def hillshade_generator():
arcpy.env.workspace = "C:\\Users\\michal\\Desktop\\_BP"
arcpy.env.overwriteOutput = 1
print("Creating list of DEM files...")
dem_pasy2 = []
for root, dirs, files in os.walk(
r'C:\Users\michal\Desktop\_BP\gis\las_pasy_dem\arcgis\full'):
for file in files:
if file.endswith('_dem.tif'):
pas = ("gis\\las_pasy_dem\\arcgis\\full\\" + file,
"gis\\las_pasy_dem\\arcgis\\full\\hillshade\\" +
file[:-8] + "_hillshade.tif",
"gis\\las_pasy_dem\\arcgis\\area_n81\\hillshade\\" +
file[:-8] + "_area81_hillshade.tif")
dem_pasy2.append(pas)
print("List of DEM files created!")
for dem in dem_pasy2:
print("Generating hillshade: ", dem[0])
arcpy.env.snapRaster = "Krkonose\\2019_06_14_Lucni_2_DSM.tif"
arcpy.env.cellSize = "Krkonose\\2019_06_14_Lucni_2_DSM.tif"
arcpy.env.extent = "MAXOF"
arcpy.HillShade_3d(dem[0], dem[1])
arcpy.env.extent = "Krkonose\\area_n81.shp"
arcpy.HillShade_3d(dem[0], dem[2])
print("Done!")
def make_topo_layers(topo_folder):
"""
Writes the layers
:param topo_folder: We want to make layers for the stuff in this folder
:return:
"""
source_code_folder = os.path.dirname(os.path.abspath(__file__))
symbology_folder = os.path.join(source_code_folder, 'BRATSymbology')
dem_symbology = os.path.join(symbology_folder, "DEM.lyr")
slope_symbology = os.path.join(symbology_folder, "Slope.lyr")
hillshade_symbology = os.path.join(symbology_folder, "Hillshade.lyr")
for folder in os.listdir(topo_folder):
dem_folder_path = os.path.join(topo_folder, folder)
dem_file = None
for file_name in os.listdir(dem_folder_path):
if file_name.endswith(".tif"):
dem_file = os.path.join(dem_folder_path, file_name)
make_layer(dem_folder_path,
dem_file,
"DEM",
dem_symbology,
is_raster=True)
hillshade_folder = make_folder(dem_folder_path, "Hillshade")
hillshade_file = os.path.join(hillshade_folder, "Hillshade.tif")
try:
arcpy.HillShade_3d(dem_file, hillshade_file)
make_layer(hillshade_folder,
hillshade_file,
"Hillshade",
hillshade_symbology,
is_raster=True)
except arcpy.ExecuteError as err:
if get_execute_error_code(err) == "000859":
arcpy.AddWarning(
"Warning: Unable to create hillshade layer. Consider modifying your DEM input if you need a hillshade."
)
else:
raise arcpy.ExecuteError(err)
slope_folder = make_folder(dem_folder_path, "Slope")
slope_file = os.path.join(slope_folder, "Slope.tif")
try:
out_slope = arcpy.sa.Slope(dem_file)
out_slope.save(slope_file)
make_layer(slope_folder,
slope_file,
"Slope",
slope_symbology,
is_raster=True)
except arcpy.ExecuteError as err:
if get_execute_error_code(err) == "000859":
arcpy.AddWarning(
"Warning: Unable to create hillshade layer. Consider modifying your DEM input if you need a hillshade."
)
else:
raise arcpy.ExecuteError(err)
def calculateShadow(self):
"""
Program description:
INPUT_PARAMETERS:
inputValue_ -
COMMENTS:
"""
#arcpy.CheckOutExtension("3D")
print "Start creating shadow image..."
inFileName = tkFileDialog.askopenfilename(
defaultextension='TIFF',
filetypes=[('ERDAS IMAGINE', '*.img'), ('TIFF', '*.tif')],
initialdir=self.workspace,
initialfile=INITFILE_DEM,
multiple=False,
parent=tkRoot,
title=
'Chose input elevation raster file for processing shadow (ArcPy)')
inFile = sa.Raster(inFileName)
#Determine Shadow Area: Spatial Analyst Tools --> Solar Radiation: Area Solar Radiation
#--> Not applicable here
#3D Anaylist Tools --> Raster Surface: HillShade
azimuth = float(143.1156527) #SUN_AZIMUTH from Landsat
altitude = float(51.2588465) #SUN_ELEVATION from Landsat
outFileName = "out_shadow.tif" # Problem length of filename!
arcpy.HillShade_3d(inFile, outFileName, azimuth, altitude, "SHADOWS",
1)
print "Hillshade shadow image '" + str(
outFileName) + "' with azimut '" + str(
azimuth) + "' and altitude '" + str(altitude) + "' created."
return
def makeTopoLayers(topoFolder):
"""
Writes the layers
:param topoFolder: We want to make layers for the stuff in this folder
:return:
"""
sourceCodeFolder = os.path.dirname(os.path.abspath(__file__))
symbologyFolder = os.path.join(sourceCodeFolder, 'BRATSymbology')
demSymbology = os.path.join(symbologyFolder, "DEM.lyr")
slopeSymbology = os.path.join(symbologyFolder, "Slope.lyr")
layers = []
for folder in os.listdir(topoFolder):
demFolderPath = os.path.join(topoFolder, folder)
demFile = None
for fileName in os.listdir(demFolderPath):
if fileName.endswith(".tif"):
demFile = os.path.join(demFolderPath, fileName)
layers.append(
makeLayer(demFolderPath,
demFile,
os.path.basename(demFile),
demSymbology,
isRaster=True))
hillshadeFolder = makeFolder(demFolderPath, "Hillshade")
hillshadeFile = os.path.join(hillshadeFolder, "Hillshade.tif")
arcpy.HillShade_3d(demFile, hillshadeFile)
makeLayer(hillshadeFolder, hillshadeFile, "Hillshade", isRaster=True)
slopeFolder = makeFolder(demFolderPath, "Slope")
slopeFile = os.path.join(slopeFolder, "Slope.tif")
outSlope = arcpy.sa.Slope(demFile)
outSlope.save(slopeFile)
makeLayer(slopeFolder,
slopeFile,
"Slope",
slopeSymbology,
isRaster=True)
#PolyMask = str(workspaceGDB + "\\" + "Seg_" + inSegment + "_" + inYear + "_" + CellSizeName + "_mask_poly")
PolyMask = str(workspaceGDB + "\\" + "Seg_" + inSegment + "_" + inYear + "_" + CellSizeName + "_mask_poly")
arcpy.AddMessage("output polygon mask: " + PolyMask)
arcpy.AddMessage(PolyMask)
arcpy.RasterToPolygon_conversion(RasterMaskInt, PolyMask, "NO_SIMPLIFY", "Value")
#
###############################################
# Create hillshade
#
azimuth = 315
altitude = 45
modelShadows = "NO_SHADOWS"
zFactor = 1
outHillshade = str(outFolder + "\\" + "Seg_" + inSegment + "_" + inYear + "_" + CellSizeName + "_hillshade.tif")
arcpy.HillShade_3d(outRaster, outHillshade, azimuth, altitude, modelShadows, zFactor)
###############################################
#
## Create data source polygon file and source raster file
#
# copy mb boundary to workspace gdb and assign short name
inMBbasename = os.path.basename(inMBboundary)
MBboundaryCopy = str(workspaceGDB + "\\" + inMBbasename)
arcpy.CopyFeatures_management(inMBboundary, MBboundaryCopy)
inMBbdy = os.path.basename(MBboundaryCopy)
# assign short name to poly mask
inPolyMask = os.path.basename(PolyMask)
# copy topo boundary and assign short name
TopoBoundaryFC = str(workspaceGDB + "\\" + "TopoBND_Seg_" + inSegment + "_" + inYear)
arcpy.CopyFeatures_management(inTopoBoundaryShape, TopoBoundaryFC)
import arcpy
from arcpy import env
try:
if arcpy.CheckExtension("3D") == "Available":
arcpy.CheckOutExtension("3D")
else:
#Raise a custom exception
raise LicenseError
env.workspace = "D:/GrosMorne"
arcpy.HillShade_3d("WesternBrook", "westbrook_hill", 300)
arcpy.Aspect_3d("WesternBrook", "westbrook_aspect")
except LicenseError:
print "3D Analyst license is unavailable"
except:
print arcpy.GetMessages(2)
finally:
# Check in the 3D Analyst extension
arcpy.CheckInExtension("3D")
#Check out extensions
arcpy.CheckOutExtension("Spatial")
arcpy.CheckOutExtension("3D")
arcpy.env.workspace = gdbworkspace
#convert img to TIFFs with elevation raster in feet and hillshade
elev = arcpy.ListRasters("img*")
for raster in elev:
rasterObject = arcpy.Describe(raster)
name = rasterObject.basename
elevFeet = published_data + park_name + "_elev_feet.tif"
hillshade = published_data + park_name + "_hillshade.tif"
r1 = arcpy.sa.Raster(raster) * 3.281
r1.save(elevFeet)
arcpy.HillShade_3d(elevFeet, hillshade, 270, 55)
################# EXTRA: Create NDVI and canopy layer #################
print """############# Creating NDVI and canopy rasters as TIFFs ############# """
#Create NDVI (extra stuff)
naip = arcpy.ListRasters("NAIP*")
for raster in naip:
rasterObject = arcpy.Describe(raster)
name = rasterObject.basename
print name
RedBand = published_data + rasterObject.basename + "_1.tif"
NIRBand = published_data + rasterObject.basename + "_4.tif"
compRed = rasterObject.catalogPath + "/Band_1"
print "Extracting Near Infrared Band to {0}".format(RedBand)
# This sets the workspace and shows the raster files in the database
try:
arcpy.env.workspace = geodatabase
rasterList = arcpy.ListRasters()
print ("Raster: ", rasterList)
except:
print("Not a valid database")
arcpy.env.overwriteOutput = True
# This asks the user to choose what layer they want to use to create the hillshade
in_raster = input("Please choose what Raster Layer you want to use: ")
# This defines the variables that will be used to create the hillshade
out_dir = geodatabase
i = 90
azimuth = 90
altitude = 55
# This creates a while loop that will create the 3 hillshades
# The loop will run as long as azimuth is less that 271
while azimuth < 271:
# This determines what the hillshade output will be called
out_raster = "hillshade" + str(i)
print("Creating hillshade from " + in_raster + " ...")
# This runs the arcpy hillshade function
arcpy.HillShade_3d(in_raster, out_raster, azimuth, altitude, "SHADOWS", 1)
# This adds 90 to the variabke azimuth
azimuth += 90
# This adds 90 to the variable i
i += 90
polygon = arcpy.Polygon(arcpy.Array(boundaryPoints))
arcpy.CreateFeatureclass_management(arcpy.env.workspace,
name + '_Boundary.shp', 'POLYGON', polygon)
arcpy.CopyFeatures_management(polygon, name + '_Boundary.shp')
arcpy.AddMessage(name + '_Boundary.shp generated.')
# Create TIN based on topo data and boundary
arcpy.CreateTin_3d(name + '_TIN')
arcpy.EditTin_3d(
name + '_TIN',
[[name + '_Points.shp', 'Z', '<None>', 'Mass_Points', False],
[name + '_Boundary.shp', '<None>', '<None>', 'Soft_Clip', False]])
arcpy.AddMessage(name + '_TIN generated.')
# Create raster out of TIN
arcpy.TinRaster_3d(name + '_TIN',
name + '_Raster.tif',
'FLOAT',
'LINEAR',
sample_distance='CELLSIZE {}'.format(cellsize),
z_factor=1)
arcpy.AddMessage(name + '_Raster.tif generated.')
# Create hillshade out of raster
arcpy.HillShade_3d(name + '_Raster.tif',
name + '_Hillshade.tif',
azimuth,
altitude,
z_factor=1)
arcpy.AddMessage(name + '_Hillshade.tif generated.')
Flow_Velocity = r"C:\Users\NReid\Documents\ArcGIS\Projects\TrailProjectModel\modelData.gdb\MaxFlow_Vel"
TC_Reclas_in = r"C:\Users\NReid\Documents\ArcGIS\Projects\TrailProjectModel\modelData.gdb\TC_Reclassify"
TrailPT_OVel = r"C:\Users\NReid\Documents\ArcGIS\Projects\TrailProjectModel\modelData.gdb\Excess_Vel"
Point_Vel = r"C:\Users\NReid\Documents\ArcGIS\Projects\TrailProjectModel\modelData.gdb\Velocity_pt"
# Process: Fill - works
fill = arcpy.sa.Fill(DEM)
fill.save(Fill_DEM)
print ("Fill complete.")
# Process: Flow Direction - works
flow = arcpy.gp.FlowDirection_sa(Fill_DEM, DEM_FlowDir, "Normal", "D8")
print ("Flow Direction complete.")
# Process: Hillshade - works
hshade = arcpy.HillShade_3d(Fill_DEM, Hillshade, "315", "45", "NO_SHADOWS", "1")
print ("Hillshade complete.")
# Process: Slope Raster
slope = arcpy.Slope_3d(Fill_DEM, Slope_Percent, "PERCENT_RISE", 0.3048, "PLANAR", "")
print ("Slope Raster complete.")
# Process: Aspect Raster
aspect = arcpy.sa.Aspect(Fill_DEM, "PLANAR", "")
aspect.save (DEM_Aspect)
print ("Aspect Raster complete.")
# Process: Raster Domain - works
arcpy.RasterDomain_3d(Fill_DEM, DEM_Domain, "POLYGON")
print ("Raster Domain complete.")
def terreno(self, path):
# Paso 1:
# TERRENO: DEM, DIRECCION DE FLUJO, ACUMULACION, LONGITUD
t_inputs = self.inputs()
print('TERRENO: DEM, DIRECCION DE FLUJO, ACUMULACION, LONGITUD')
# Crear carpeta de salidas
print('Crear carpeta de salidas')
os.system('md modeloFONAG\\%s' % t_inputs[16])
os.system('md modeloFONAG\\%s\\tables' % t_inputs[16])
env.workspace = '%s/modeloFONAG/%s' % (path, t_inputs[16])
# Lectura de DEM y relleno de vacios
r_DEM = arcpy.Raster('%s/modeloFONAG/inputs/%s' % (path, t_inputs[0]))
print('Lectura DEM')
print('%s/modeloFONAG/inputs/%s' % (path, t_inputs[0]))
# Leer Mascara
inMaskData = '%s/modeloFONAG/inputs/%s/%s' % (path, t_inputs[1], t_inputs[2])
print('Lectura Mascara')
print(inMaskData)
# Extraer por mascara
r_DEM_mask = ExtractByMask(r_DEM, inMaskData)
r_DEM_mask.save('%s/modeloFONAG/%s/r_DEM_mask.tif' % (path, t_inputs[16]))
print('Extraer por mascara')
# Relleno de vacios
r_SurfaceRaster = Fill(r_DEM_mask)
r_SurfaceRaster.save('%s/modeloFONAG/%s/r_DEM_fill.tif' % (path, t_inputs[16]))
print('Relleno de vacios')
# Variables de entorno
env.cellSize = '%s/modeloFONAG/%s/r_DEM_fill.tif' % (path, t_inputs[16])
env.extent = '%s/modeloFONAG/%s/r_DEM_fill.tif' % (path, t_inputs[16])
print('Variables de entorno')
# Generar raster de ceros y de unos para ciertos procesos
r_DEM_ceros = r_SurfaceRaster * 0
r_DEM_unos = r_SurfaceRaster / r_SurfaceRaster
# r_DEM_ceros.save('%s/modeloFONAG/%s/r_DEM_ceros.tif' % (path, t_inputs[16]))
# r_DEM_unos.save('%s/modeloFONAG/%s/r_DEM_unos.tif' % (path, t_inputs[16]))
print('Extraer por mascara')
# Genera hillshade
r_Hillshade = '%s/modeloFONAG/%s/r_DEM_shd.tif' % (path, t_inputs[16])
arcpy.HillShade_3d(r_SurfaceRaster, r_Hillshade, z_factor=3)
print('Generar hillshade')
# Direccion de flujo
r_FlowDirection = FlowDirection(r_SurfaceRaster, 'NORMAL')
r_FlowDirection.save('%s/modeloFONAG/%s/r_DEM_dir.tif' % (path, t_inputs[16]))
print('Direccion de flujo')
# Acumulacion de flujo
inWeightRaster = ''
r_FlowAccumulation = FlowAccumulation(r_FlowDirection, inWeightRaster) + 1
r_FlowAccumulation.save('%s/modeloFONAG/%s/r_DEM_acc.tif' % (path, t_inputs[16]))
print('Acumulacion de flujo')
# Area de aporte
cellXResult = arcpy.GetRasterProperties_management(r_DEM_mask, 'CELLSIZEX')
cellYResult = arcpy.GetRasterProperties_management(r_DEM_mask, 'CELLSIZEY')
cellX = float(cellXResult.getOutput(0))
cellY = float(cellYResult.getOutput(0))
cellArea = cellX * cellY
r_area = r_FlowAccumulation * cellArea
r_area.save('%s/modeloFONAG/%s/r_DEM_area.tif' % (path, t_inputs[16]))
print('Area de aporte')
# Longitud de flujo
r_FlowLength = FlowLength(r_FlowDirection, 'UPSTREAM', inWeightRaster)
r_FlowLength.save('%s/modeloFONAG/%s/r_DEM_length.tif' % (path, t_inputs[16]))
print('Longitud de flujo')
r_LengthAccumulation = FlowAccumulation(r_FlowDirection, r_FlowLength)
r_Length_mean = r_LengthAccumulation / r_FlowAccumulation
r_Length_norm = (r_FlowLength + 1) / (r_Length_mean + 1)
c_factordist = Exp(-1 * r_Length_norm)
c_factordist.save('%s/modeloFONAG/%s/r_factordist.tif' % (path, t_inputs[16]))
print('Factor de ponderacion por distancia')
print('FIN DE MODULO DE TERRENO')
arcpy.CreateTin_3d(output_folder + "\\tin")
#edit tin
arcpy.EditTin_3d(output_folder + "\\tin",
spot + ";" + contours + ";" + breaklines)
#tin to raster conversion
data_type = "FLOAT"
interp_method = "LINEAR"
samp_method = "CELLSIZE 10"
factor = 1
arcpy.TinRaster_3d(output_folder + "\\tin", output_folder + "\\grid",
data_type, interp_method, samp_method, factor)
#slope computation
arcpy.Slope_3d(output_folder + "\\grid", output_folder + "\\slope",
"DEGREE", 1)
#hillshading
arcpy.HillShade_3d()
arcpy.CheckInExtension('3D')
else:
print('Licence not available')
#-------------------------------------------------------------------------------
# PRINT MAPS
#-------------------------------------------------------------------------------
import arcpy
import arcpy.mapping as map
path_mxd = r"C:\DAS\SESSION4\template2.mxd"
#mxd reference
mxd = map.MapDocument(path_mxd)
def Model1(): # Model 1
# To allow overwriting outputs change overwriteOutput option to True.
arcpy.env.overwriteOutput = False
# Check out any necessary licenses.
arcpy.CheckOutExtension("3D")
arcpy.ImportToolbox(r"F:\software\LAStools\ArcGIS_toolbox\LAStools.tbx")
# Model Environment settings
with arcpy.EnvManager(cellSize="0,05",
snapRaster=r"KRNAP\2019_06_14_Lucni_2_DSM.tif"):
jtsk_pas3_area81_las_2_ = "C:\\Users\\michal\\Desktop\\_BP\\Krkonose\\LiDAR\\area_81\\jtsk_pas3_area81.las"
grid_size = 0, 05
keep = "lowest"
jtsk_pas4_area81_las_2_ = "C:\\Users\\michal\\Desktop\\_BP\\Krkonose\\LiDAR\\area_81\\jtsk_pas4_area81.las"
jtsk_pas5_area81_las = "C:\\Users\\michal\\Desktop\\_BP\\Krkonose\\LiDAR\\area_81\\jtsk_pas5_area81.las"
jtsk_pas6_area81_las = "C:\\Users\\michal\\Desktop\\_BP\\Krkonose\\LiDAR\\area_81\\jtsk_pas6_area81.las"
jtsk_pas7_area81_las = "C:\\Users\\michal\\Desktop\\_BP\\Krkonose\\LiDAR\\area_81\\jtsk_pas7_area81.las"
jtsk_pas8_area81_las = "C:\\Users\\michal\\Desktop\\_BP\\Krkonose\\LiDAR\\area_81\\jtsk_pas8_area81.las"
# Process: lasthin (lasthin)
lasthin(input_file=jtsk_pas3_area81_las_2_,
grid_size=grid_size,
keep=keep,
output_format="",
output_file=jtsk_pas3_area81_thin_min_las,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: las2dem (las2dem)
las2dem(input_file=jtsk_pas3_area81_thin_min_las,
step=0,
05,
kill_triangles_with_edges_longer_than=100,
item="elevation",
output="actual values",
sun_direction_for_hillside_shading="north east",
sun_position_for_hillside_shading="1 pm",
set_min__for_gray_ramp_and_false_colors_=None,
set_max__for_gray_ramp_and_false_colors_=None,
triangulate="all points",
use_tile_bounding_box=False,
closed_breaklines="",
open_breaklines="",
output_format="tif",
output_file=jtsk_pas3_area81_dem_tif,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: HillShade (HillShade)
jtsk_pas3_area81_hillshade_tif = "C:\\Users\\michal\\Desktop\\_BP\\gis\\las_pasy_dem\\lastools\\area_n81\\hillshade\\jtsk_pas3_area81_hillshade.tif"
arcpy.HillShade_3d(in_raster=jtsk_pas3_area81_dem_tif,
out_raster=jtsk_pas3_area81_hillshade_tif,
azimuth=315,
altitude=45,
model_shadows="NO_SHADOWS",
z_factor=1)
# Process: lasthin (2) (lasthin)
lasthin(input_file=jtsk_pas4_area81_las_2_,
grid_size=grid_size,
keep=keep,
output_format="",
output_file=jtsk_pas4_area81_thin_min_las,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: las2dem (2) (las2dem)
las2dem(input_file=jtsk_pas4_area81_thin_min_las,
step=0,
05,
kill_triangles_with_edges_longer_than=100,
item="elevation",
output="actual values",
sun_direction_for_hillside_shading="north east",
sun_position_for_hillside_shading="1 pm",
set_min__for_gray_ramp_and_false_colors_=None,
set_max__for_gray_ramp_and_false_colors_=None,
triangulate="all points",
use_tile_bounding_box=False,
closed_breaklines="",
open_breaklines="",
output_format="tif",
output_file=jtsk_pas4_area81_dem_tif,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: HillShade (2) (HillShade)
jtsk_pas4_area81_hillshade_tif = "C:\\Users\\michal\\Desktop\\_BP\\gis\\las_pasy_dem\\lastools\\area_n81\\hillshade\\jtsk_pas4_area81_hillshade.tif"
arcpy.HillShade_3d(in_raster=jtsk_pas4_area81_dem_tif,
out_raster=jtsk_pas4_area81_hillshade_tif,
azimuth=315,
altitude=45,
model_shadows="NO_SHADOWS",
z_factor=1)
# Process: lasthin (3) (lasthin)
lasthin(input_file=jtsk_pas5_area81_las,
grid_size=grid_size,
keep=keep,
output_format="",
output_file=jtsk_pas5_area81_thin_min_las,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: las2dem (3) (las2dem)
las2dem(input_file=jtsk_pas5_area81_thin_min_las,
step=0,
05,
kill_triangles_with_edges_longer_than=100,
item="elevation",
output="actual values",
sun_direction_for_hillside_shading="north east",
sun_position_for_hillside_shading="1 pm",
set_min__for_gray_ramp_and_false_colors_=None,
set_max__for_gray_ramp_and_false_colors_=None,
triangulate="all points",
use_tile_bounding_box=False,
closed_breaklines="",
open_breaklines="",
output_format="tif",
output_file=jtsk_pas5_area81_dem_tif,
output_directory="",
output_appendix="_dem",
additional_command - line_parameters="",
verbose=True)
# Process: HillShade (3) (HillShade)
jtsk_pas5_area81_hillshade_tif = "C:\\Users\\michal\\Desktop\\_BP\\gis\\las_pasy_dem\\lastools\\area_n81\\hillshade\\jtsk_pas5_area81_hillshade.tif"
arcpy.HillShade_3d(in_raster=jtsk_pas5_area81_dem_tif,
out_raster=jtsk_pas5_area81_hillshade_tif,
azimuth=315,
altitude=45,
model_shadows="NO_SHADOWS",
z_factor=1)
# Process: lasthin (4) (lasthin)
lasthin(input_file=jtsk_pas6_area81_las,
grid_size=grid_size,
keep=keep,
output_format="",
output_file=jtsk_pas6_area81_thin_min_las,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: las2dem (4) (las2dem)
las2dem(input_file=jtsk_pas6_area81_thin_min_las,
step=0,
05,
kill_triangles_with_edges_longer_than=100,
item="elevation",
output="actual values",
sun_direction_for_hillside_shading="north east",
sun_position_for_hillside_shading="1 pm",
set_min__for_gray_ramp_and_false_colors_=None,
set_max__for_gray_ramp_and_false_colors_=None,
triangulate="all points",
use_tile_bounding_box=False,
closed_breaklines="",
open_breaklines="",
output_format="tif",
output_file=jtsk_pas6_area81_dem_tif,
output_directory="",
output_appendix="_dem",
additional_command - line_parameters="",
verbose=True)
# Process: HillShade (4) (HillShade)
jtsk_pas6_area81_hillshade_tif = "C:\\Users\\michal\\Desktop\\_BP\\gis\\las_pasy_dem\\lastools\\area_n81\\hillshade\\jtsk_pas6_area81_hillshade.tif"
arcpy.HillShade_3d(in_raster=jtsk_pas6_area81_dem_tif,
out_raster=jtsk_pas6_area81_hillshade_tif,
azimuth=315,
altitude=45,
model_shadows="NO_SHADOWS",
z_factor=1)
# Process: lasthin (5) (lasthin)
lasthin(input_file=jtsk_pas7_area81_las,
grid_size=grid_size,
keep=keep,
output_format="",
output_file=jtsk_pas7_area81_thin_min_las,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: las2dem (5) (las2dem)
las2dem(input_file=jtsk_pas7_area81_thin_min_las,
step=0,
05,
kill_triangles_with_edges_longer_than=100,
item="elevation",
output="actual values",
sun_direction_for_hillside_shading="north east",
sun_position_for_hillside_shading="1 pm",
set_min__for_gray_ramp_and_false_colors_=None,
set_max__for_gray_ramp_and_false_colors_=None,
triangulate="all points",
use_tile_bounding_box=False,
closed_breaklines="",
open_breaklines="",
output_format="tif",
output_file=jtsk_pas7_area81_dem_tif,
output_directory="",
output_appendix="_dem",
additional_command - line_parameters="",
verbose=True)
# Process: HillShade (5) (HillShade)
jtsk_pas7_area81_hillshade_tif = "C:\\Users\\michal\\Desktop\\_BP\\gis\\las_pasy_dem\\lastools\\area_n81\\hillshade\\jtsk_pas7_area81_hillshade.tif"
arcpy.HillShade_3d(in_raster=jtsk_pas7_area81_dem_tif,
out_raster=jtsk_pas7_area81_hillshade_tif,
azimuth=315,
altitude=45,
model_shadows="NO_SHADOWS",
z_factor=1)
# Process: lasthin (6) (lasthin)
lasthin(input_file=jtsk_pas8_area81_las,
grid_size=grid_size,
keep=keep,
output_format="",
output_file=jtsk_pas8_area81_thin_min_las,
output_directory="",
output_appendix="",
additional_command - line_parameters="",
verbose=True)
# Process: las2dem (6) (las2dem)
las2dem(input_file=jtsk_pas8_area81_thin_min_las,
step=0,
05,
kill_triangles_with_edges_longer_than=100,
item="elevation",
output="actual values",
sun_direction_for_hillside_shading="north east",
sun_position_for_hillside_shading="1 pm",
set_min__for_gray_ramp_and_false_colors_=None,
set_max__for_gray_ramp_and_false_colors_=None,
triangulate="all points",
use_tile_bounding_box=False,
closed_breaklines="",
open_breaklines="",
output_format="tif",
output_file=jtsk_pas8_area81_dem_tif,
output_directory="",
output_appendix="_dem",
additional_command - line_parameters="",
verbose=True)
# Process: HillShade (6) (HillShade)
jtsk_pas8_area81_hillshade_tif = "C:\\Users\\michal\\Desktop\\_BP\\gis\\las_pasy_dem\\lastools\\area_n81\\hillshade\\jtsk_pas8_area81_hillshade.tif"
arcpy.HillShade_3d(in_raster=jtsk_pas8_area81_dem_tif,
out_raster=jtsk_pas8_area81_hillshade_tif,
azimuth=315,
altitude=45,
model_shadows="NO_SHADOWS",
z_factor=1)
# Process: lasmerge (lasmerge)
jtsk_pas3_8_area81_las = "C:\\Users\\michal\\Desktop\\_BP\\Krkonose\\LiDAR\\area_81\\jtsk_pas3-8_area81.las"
lasmerge(input_file_1=jtsk_pas3_area81_las_2_,
input_file_2=jtsk_pas4_area81_las_2_,
input_file_3=jtsk_pas5_area81_las,
input_file_4=jtsk_pas6_area81_las,
input_file_5=jtsk_pas7_area81_las,
input_file_6=jtsk_pas8_area81_las,
input_file_7="",
input_file_8="",
input_file_9="",
output_file=jtsk_pas3_8_area81_las,
additional_command - line_parameters="",
verbose=True)