ENV_INUNDATIONHOME = 'INUNDATIONHOME'

#-------------------------------------------------------------------------------
# Output Elevation Data
#-------------------------------------------------------------------------------

# Output filename for elevation
# this is a combination of all the data generated in build_elevation.py
combined_elevation_basename = scenario_name + '_combined_elevation'

#-------------------------------------------------------------------------------
# Directory Structure
#-------------------------------------------------------------------------------

# determines time for setting up output directories
time = strftime('%Y%m%d_%H%M%S', localtime()) 
gtime = strftime('%Y%m%d_%H%M%S', gmtime()) 
build_time = time + '_build'
run_time = time + '_run_'

# create paths generated from environment variables.
home = join(os.getenv(ENV_INUNDATIONHOME), 'data') # Absolute path for data folder
        
# check various directories/files that must exist
anuga_folder = join(home, state, scenario_folder, 'anuga')
topographies_folder = join(anuga_folder, 'topographies')
polygons_folder = join(anuga_folder, 'polygons')
boundaries_folder = join(anuga_folder, 'boundaries')
output_folder = join(anuga_folder, 'outputs')
gauges_folder = join(anuga_folder, 'gauges')
event_folder = join(boundaries_folder, str(event))

#-------------------------------------------------------------------------------
# Location of input and output data
#-------------------------------------------------------------------------------

# Convert the user output_comment to a string for run_model.py
output_comment = ('_'.join([str(x) for x in output_comment if x != user])
                                  + '_' + user)

# The absolute pathname of the all elevation, generated in build_elevation.py
combined_elevation = join(topographies_folder, combined_elevation_basename)


# The pathname for the GEMS order points
if gems_order_filename:
        gems_order = join(boundaries_folder, gems_order_filename)

# The absolute pathname for the landward points of the bounding polygon,
# Used within run_model.py)
if landward_boundary_filename:
        landward_boundary = join(boundaries_folder, landward_boundary_filename)

# The absolute pathname for the .sts file, generated in build_boundary.py
event_sts = join(event_folder, scenario_name)

# The absolute pathname for the output folder names
# Used for build_elevation.py
output_build = join(output_folder, build_time) + '_' + str(user) 
# Used for run_model.py
output_run = join(output_folder, run_time) + output_comment 
# Used by post processing
output_run_time = join(output_run, scenario_name) 

# The absolute pathname of the mesh, generated in run_model.py
meshes = join(output_run, scenario_name) + '.msh'

# Log file name
log.log_filename = join(output_run, scenario_name) + '.log'

# The absolute pathname for the gauges file
# Used for get_timeseries.py
if gauges_filename:
        gauges = join(gauges_folder, gauges_filename)       

# The absolute pathname for the building file
# Used for run_building_inundation.py
if building_exposure_filename:
        building_exposure = join(gauges_folder, building_exposure_filename)

### The absolute pathname for the image file
### Used for get_runup.py
##if images_filename:
##    images = join(polygons_folder, images_filename)

### full path to where MUX files (or meta-files) live
##mux_input = join(event_folder, mux_input_filename)