# Name: David Espinola
#Date: March, 8, 2019
#Description: Challenge 1- Write a script that creates a new polygon feature class containing a single (square) polygon with the following coordinates:
#(0,0) ,(0,1000),(1000,0) and (1000, 1000)
import arcpy
arcpy.env.workspace="C:/GEO6533/Python/Data/Exercise08"#set workspace and import arcpy
arcpy.env.overwriteOutput=True
poly_coords=[(0,0,0),(1,0,1000),(2,1000,1000),(3,1000,0)]#coordiantes of rectangle with id as first value
outpath="C:/GEO6533/Python/Data/Exercise08"
newfc="Results/challenge_1_poly.shp"
arcpy.CreateFeatureclass_management(outpath,newfc,"Polygon")#create the challenge_1_poly.shp feature class
cursor=arcpy.da.InsertCursor(newfc,["SHAPE@"])#initiate a search cursor to insert the geometry into feature class
array=arcpy.Array()#create array to hold coordinates of polygon
point=arcpy.Point()#create point object to create point geometry for polygon
for coords in poly_coords:#iterate over tuples in poly_coords list
ID,X,Y=coords#pull out individual values
point.ID=ID#assign id to id attribute of point class
point.X=X#assign X to X attribute of point class
point.Y=Y#assign Y to Y attribute of point class
array.add(point)#add the point to array
cursor.insertRow([arcpy.Polygon(array)])#create polygon object from point and insert into geometry field of feature class
del cursor#remove lock on feature class
# Name: David Espinola
#Date: March, 8, 2019
#Description: Challenge 2- Write a script that determines the perimeter (in meters) and area(in square meters) of each of the individual islands of the Hawaii.shp
#feature class. Recall that this is a multipart feature class
import arcpy
def execute_task(args):
in_extentDict, data, traj_list = args
fc_count = in_extentDict[0]
procExt = in_extentDict[1]
# print procExt
XMin = procExt[0]
YMin = procExt[1]
XMax = procExt[2]
YMax = procExt[3]
#set environments
arcpy.env.snapRaster = data['pre']['traj']['path']
arcpy.env.cellsize = data['pre']['traj']['path']
arcpy.env.outputCoordinateSystem = data['pre']['traj']['path']
arcpy.env.extent = arcpy.Extent(XMin, YMin, XMax, YMax)
# outData = numpy.zeros((rows,cols), numpy.int16)
outData = np.zeros((rws, cls), dtype=np.uint8)
### create numpy arrays for input datasets nlcds and traj
nlcds = {
1992:
arcpy.RasterToNumPyArray(
in_raster=
'C:\\Users\\Bougie\\Desktop\\Gibbs\\data\\usxp\\ancillary\\raster\\nlcd.gdb\\nlcd30_1992',
lower_left_corner=arcpy.Point(XMin, YMin),
nrows=rws,
ncols=cls),
2001:
arcpy.RasterToNumPyArray(
in_raster=
'C:\\Users\\Bougie\\Desktop\\Gibbs\\data\\usxp\\ancillary\\raster\\nlcd.gdb\\nlcd30_2001',
lower_left_corner=arcpy.Point(XMin, YMin),
nrows=rws,
ncols=cls),
2006:
arcpy.RasterToNumPyArray(
in_raster=
'C:\\Users\\Bougie\\Desktop\\Gibbs\\data\\usxp\\ancillary\\raster\\nlcd.gdb\\nlcd30_2006',
lower_left_corner=arcpy.Point(XMin, YMin),
nrows=rws,
ncols=cls),
2011:
arcpy.RasterToNumPyArray(
in_raster=
'C:\\Users\\Bougie\\Desktop\\Gibbs\\data\\usxp\\ancillary\\raster\\nlcd.gdb\\nlcd30_2011',
lower_left_corner=arcpy.Point(XMin, YMin),
nrows=rws,
ncols=cls),
}
arr_traj = arcpy.RasterToNumPyArray(in_raster=data['pre']['traj']['path'],
lower_left_corner=arcpy.Point(
XMin, YMin),
nrows=rws,
ncols=cls)
#### find the location of each pixel labeled with specific arbitray value in the rows list
#### note the traj_list is derived from the sql query above
nlcd_list = []
i = 0
for row in traj_list:
print 'i', i
traj = row[0]
ytc = row[1]
print 'ytc', ytc
yfc = row[2]
print 'yfc', yfc
#Return the indices of the pixels that have values of the ytc arbitray values of the traj.
indices = (arr_traj == row[0]).nonzero()
#stack the indices variable above so easier to work with
stacked_indices = np.column_stack((indices[0], indices[1]))
#get the x and y location of each pixel that has been selected from above
for pixel_location in stacked_indices:
row = pixel_location[0]
col = pixel_location[1]
####depending on year of conversion, append the value of the two previous nlcds
if ytc != None:
if ytc < 2012:
nlcd_list.append(nlcds[2001][row][col])
nlcd_list.append(nlcds[2006][row][col])
else:
nlcd_list.append(nlcds[2006][row][col])
nlcd_list.append(nlcds[2011][row][col])
elif yfc != None:
if yfc < 2012:
nlcd_list.append(nlcds[2001][row][col])
nlcd_list.append(nlcds[2006][row][col])
else:
nlcd_list.append(nlcds[2006][row][col])
nlcd_list.append(nlcds[2011][row][col])
# #get the length of nlcd list containing only the value 81 and 82
# ##81 = pasture/hay
# ##82 = cultivated crop
count_81 = nlcd_list.count(81)
count_82 = nlcd_list.count(82)
count_81_82 = count_81 + count_82
####create masks for both ytc and yfc ######################
##label the pixel ############################################################
# outData[row,col] = labelPixel(data, ytc, yfc, count_82, count_81_82)
i = i + 1
arcpy.ClearEnvironment("extent")
outname = "tile_" + str(fc_count) + '.tif'
# #create
outpath = os.path.join("C:/Users/Bougie/Desktop/Gibbs/data/", r"tiles",
outname)
# NumPyArrayToRaster (in_array, {lower_left_corner}, {x_cell_size}, {y_cell_size}, {value_to_nodata})
myRaster = arcpy.NumPyArrayToRaster(outData,
lower_left_corner=arcpy.Point(
XMin, YMin),
x_cell_size=30,
y_cell_size=30,
value_to_nodata=0)
##free memory from outdata array!!
outData = None
myRaster.save(outpath)
myRaster = None
def create_other_point(featuredata):
cur = None
try:
cur = arcpy.InsertCursor(featuredata)
fldname = [fldn.name for fldn in arcpy.ListFields(featuredata)]
for i in range(1, nrows):
L1 = table_coor.cell(
getRowIndex(
table_coor, table.cell(
i, getColumnIndex(
table, "POINTNUMBER")).value, "POINTNUMBER"), getColumnIndex(
table_coor, "X")).value
B1 = table_coor.cell(
getRowIndex(
table_coor, table.cell(
i, getColumnIndex(
table, "POINTNUMBER")).value, "POINTNUMBER"), getColumnIndex(
table_coor, "Y")).value
H1 = table_coor.cell(
getRowIndex(
table_coor, table.cell(
i, getColumnIndex(
table, "POINTNUMBER")).value, "POINTNUMBER"), getColumnIndex(
table_coor, "Z")).value
row = cur.newRow()
if L1:
point = arcpy.Point(
round(
float(L1), 8), round(
float(B1), 8), float(H1))
row.shape = point
for fldn in fldname:
for j in range(0, ncols):
#print 112
if fldn == (str(table.cell(0, j).value).strip()).upper():
# print table.cell(i, j).ctype
if table.cell(i, j).ctype == 3:
# print table.cell(i, j).ctype
date = xlrd.xldate_as_tuple(
table.cell(i, j).value, 0)
# print(date)
tt = datetime.datetime.strftime(
datetime.datetime(*date), "%Y-%m-%d")
try:
row.setValue(fldn, tt)
except Exception as e:
print e
else:
try:
row.setValue(fldn, table.cell(i, j).value)
except Exception as e:
print e
cur.insertRow(row)
except Exception as e:
# print e
# print "\t 请检查表:%s 是否表头没有删除中文字段及注释部分" % filename
arcpy.AddMessage(e)
arcpy.AddMessage("\t check table:%s chinese fieldname deleted" % filename)
arcpy.AddMessage(e)
else:
# print "导数数据表{0} {1}条数据".format(featuredata, nrows-1)
arcpy.AddMessage("\t table{0} finished dataloading {1}items".format(featuredata, nrows))
finally:
if cur:
del cur
def execute(self, parameters, messages):
"""The source code of the tool."""
distance = float(parameters[2].valueAsText)
azi = float(parameters[3].valueAsText)
report = parameters[4].valueAsText
latit_sp = float(parameters[1].valueAsText)
longit_sp = float(parameters[0].valueAsText)
#Calculates Angular Distance
ang_distance = distance / 6371
#Calculate the ending point latitude
p1 = math.sin(math.radians(latit_sp)) * math.cos(ang_distance)
p2 = math.cos(
math.radians(latit_sp)) * math.sin(ang_distance) * math.cos(
math.radians(azi))
lat_ep = math.degrees(math.asin(p1 + p2))
#Calculate the ending point longitude
p3 = math.sin(math.radians(azi)) * math.sin(ang_distance) * math.cos(
math.radians(latit_sp))
p4 = math.cos(ang_distance) - (math.sin(math.radians(latit_sp)) *
math.sin(math.radians(lat_ep)))
long_ep = longit_sp + math.degrees(math.atan2(p3, p4))
outshp = os.path.splitext(report)[0] + '.shp'
point = arcpy.Point(latit_sp, longit_sp)
end_point = arcpy.Point(lat_ep, long_ep)
ptGeometry = arcpy.PointGeometry(point)
ptGeometry2 = arcpy.PointGeometry(end_point)
degree = int(latit_sp)
r1 = 0
minutes = 0
seconds = 0
report_h = open(report, "w")
report_h.write("SP_Lat_DD" + "\n" + latit_sp)
# report_h.write("\nStarting Point Latitude: ")
#report_h.write(str(getDegree(latit_sp)) + "? " + str(getMinute(latit_sp)) + " minutes " + str(getSecond(latit_sp)) + " seconds")
report_h.write("SP_Lon_DD" + "\n" + longit_sp)
# report_h.write("\nStarting Point Longitude: ")
report_h.write(
str(getDegree(longit_sp)) + "? " + str(getMinute(longit_sp)) +
" minutes " + str(getSecond(longit_sp)) + " seconds")
report_h.write("\nYour Range in Kilometers: " + str(distance))
report_h.write("\nYour Range in Nautical Miles: " +
str(distance * 0.539957))
report_h.write("\nYour Range in Miles: " + str(distance * 0.621371))
report_h.write("\nYour Range in Yards: " + str(distance * 1093.61))
report_h.write("\nYour Range in Feet: " + str(distance * 3280.84))
report_h.write("\nYour Range in Meters: " + str(distance * 1000))
report_h.write("\nYour Azimuth in Degrees: " + str(azi))
report_h.write("\nEnding Point Latitude: " + str(lat_ep))
report_h.write("\nEnding Point Latitude: ")
report_h.write(
str(getDegree(lat_ep)) + "? " + str(getMinute(lat_ep)) +
" minutes " + str(getSecond(lat_ep)) + " seconds")
report_h.write("\nEnding Point Latitude: " + str(long_ep))
report_h.write("\nEnding Point Longitude: ")
report_h.write(
str(getDegree(long_ep)) + "? " + str(getMinute(long_ep)) +
" minutes " + str(getSecond(long_ep)) + " seconds")
report_h.close()
return
def createArea(inFeatures, limitingEdges, endNodes, range, unit):
#creates limit points on the limiting edges (based on remaining distances)
#computes centroid of limit points
#connects points in order of azimuth between centroid and Nth point
#smoothens polygon with Bezier interpolation algorithm
#adds graph ending points which were reached without limit
def azimuth(center_x, center_y, x, y):
angle = degrees(atan2(y - center_y, x - center_x))
az = (angle + 360) % 360
return az
#select all limiting edges
condition = ''
for fid in limitingEdges:
condition = condition + str(fid) + ','
condition = '"FID" IN (' + condition.rstrip(',') + ')'
arcpy.SelectLayerByAttribute_management(inFeatures, 'NEW_SELECTION',
condition)
pointList = []
with arcpy.da.SearchCursor(inFeatures, ['FID', 'SHAPE@', 'LENGTH']) as cur:
xSum = 0
ySum = 0
for row in cur:
fid = row[0]
polyline = row[1]
length = row[2]
dist = limitingEdges[fid]['dist']
endsSwitched = limitingEdges[fid]['switch']
#move point along the edge by the remaining distance value
rangePoint = polyline.positionAlongLine(dist)
xSum = xSum + rangePoint[0].X
ySum = ySum + rangePoint[0].Y
#if ends were switched the remaining distance is reversed for "rDistance" point attribute value
if endsSwitched:
dist = length - dist
pointList.append([0, dist, (rangePoint)])
centroid = (xSum / len(pointList), ySum / len(pointList))
i = 0
while i < len(pointList):
p = pointList[i]
az = azimuth(centroid[0], centroid[1], p[2][0].X, p[2][0].Y)
pointList[i][0] = az
i += 1
arcpy.SelectLayerByAttribute_management(inFeatures, 'CLEAR_SELECTION')
#create rangePoints layer
suffix = '__' + str(range) + '_' + unit
print('Creating limit points')
filename = 'rangePoints' + suffix + '.shp'
path = arcpy.env.workspace
filepath = os.path.join(path, filename)
arcpy.CreateFeatureclass_management(path, filename, 'POINT')
arcpy.AddField_management(filepath, 'rDistance')
arcpy.AddField_management(filepath, 'azimuth')
cursor = arcpy.da.InsertCursor(filepath,
['azimuth', 'rDistance', 'SHAPE@XY'])
for row in pointList:
cursor.insertRow(row)
del cursor
#connect points ordered by azimuth
inFeatures = filepath
filename = 'rangeLines' + suffix
filepath = os.path.join(path, filename)
arcpy.PointsToLine_management(inFeatures,
filepath,
Sort_Field='azimuth',
Close_Line='CLOSE')
arcpy.Delete_management(inFeatures)
#closed polyline to polygon
inFeatures = filepath + '.shp'
filename = 'rangeArea' + suffix + '.shp'
filepath = os.path.join(path, filename)
arcpy.FeatureToPolygon_management(inFeatures, filepath, "",
"NO_ATTRIBUTES", "")
polygon = filepath
arcpy.Delete_management(inFeatures)
#graph ending points visited
filename = 'pointsReachedWithoutLimit' + suffix + '.shp'
print('Creating reached graph ending points: ' + filename)
path = arcpy.env.workspace
filepath = os.path.join(path, filename)
arcpy.CreateFeatureclass_management(path, filename, 'POINT')
cursor = arcpy.da.InsertCursor(filepath, ['SHAPE@XY'])
for id in endNodes:
x = endNodes[id].x
y = endNodes[id].y
newPoint = arcpy.Point(x, y)
az = azimuth(centroid[0], centroid[1], x, y)
cursor.insertRow([arcpy.PointGeometry(newPoint)])
del cursor
#smoothen polygon
inFeatures = polygon
filename = 'smoothArea' + suffix + '.shp'
print('Creating smooth polygon: ' + filename)
filepath = os.path.join(path, filename)
arcpy.cartography.SmoothPolygon(inFeatures, filepath,
'BEZIER_INTERPOLATION', 0)
smoothPolygon = filepath
#check if polygon smoothened correctly, display normal polygon if it did not
with arcpy.da.SearchCursor(filepath, ['SHAPE@LENGTH']) as cursor:
for row in cursor:
if row[0] == None:
arcpy.Delete_management(smoothPolygon)
else:
arcpy.Delete_management(polygon)
break
arcpy.RefreshActiveView()
arcpy.RefreshTOC()
def onClick(self):
import arcpy
import os
import pythonaddins
# Restore Page Layout (from PageLayoutElements table) before running this script.
mxd = arcpy.mapping.MapDocument('CURRENT')
ddp = mxd.dataDrivenPages
pageName = str(ddp.pageRow.getValue(ddp.pageNameField.name))
df_lst = arcpy.mapping.ListDataFrames(mxd)
onMapDFs = []
# List of data frames on the current page.
for df in df_lst:
if (df.elementPositionX > 0
and df.elementPositionX < mxd.pageSize[0]
and df.elementPositionY > 0
and df.elementPositionY < mxd.pageSize[1]):
onMapDFs.append(df)
feature_info = []
for df in onMapDFs:
# Only creates geometry for data frames on the page. Also creates FGDB.
XMin = df.extent.XMin
YMin = df.extent.YMin
XMax = df.extent.XMax
YMax = df.extent.YMax
# A list of features and coordinate pairs
df_info = [[XMin, YMin], [XMax, YMin], [XMax, YMax], [XMin, YMax]]
feature_info.append(df_info)
# A list that will hold each of the Polygon objects
features = []
for feature in feature_info:
# Create a Polygon object based on the array of points
# Append to the list of Polygon objects
features.append(
arcpy.Polygon(
arcpy.Array([arcpy.Point(*coords) for coords in feature])))
# Persist a copy of the Polygon objects using CopyFeatures
poly_filename = "DF_Polygons_{}".format(pageName)
parentDir = os.path.abspath(
os.path.join(os.path.dirname(mxd.filePath), os.pardir))
edDir = os.path.join(parentDir, pageName)
if not os.path.exists(edDir):
os.makedirs(edDir)
outDir = os.path.join(edDir, "anno_fgdb")
if not os.path.exists(outDir):
os.makedirs(outDir)
workspace = arcpy.env.workspace = outDir
arcpy.CopyFeatures_management(features, poly_filename)
# Create FGDB(s).
for df in onMapDFs:
arcpy.CreateFileGDB_management(
workspace,
"{}_{}_{}_extentBoxes".format(pageName, df.name,
str(int(round(df.scale)))),
"CURRENT")
del coords, feature_info, features, feature, poly_filename, outDir, mxd, df_lst, df_info, df, XMax, XMin, YMax, YMin, ddp, pageName
# translate cardinal directions to quadrants
try:
if lat[-1] == 'N':
obs_lat = float(lat[:-1])
else:
obs_lat = float(lat[:-1] * -1)
if lon[-1] == 'W':
obs_lon = float(lon[:-1] * -1)
else:
obs_lon = float(lon[:-1])
print(tagID, obs_lat, obs_lon)
# create point object
obsPoint = arcpy.Point()
obsPoint.X = obs_lon
obsPoint.Y = obs_lat
# convert point to pointGeom
inputSR = arcpy.SpatialReference(
4326) # specify SR of argos pts (global lat/lon = WGS84)
obsPointGeom = arcpy.PointGeometry(obsPoint, inputSR)
# use insert cursor to add data to fc
feature = cursor_insert.insertRow(
(obsPointGeom, tagID, LC, date.replace('.', '/') + ' ' + time))
# the (()) was to squash a whole line into one argument
except Exception as e: # grabs all error lines (records with lat = '???')
print(f"Added error record {tagID} to error bucket")
cur.close()
con.close()
logger.info("order " + OrderIDText + " starting at: " +
time.strftime('%Y-%m-%d %H:%M:%S', time.localtime()))
arcpy.env.overwriteOutput = True
arcpy.env.OverWriteOutput = True
deliverfolder = OrderNumText
pdfreport_name = OrderNumText + "_US_FIM.pdf"
if coverInfotext["COUNTRY"] == 'MEX':
pdfreport_name = OrderNumText + "_MEX_FIM.pdf"
pdfreport = os.path.join(scratch, pdfreport_name)
point = arcpy.Point()
array = arcpy.Array()
sr = arcpy.SpatialReference()
sr.factoryCode = 4269 # requires input geometry is in 4269
sr.XYTolerance = .00000001
sr.scaleFactor = 2000
sr.create()
featureList = []
for feature in OrderCoord:
# For each coordinate pair, set the x,y properties and add to the Array object.
for coordPair in feature:
point.X = coordPair[0]
point.Y = coordPair[1]
sr.setDomain(point.X, point.X, point.Y, point.Y)
array.add(point)
area = row[1].getArea()
ptoa = perim / area
sqside = math.sqrt(area)
shapeindex = ((sqside * 4) / area) / ptoa
cperim = math.sqrt(area / math.pi) * 2 * math.pi
scircle = cperim / perim
pointList = []
#calculate ccircle
buf = row[1].buffer(0.01)
for part in buf:
for coord in part:
try:
pointList.append((coord.X, coord.Y))
except:
print "bad point"
c = SEC.make_circle(pointList)
circlearea = math.pi * c[2] * c[2]
ccircle = area / circlearea
print ptoa, shapeindex, scircle, ccircle
cp = arcpy.PointGeometry(arcpy.Point(c[0], c[1]))
print c
polygonbuf = cp.buffer(c[2])
row[1] = polygonbuf
row[2] = ptoa
# Three more times
cursor.updateRow(row)
def __mesh_to_point (row, col, nw_corner):
x = nw_corner.X + col*MIN_DIAMETER + .5*MIN_DIAMETER
y = nw_corner.Y - row*MIN_DIAMETER - .5*MIN_DIAMETER
return arcpy.Point(x,y)
arcpy.env.workspace = directory
table = arcpy.CreateTable_management("in_memory", "table1")
arcpy.AddField_management(table, "Field1", "TEXT", field_length=20)
cursor = arcpy.da.InsertCursor(table, ["Field1"])
cursor.insertRow(["Hello World"])
arcpy.TableToTable_conversion(table, directory, "Step_3_Output.csv")
# Example with a Shapefile
import os
points_list =[[20.000,43.000],[25.500, 45.085],[26.574, 46.025], [28.131, 48.124]]
pt = arcpy.Point()
ptGeoms = []
for p in points_list:
pt.X = p[0]
pt.Y = p[1]
ptGeoms.append(arcpy.PointGeometry(pt))
arcpy.CopyFeatures_management(ptGeoms, "in_memory/points")
# Lets do something with the shapefile, just print the OID
field = "OID"
cursor = arcpy.SearchCursor("in_memory/points")
row = cursor.next()
while row:
print(row.getValue(field))
row = cursor.next()
def __get_mesh_dim (polygon, center, tiers):
max_dim = tiers*2 + 1
nw_corner = arcpy.Point (center.X - tiers*MIN_DIAMETER, center.Y + tiers*MIN_DIAMETER)
rows_outside_extent = 2 * math.floor( (nw_corner.Y - polygon.extent.YMax) / MIN_DIAMETER )
cols_outside_extent = 2 * math.floor( (polygon.extent.XMin - nw_corner.X) / MIN_DIAMETER )
return max_dim - rows_outside_extent, max_dim - cols_outside_extent # This does not change the center point
def create_arcpy_polygon(polygon):
arcpy_polygon = arcpy.Polygon(
arcpy.Array([arcpy.Point(ppoint[0], ppoint[1]) for ppoint in polygon]))
return (arcpy_polygon)
def csv2line():
arcpy.env.overwriteOutput = True
inPt = arcpy.GetParameterAsText(0)
outFeature = arcpy.GetParameterAsText(1)
X = arcpy.GetParameterAsText(2)
Y = arcpy.GetParameterAsText(3)
Z = arcpy.GetParameterAsText(4)
idField = arcpy.GetParameterAsText(5)
reserveField = arcpy.GetParameterAsText(6)
maxvField = "MAX_V"
try:
outPath, outFC = os.path.split(outFeature)
#change C:\Users\leizengxiang\Desktop\drawCsvInArcgis to your directory, and change the wgs84.prj to your projection file
arcpy.CreateFeatureclass_management(
outPath, outFC, "POLYLINE", "", "DISABLED", "ENABLED",
"C:\Users\leizengxiang\Desktop\drawCsvInArcgis\\wgs84.prj")
field1 = arcpy.ListFields(inPt, idField)[0]
arcpy.AddField_management(outFeature, field1.name, field1.type)
if reserveField:
field2 = arcpy.ListFields(inPt, reserveField)[0]
arcpy.AddField_management(outFeature, field2.name, field2.type)
# Add v
arcpy.AddField_management(outFeature, maxvField, "double")
oCur, iCur, sRow, feat = None, None, None, None
shapeName = "Shape"
idName = "id"
oCur = arcpy.SearchCursor(inPt)
iCur = arcpy.InsertCursor(outFeature)
array = arcpy.Array()
ID = -1
PID = 0
LID = 0
if reserveField:
RESERVE = 0
MAXV = 0
TEMPV = 0
X1 = 0
X2 = 0
Y1 = 0
Y2 = 0
Z1 = 0
Z2 = 0
for sRow in oCur:
X2 = sRow.getValue(X)
Y2 = sRow.getValue(Y)
Z2 = sRow.getValue(Z)
pt = arcpy.Point(X2, Y2, Z2, None, PID)
PID += 1
currentValue = sRow.getValue(idField)
if ID == -1:
ID = currentValue
if reserveField:
RESERVE = sRow.getValue(reserveField)
X1 = X2
Y1 = Y2
Z1 = Z2
if ID <> currentValue:
if array.count >= 2:
feat = iCur.newRow()
feat.setValue(idField, ID)
feat.setValue(shapeName, array)
feat.setValue(idName, LID)
LID += 1
if reserveField:
feat.setValue(reserveField, RESERVE)
feat.setValue(maxvField, MAXV)
iCur.insertRow(feat)
else:
arcpy.AddIDMessage("WARNING", 1059, str(ID))
X1 = X2
Y1 = Y2
Z1 = Z2
MAXV = 0
array.removeAll()
if reserveField:
RESERVE = sRow.getValue(reserveField)
if (Z1 < Z2) and (X1 != X2 or Y1 != Y2):
TEMPV = 0.36 * getdis(X1, Y1, X2, Y2) / (Z2 - Z1) #KM/H
else:
TEMPV = 0
MAXV = getmax(MAXV, TEMPV)
array.add(pt)
X1 = X2
Y1 = Y2
Z1 = Z2
ID = currentValue
if array.count > 1:
feat = iCur.newRow()
feat.setValue(idField, currentValue)
feat.setValue(shapeName, array)
feat.setValue(idName, LID)
if reserveField:
feat.setValue(reserveField, RESERVE)
feat.setValue(maxvField, MAXV)
iCur.insertRow(feat)
else:
arcpy.AddIDMessage("WARNING", 1059, str(ID))
array.removeAll()
except Exception as err:
arcpy.AddError(err[0])
finally:
if oCur:
del oCur
if iCur:
del iCur
if sRow:
del sRow
if feat:
del feat
try:
# Update the spatial index(es)
#
r = arcpy.CalculateDefaultGridIndex_management(outFeature)
arcpy.AddSpatialIndex_management(outFeature, r.getOutput(0),
r.getOutput(1), r.getOutput(2))
except:
pass
def to_feature_class(self, gdb_path, gdb_name):
import arcpy
abspath = gdb_path
if (os.path.isabs(abspath) == False):
print "[INFO] The path %s for ESRI Geodatabase is not absolute." % (
gdb_path)
print "[INFO] Automatically changed to absolute by using the file path of this script."
abspath = os.path.join(os.getcwd(), abspath)
print "[INFO] New path: %s" % (abspath)
if not os.path.isdir(os.path.join(abspath, gdb_name)):
arcpy.CreateFileGDB_management(abspath, gdb_name)
self._workspace = os.path.join(abspath, gdb_name)
arcpy.env.workspace = self._workspace
print "[INFO] Now handle the file type of %s" % (self._name)
points = []
for (i, tuple) in enumerate(iter(self)):
#print str(tuple)
point = arcpy.Point(X=float(tuple[self._fieldName["Easting"]]),
Y=tuple[self._fieldName["Northing"]],
ID=i + 1)
points.append(
arcpy.PointGeometry(point, arcpy.SpatialReference(2326)))
arcpy.CopyFeatures_management(
points, os.path.join(self._workspace, self._category))
field_to_update = [k for k in self._fieldName.iterkeys()]
arcpy.AddField_management(in_table=self._category,
field_name="Name",
field_type="TEXT")
arcpy.AddField_management(in_table=self._category,
field_name="Address",
field_type="TEXT")
arcpy.AddField_management(in_table=self._category,
field_name="Longitude",
field_type="DOUBLE")
arcpy.AddField_management(in_table=self._category,
field_name="Latitude",
field_type="DOUBLE")
arcpy.AddField_management(in_table=self._category,
field_name="Easting",
field_type="DOUBLE")
arcpy.AddField_management(in_table=self._category,
field_name="Northing",
field_type="DOUBLE")
if self._fieldName.has_key("District"):
arcpy.AddField_management(in_table=self._category,
field_name="District",
field_type="TEXT")
if self._fieldName.has_key("Type"):
arcpy.AddField_management(in_table=self._category,
field_name="Type",
field_type="TEXT")
with arcpy.da.UpdateCursor(in_table=self._category,
field_names=field_to_update) as cursor:
for (i, row) in enumerate(cursor):
for (j, field) in enumerate(field_to_update):
row[j] = self._facilities[i][self._fieldName[field]]
cursor.updateRow(row)
def tail():
tupDateNow = datetime.now()
while (1):
# buka file csv untuk mengetahui scene yang telah selesai diproses
#arcpy.env.workspace = config.gdbPath
log = pd.read_csv("logComplete.csv")
liScene = log["scene"].tolist()
liDate = log["dateComplete"].tolist()
msg = str(datetime.now()) + '\t' + "Importing Library ... \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
arcpy.CheckOutExtension("spatial")
# pass list yang telah selesai ke ftp download
filenameNow, scene, boolScene, year, month = ft.downloadFile(liScene)
del log
del liScene
del liDate
if (boolScene == False):
print "Data hari ini selesai diproses"
tupDateLoop = datetime.now()
while (tupDateNow.day == tupDateLoop.day):
print "menunggu hari berganti :)"
time.sleep(10)
tupDateLoop = datetime.now()
tupDateNow = tupDateLoop
print "hari telah berganti"
#definisikan nama file yang akan diproses
filename = filenameNow
# definisikan nama file keluaran hasil klasifikasi yang masih mentah
filenameOut = filenameNow + "_classified.TIF"
# definisikan letak file ers yang telah didownload dalam workstation
dataPath = config.dataPath + scene + "/" + filename
# definisikan letak model .pkl hasil training data sampel
modelPath = config.modelPath
# definisikan shp file indonesia untuk cropping batas administrasi
shpPath = config.shpPath
# definisikan folder keluaran hasil proses
outFolder = config.outputPath + filename.split(".")[0]
# jika folder ada maka hapus
if (os.path.exists(outFolder)):
shutil.rmtree(outFolder)
# buat folder yang telah didefinisikan
os.makedirs(outFolder)
# definisikan path file keluaran
outputPath = outFolder + "/" + filenameOut
##################### KONVERSI DATA ERS KE TIAP BAND ######################################
print("converting b3")
if (os.path.exists(dataPath + "TOA_B3" + ".TIF")):
os.remove(dataPath + "TOA_B3" + ".TIF")
# Ambil hanya band 3 dan jadikan raster
try:
b_green = arcpy.Raster(dataPath + "/B3") * 1.0
except:
b_green = arcpy.Raster(dataPath + "/Band_3") * 1.0
print("saving b3")
msg = str(datetime.now()) + '\t' + "saving b3 \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
# save raster band 3 ke folder data input
b_green.save(dataPath + "TOA_B3" + ".TIF")
del b_green
print("converting b5")
if (os.path.exists(dataPath + "TOA_B5" + ".TIF")):
os.remove(dataPath + "TOA_B5" + ".TIF")
# Ambil hanya band 5 dan jadikan raster
try:
b_nir = arcpy.Raster(dataPath + "/B5") * 1.0
except:
b_nir = arcpy.Raster(dataPath + "/Band_5") * 1.0
print("saving b5")
msg = str(datetime.now()) + '\t' + "saving b5 \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
# save raster band 5 ke folder data input
b_nir.save(dataPath + "TOA_B5" + ".TIF")
del b_nir
print("converting b6")
if (os.path.exists(dataPath + "TOA_B6" + ".TIF")):
os.remove(dataPath + "TOA_B6" + ".TIF")
# Ambil hanya band 6 dan jadikan raster
try:
b_swir1 = arcpy.Raster(dataPath + "/B6") * 1.0
except:
b_swir1 = arcpy.Raster(dataPath + "/Band_6") * 1.0
msg = str(datetime.now()) + '\t' + "saving b6 \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
print("saving b6")
# save raster band 6 ke folder data input
b_swir1.save(dataPath + "TOA_B6" + ".TIF")
del b_swir1
####################### SELESAI KONVERSI DATA #######################################
#################### UBAH RASTER KE FORMAT DATAFRAME ###############################
msg = str(datetime.now()) + '\t' + "Processing file " + filename + "\n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
# load semua raster yang telah dikonversi diawal
rasterarrayband6 = arcpy.RasterToNumPyArray(dataPath + "TOA_B3.TIF")
rasterarrayband6 = np.array(rasterarrayband6, dtype=np.uint32)
rasterarrayband5 = arcpy.RasterToNumPyArray(dataPath + "TOA_B5.TIF")
rasterarrayband5 = np.array(rasterarrayband5, dtype=np.uint32)
rasterarrayband3 = arcpy.RasterToNumPyArray(dataPath + "TOA_B6.TIF")
rasterarrayband3 = np.array(rasterarrayband3, dtype=np.uint32)
print rasterarrayband6.dtype
print("Change raster format to numpy array")
# gabungkan 3 array data secara horizontal
data = np.array([
rasterarrayband6.ravel(),
rasterarrayband5.ravel(),
rasterarrayband3.ravel()
],
dtype=np.int16)
# ubah menjadi vertikal untuk kebutuhan prediksi .pkl
data = data.transpose()
# langsung hapus variabel yang tidak digunakan lagi
del rasterarrayband6
del rasterarrayband5
del rasterarrayband3
print("Change to dataframe format")
msg = str(datetime.now()) + '\t' + "Change to dataframe format \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
#time.sleep(1)
# definisikan nama kolom dataframe
columns = ['band3', 'band5', 'band6']
# ubah array vertical menjadi dataframe
df = pd.DataFrame(data, columns=columns)
# hapus array vertikal
del data
###################### SELESAI ####################################################
print("Split data to 20 chunks ")
msg = str(datetime.now()) + '\t' + "Split data to 20 chunks \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
#time.sleep(1)
# bagi data menjadi 20 bagian karena program tidak kuat prediksi sekaligus
df_arr = np.array_split(df, 20)
# hapus dataframe
del df
# load classifier (model pkl) yang telah di train
clf = joblib.load(modelPath)
# definisikan array untuk menampung nilai integer hasil prediksi
kelasAll = []
# ulangi untuk setiap bagian data
for i in range(len(df_arr)):
print("predicting data chunk-%s\n" % i)
msg = str(datetime.now()) + '\t' + "predicting data chunk-%s\n" % i
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
msg2 = i
redis.rpush(config.MESSAGES_KEY_2, msg2)
redis.publish(config.CHANNEL_NAME_2, msg2)
#time.sleep(1)
# fungi untuk prediksi data baru dengan data ke i
kelas = clf.predict(df_arr[i])
# buat dataframe kosong
dat = pd.DataFrame()
# masukkan hasil prediksi data ke i ke kolom kelas
dat['kel'] = kelas
print("mapping to integer class")
msg = str(datetime.now()) + '\t' + "mapping to integer class \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
#time.sleep(1)
# definisikan dictionary untuk ubah string kelas ke integer kelas prediksi
mymap = {'awan': 1, 'air': 2, 'tanah': 3, 'vegetasi': 4}
# fungsi map dengan parameter dictionary
dat['kel'] = dat['kel'].map(mymap)
# ubah kolom dataframe ke array
band1Array = dat['kel'].values
# ubah array ke numpy array dengan tipe unsigned 8 untuk menghindari memory error
band1Array = np.array(band1Array, dtype=np.uint8)
print("extend to list")
msg = str(datetime.now()) + '\t' + "extend to list \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
#time.sleep(1)
#kelasAllZeros[] = band1Array
# masukkan numpy aray ke list prediksi
kelasAll.extend(band1Array.tolist())
# mencoba cek array hasil prediksi
print(kelasAll[1:10])
# hapus semua variabel yang tidak digunakan lagi
del df_arr
del clf
del kelas
del dat
del band1Array
print("change list to np array")
msg = str(datetime.now()) + '\t' + "change list to np array \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
# ubah list prediksi ke numpy array
kelasAllArray = np.array(kelasAll, dtype=np.uint8)
# hapus list prediksi
del kelasAll
print("reshaping np array")
msg = str(datetime.now()) + '\t' + "reshaping np array \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
rasterarrayband6 = arcpy.RasterToNumPyArray(dataPath + "TOA_B3.TIF")
# reshape numpy array 1 dimensi ke dua dimensi sesuai format raster
band1 = np.reshape(kelasAllArray, (-1, rasterarrayband6[0].size))
# ubah tipe data ke unsigned integer
band1 = band1.astype(np.uint8)
del rasterarrayband6
# load raster band6 untuk kebutuhan projeksi dan batas batas raster
raster = arcpy.Raster(dataPath + "TOA_B6.TIF")
inputRaster = dataPath + "TOA_B6.TIF"
# ambil referensi spatial
spatialref = arcpy.Describe(inputRaster).spatialReference
# ambil tinggi dan lebar raster
cellsize1 = raster.meanCellHeight
cellsize2 = raster.meanCellWidth
# definisikan extent dari raster dan point dari extent
extent = arcpy.Describe(inputRaster).Extent
pnt = arcpy.Point(extent.XMin, extent.YMin)
# hapus yang tidak dipakai lagi
del raster
del kelasAllArray
# save the raster
print("numpy array to raster ..")
msg = str(datetime.now()) + '\t' + "numpy array to raster .. \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
# ubah numpy array ke raster dengan atribut yang telah didefinisikan
out_ras = arcpy.NumPyArrayToRaster(band1, pnt, cellsize1, cellsize2)
arcpy.CheckOutExtension("Spatial")
print("define projection ..")
msg = str(datetime.now()) + '\t' + "define projection ..\n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
# simpan raster hasil konversi ke path yang telah didefinisikan
arcpy.CopyRaster_management(out_ras, outputPath)
# definisikan projeksi dengan referensi spatial
arcpy.DefineProjection_management(outputPath, spatialref)
print("Majority Filter..")
msg = str(datetime.now()) + '\t' + "majority filter..\n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
#overwriteoutputPath outputPath enable
arcpy.env.workspace = config.outputPath
arcpy.env.overwriteOutput = True
#majority filter
arcpy.CheckOutExtension("Spatial")
outMajFilt = MajorityFilter(outputPath, "FOUR", "MAJORITY")
#Save the output
outMajFilt.save(outputPath)
# hapus yang tidak digunakan lagi
del out_ras
del band1
del spatialref
del cellsize1
del cellsize2
del extent
del pnt
########################### MASKING CLOUD AND BORDER #########################
print("Masking Cloud")
# load file cm hasil download yang disediakan
mask = Raster(
os.path.dirname(dataPath) + "/" + filename.split(".")[0] +
"_cm.ers")
# load raster hasil klasifikasi mentah
inRas = Raster(outputPath)
# jika file cm bernilai 1 = cloud, 2 = shadow, 11 = border
# ubah nilai tersebut menjadi 1 dan lainnya menjadi 0
#inRas_mask = Con((mask == 1), 1, Con((mask == 2), 1, Con((mask == 11), 1, 0)))
inRas_mask = Con((mask == 1), 1,
Con((mask == 2), 1,
Con((mask == 11), 1,
Con((mask == 3), 1,
Con((mask == 4), 1,
Con((mask == 5), 1,
Con((mask == 6), 1,
Con((mask == 7), 1, 0))))))))
# buat raster yang merupakan nilai no data dari hasil kondisi diatas, hasilnya nodata = 1
# saya juga tidak mengerti yang bukan cloud jadi no data
mask2 = IsNull(inRas_mask)
# jika raster bernilai 1 maka ubah jadi 0, jika tidak tetap nilai raster hasil kondisi
inRas2 = Con((mask2 == 1), 0, inRas_mask)
# simpan raster pure dimana semua nilai 1 akan dihilangkan dari hasil klasifikasi
inRas2.save(
os.path.dirname(outputPath) + "/" + filenameOut.split(".")[0] +
"_mask.TIF")
# jika raster bernilai 1 maka jadi no data, jika tidak maka tetap si raster hasil awal
inRas_mask2 = SetNull(inRas2 == 1, inRas)
# simpan raster yang telah bersih dari cloud dan border yang jelek
inRas_mask2.save(
os.path.dirname(outputPath) + "/" + filenameOut.split(".")[0] +
"_maskCloud.TIF")
# hapus variabel conditional yang tidak digunakan lagi
del mask
del mask2
del inRas
del inRas2
del inRas_mask
del inRas_mask2
############################## SELESAI ###########################################
####################### MASKING DENGAN SHP INDONESIA ##############################
print("Masking with shp indonesia")
arcpy.CheckOutExtension("Spatial")
# buka file shp indonesia
inMaskData = os.path.join(shpPath, "INDONESIA_PROP.shp")
# buka raster hasil masking cloud dan border
inRasData = Raster(
os.path.dirname(outputPath) + "/" + filenameOut.split(".")[0] +
"_maskCloud.TIF")
# terapkan fungsi masking dengan shapefile
try:
outExtractByMask = ExtractByMask(inRasData, inMaskData)
print(
"Saving in: " + str(
os.path.dirname(outputPath) + "/" +
filenameOut.split(".")[0] + "_maskShp.TIF"))
# simpan hasil masking
outExtractByMask.save(
os.path.dirname(outputPath) + "/" + filenameOut.split(".")[0] +
"_maskShp.TIF")
finalPath = config.finalOutputPath + year + "/" + month + "/" + filenameNow.split(
".")[0]
print finalPath
if (os.path.exists(finalPath)):
shutil.rmtree(finalPath)
os.makedirs(finalPath)
arcpy.CopyRaster_management(outExtractByMask,
finalPath + "/" + filenameOut)
# hapus lagi dan lagi variabel yang tidak digunakan
del inMaskData
del inRasData
del outExtractByMask
except:
print "diluar indonesia shp"
finalPath = config.finalOutputPath + year + "/" + month + "/" + filenameNow.split(
".")[0]
print finalPath
if (os.path.exists(finalPath)):
shutil.rmtree(finalPath)
os.makedirs(finalPath)
arcpy.CopyRaster_management(inRasData,
finalPath + "/" + filenameOut)
pass
########################## SELESAI ################################################
####################### SAVE LOG DATA YANG TELAH SELESAI DIPROSES ########################################
log = pd.read_csv("logComplete.csv")
liScene = log["scene"].tolist()
liDate = log["dateComplete"].tolist()
liScene.append(scene)
liDate.append(str(datetime.now()))
print(liScene)
print(liDate)
serScene = pd.Series(liScene)
serDate = pd.Series(liDate)
print(serScene)
print(serDate)
log2 = pd.DataFrame()
log2["scene"] = serScene
log2["dateComplete"] = serDate
print(log2.head(5))
log2.to_csv("logComplete.csv", index=False)
del liScene
del liDate
del serScene
del serDate
del log
del log2
##########################################################################################################
# delete downloaded data in workstation
dataFolder = os.listdir(config.dataPath)
print dataFolder
if (len(dataFolder) > 1):
print config.dataPath + dataFolder[0]
shutil.rmtree(config.dataPath + dataFolder[0])
hasilFolder = os.listdir(config.outputPath)
print hasilFolder
if (len(hasilFolder) > 1):
print config.outputPath + hasilFolder[0]
shutil.rmtree(config.outputPath + hasilFolder[0])
print("Finished ..")
msg = str(datetime.now()) + '\t' + "Finished ... \n"
redis.rpush(config.MESSAGES_KEY, msg)
redis.publish(config.CHANNEL_NAME, msg)
redis.delete(config.MESSAGES_KEY)
redis.delete(config.MESSAGES_KEY_2)
# local variable to list
dictLocal = locals()
# delete all local variable, hope will free some space
for key in dictLocal.keys():
del key
clear_all()
# bersih bersih lainnya
gc.collect()
#shutil.rmtree(config.gdbPath)
arcpy.Delete_management(config.gdbPathDefault)
arcpy.Delete_management("in_memory")
arcpy.env.overwriteOutput = True
def Generate_Shapes_Straight(Created_Street_Output):
'''Generate route shapes as straight lines between stops.'''
arcpy.AddMessage(
"Generating straight-line route shapes for routes of the following types, if they exist in your data:"
)
for rtype in route_type_Straight_textlist:
arcpy.AddMessage(rtype)
arcpy.AddMessage("(This step may take a while for large GTFS datasets.)")
# If we didn't already create the output feature class with the Street-based routes, create it now.
if not Created_Street_Output or not arcpy.Exists(outRoutesfc):
arcpy.management.CreateFeatureclass(outGDB, outRoutesfcName,
"POLYLINE", '', '', '', WGSCoords)
arcpy.management.AddField(outRoutesfc, "Name", "TEXT")
spatial_ref = WGSCoords
else:
spatial_ref = arcpy.Describe(outRoutesfc).spatialReference
# ----- Create polylines using stops as vertices -----
arcpy.AddMessage("- Generating polylines using stops as vertices")
# Set up insertCursors for output shapes polylines and stop sequences
# Have to open an edit session to have two simultaneous InsertCursors.
edit = arcpy.da.Editor(outGDB)
ucursor = arcpy.da.InsertCursor(outRoutesfc, ["SHAPE@", "Name"])
cur = arcpy.da.InsertCursor(outSequencePoints, [
"SHAPE@X", "SHAPE@Y", "shape_id", "sequence", "CurbApproach", "stop_id"
])
edit.startEditing()
badStops = []
for sequence in sequence_shape_dict:
shape_id = sequence_shape_dict[sequence]
route_id = sequence[0]
route_type = RouteDict[route_id][4]
if route_type in route_types_Straight or shape_id in NoRouteGenerated:
sequence_num = 1
# Add stop sequence to an Array of Points
array = arcpy.Array()
pt = arcpy.Point()
for stop in sequence[1]:
try:
stop_lat = stoplatlon_dict[stop][0]
stop_lon = stoplatlon_dict[stop][1]
except KeyError:
if shape_id not in NoRouteGenerated:
# Don't repeat a warning if they already got it once.
badStops.append(stop)
sequence_num += 1
continue
pt.X = float(stop_lon)
pt.Y = float(stop_lat)
# Add stop sequences to points fc for user to look at.
cur.insertRow((float(stop_lon), float(stop_lat), shape_id,
sequence_num, CurbApproach, stop))
sequence_num = sequence_num + 1
array.add(pt)
# Generate a Polyline from the Array of stops
polyline = arcpy.Polyline(array, WGSCoords)
# Project the polyline to the correct output coordinate system.
if spatial_ref != WGSCoords:
polyline.projectAs(spatial_ref)
# Add the polyline to the Shapes feature class
ucursor.insertRow((polyline, shape_id))
del ucursor
del cur
edit.stopEditing(True)
if badStops:
badStops = list(set(badStops))
messageText = "Your stop_times.txt lists times for the following stops which are not included in your stops.txt file. These stops will be ignored. "
if ProductName == "ArcGISPro":
messageText += str(badStops)
else:
messageText += unicode(badStops)
arcpy.AddWarning(messageText)
]
#Verarbeitungsausdehnung festlegen
arcpy.env.extent = arcpy.Extent(xmin, ymin, xmax, ymax,
"ETRS_1989_UTM_Zone_32N")
#Mergen in aktueller Ausdehnung
arcpy.Merge_management(rauhList, "mergetemp", "")
#FeatureClass und Feature zum Ausschneiden erstellen
arcpy.CreateFeatureclass_management(
r"X:\05_Basisdaten\Rauhigkeiten\Corine2006_V17.gdb", "cliptemp", "POLYGON",
"", "", "", sr)
#Punkte zu Array
array = arcpy.Array([
arcpy.Point(xmin, ymin),
arcpy.Point(xmin, ymax),
arcpy.Point(xmax, ymax),
arcpy.Point(xmax, ymin)
])
#Polygon erstellen
clipPoly = arcpy.Polygon(array)
#InsertCursor erstellen
cur = arcpy.da.InsertCursor("cliptemp", ["Shape@"])
#Zeile einfuegen
cur.insertRow([clipPoly])
#Cursor loeschen
#create list of bearings
angles = range(0, 360,angle)
for ang in angles:
# calculate offsets with trig
angle = float(int(ang))
(disp_x, disp_y) = (distance * sin(radians(angle)), distance * cos(radians(angle)))
(end_x, end_y) = (origin_x + disp_x, origin_y + disp_y)
(end2_x, end2_y) = (origin_x + disp_x, origin_y + disp_y)
cur = arcpy.InsertCursor(OutputFeature)
lineArray = arcpy.Array()
# start point
start = arcpy.Point()
(start.ID, start.X, start.Y) = (1, origin_x, origin_y)
lineArray.add(start)
# end point
end = arcpy.Point()
(end.ID, end.X, end.Y) = (2, end_x, end_y)
lineArray.add(end)
# write our fancy feature to the shapefile
feat = cur.newRow()
feat.shape = lineArray
cur.insertRow(feat)
# yes, this shouldn't really be necessary...
lineArray.removeAll()
def update_position(self, lon, lat):
self.ship_position = arcpy.Point(lon, lat)
# Step through each vertex in the feature
#
for pnt in part:
if pnt:
# Print x,y coordinates of current point
#
points.append((pnt.X, pnt.Y))
#print("{0}, {1}".format(pnt.X, pnt.Y))
else:
# If pnt is None, this represents an interior ring
#
pass
#print("Interior Ring:")
partnum += 1
try:
circledef = SEC.make_circle(points)
cp = arcpy.PointGeometry(arcpy.Point(circledef[0], circledef[1]))
scc = cp.buffer(circledef[2])
#HOW TO CALCULATE???
CIRCLE = geo.area / scc.area
print row[0], CIRCLE
row[1] = scc
cursor.updateRow(row)
except:
print row[0] + " Did not work"
del cursor, row
def create_thiessen_points(study_area, side_length, output_fc):
"""Creates points spaced such that Thiessen polygons will be hexagons.
Arguments:
study_area -- feature class defining area of interest
side_length -- length of regular hexagon side
output_fc -- name and location of output feature class
Remarks:
Hexagons can be created for Thiessen polygons built from points spaced
in a pattern like the one below.
* * * *
* * *
* * * *
* * *
* * * *
"""
# Validate inputs
count = int(str(arcpy.GetCount_management(study_area)))
if count == 0:
arcpy.AddError('Error: No features found in ' + str(study_area))
return
side_length = float(side_length)
if side_length <= 0:
arcpy.AddError('Error: Hexagon side length must be greater than zero.')
return
# Determine point spacing
dx = 3.0 * side_length
dy = side_length / 2.0 * math.sqrt(3.0)
indent = dx / 2
# Get the extent of the study area.
# If in ArcMap, make sure we use feature coordinates, not map coordinates.
desc = arcpy.Describe(study_area)
if desc.dataType == "FeatureLayer":
desc = arcpy.Describe(desc.featureClass.catalogPath)
ext = desc.extent
# Determine number of rows and columns. Add extra just to be sure.
xmin = ext.XMin - dx
ymin = ext.YMin - dy * 3.0
xmax = ext.XMax + dx
ymax = ext.YMax + dy * 3.0
num_rows = int((ymax - ymin) / dy) + 1
num_cols = int((xmax - xmin) / dx) + 2
# Create the output feature class
spatial_ref = desc.spatialReference
workspace = os.path.dirname(output_fc)
fc_name = os.path.basename(output_fc)
fc = arcpy.CreateFeatureclass_management(
workspace, fc_name, "POINT", "", "", "", spatial_ref)
# Populate output features
arcpy.AddMessage('Creating ' + str(num_rows * num_cols) + ' points...')
cursor = arcpy.InsertCursor(output_fc)
feature = None
try:
y = ymin
for r in range(num_rows):
x = xmin - indent / 2
if r % 2 != 0:
x += indent
for c in range(num_cols):
feature = cursor.newRow()
p = arcpy.Point()
p.X = x
p.Y = y
feature.shape = p
cursor.insertRow(feature)
x += dx
y += dy
finally:
if feature:
del feature
if cursor:
del cursor
def switchPointsToNodes(routes, county_indexing, nodes_data):
"""
change the x-y coordinates for non-bus stops to actual nodes
return a list of node entries to append to the node file
"""
#return: stop_nodes = ['N','X','Y','COUNTY','MODE','TYPE','ID']
point_list = {}
point_mode = {}
id = 100 # to ensure we aren't accidentally matching ids
for route in routes:
for point in routes[route][2]:
if not point in point_list:
point_list[point] = id
point_mode[id] = {}
id += 1
point_mode[point_list[point]][routes[route][
3]] = None # will be used to check if nodes are shared by different modes
arcpy.env.workspace = WORKING_GDB
arcpy.env.overwriteOutput = True
pt = arcpy.Point()
out_coordinate_system = os.path.join(arcpy.GetInstallInfo()['InstallDir'],
NAD_83_DIRECTORY)
spatial_ref = arcpy.SpatialReference(out_coordinate_system)
pt_geoms = []
point_order = []
for point in point_list:
pt.X = point[0]
pt.Y = point[1]
point_order.append(point_list[point])
pt_geoms.append(arcpy.PointGeometry(pt, spatial_ref))
nodes_layer = 'non_bus_nodes'
if arcpy.Exists(nodes_layer):
arcpy.Delete_management(nodes_layer)
arcpy.CopyFeatures_management(pt_geoms, nodes_layer)
node_map = {}
stop_nodes = []
node_layer = 'node_layer'
arcpy.MakeFeatureLayer_management(nodes_layer, node_layer)
county_layer = 'county_layer'
nc_layer = 'node_county_layer'
neg_counter = -100 #placeholder for old ids
for i in range(len(COUNTY_MAP)):
arcpy.MakeFeatureLayer_management(
SOURCE_COUNTY, county_layer,
COUNTY_ID_FIELD + " = '" + COUNTY_MAP[i] + "'")
arcpy.SelectLayerByLocation_management(node_layer, 'WITHIN',
county_layer)
arcpy.MakeFeatureLayer_management(node_layer, nc_layer)
arcpy.AddXY_management(nc_layer)
rows = arcpy.SearchCursor(nc_layer, '', '', 'OBJECTID;POINT_X;POINT_Y')
for row in rows:
id = point_order[row.OBJECTID - 1]
x = row.POINT_X
y = row.POINT_Y
n = county_indexing[i]
county_indexing[i] += 1
node_map[id] = n
modes = point_mode[id]
if len(modes) > 1:
print 'more than one mode for ' + str(
(x, y)) + ' : ' + str(modes)
stop_nodes.append([n, x, y, i + 1, modes.keys()[0], 0, 0])
nodes_data[neg_counter] = [x, y, n, None]
neg_counter -= 1
for route in routes:
for point in range(len(routes[route][2])):
routes[route][2][point] = node_map[point_list[routes[route][2]
[point]]]
return stop_nodes
def import_gpx(gpx_file, wpt_fc, trk_fc):
GCS_WGS_84 = arcpy.SpatialReference(4326)
GCS_TRANSFORMS = 'WGS_1984_(ITRF08)_To_NAD_1983_2011; NAD_1927_To_NAD_1983_NADCON'
arcpy.env.geographicTransformations = arcpy.env.geographicTransformations or GCS_TRANSFORMS
arcpy.AddMessage('Geographic Transformations: %s' % arcpy.env.geographicTransformations)
scratch = arcpy.env.scratchWorkspace
arcpy.env.addOutputsToMap = False
WPT_FIELDS = [
('ELEVATION', 'gpx:ele'),
('TIME', 'gpx:time'),
('NAME', 'gpx:name'),
('DESCRIPTION', 'gpx:desc'),
('SYMBOL', 'gpx:sym'),
('TYPE', 'gpx:type'),
('SAMPLES', 'gpx:extensions/wptx1:WaypointExtension/wptx1:Samples')
]
ns = {
'gpx': 'http://www.topografix.com/GPX/1/1',
'gpxx': 'http://www.garmin.com/xmlschemas/GpxExtensions/v3',
'wptx1': 'http://www.garmin.com/xmlschemas/WaypointExtension/v1',
'ctx': 'http://www.garmin.com/xmlschemas/CreationTimeExtension/v1',
}
etree.register_namespace('', 'http://www.topografix.com/GPX/1/1')
etree.register_namespace('gpxx', 'http://www.garmin.com/xmlschemas/GpxExtensions/v3')
etree.register_namespace('wptx1', 'http://www.garmin.com/xmlschemas/WaypointExtension/v1')
etree.register_namespace('ctx', 'http://www.garmin.com/xmlschemas/CreationTimeExtension/v1')
gpx = etree.parse(gpx_file).getroot()
sr = arcpy.env.outputCoordinateSystem
if wpt_fc:
create_points_feature_class(wpt_fc, sr)
waypoints = []
for wpt in gpx.findall('gpx:wpt', ns):
x, y = wpt.get('lon'), wpt.get('lat')
row = [arcpy.PointGeometry(arcpy.Point(x, y), GCS_WGS_84).projectAs(sr)]
for field, tag in WPT_FIELDS:
elem = wpt.find(tag, ns)
if elem is None:
row.append(None)
elif field == 'ELEVATION':
row.append('%0.4f' % (float(elem.text) / sr.metersPerUnit))
elif field == 'NAME' and elem.text.isdigit():
row.append('%d' % int(elem.text))
else:
row.append(elem.text)
waypoints.append(row)
if waypoints:
fields = ['SHAPE@'] + [f[0] for f in WPT_FIELDS]
cur = arcpy.da.InsertCursor(wpt_fc, fields)
for row in waypoints:
cur.insertRow(row)
del cur
if trk_fc:
# idle time between trkpts to start a new track segment
TRKSEG_IDLE_SECS = 600
tracks = []
track_num = 0
for trk in gpx.findall('gpx:trk', ns):
track_num += 1
elem = trk.find('gpx:name', ns)
if elem is None:
track_name = 'track-%04d' % track_num
else:
track_name = elem.text
track_pts = []
dt_last = None
segment_num = 0
for trkpt in trk.findall('./gpx:trkseg/gpx:trkpt', ns):
x, y = trkpt.get('lon'), trkpt.get('lat')
pt = arcpy.PointGeometry(arcpy.Point(x, y), GCS_WGS_84).projectAs(sr).firstPoint
# See if there's a track point time
elem = trkpt.find('gpx:time', ns)
if elem is None:
dt_last = None
else:
dt = utils.default_tzinfo(parser.parse(elem.text), tz.UTC)
if dt_last and (dt - dt_last).seconds > TRKSEG_IDLE_SECS:
# start a new segment
if len(track_pts) > 1:
segment_num += 1
if segment_num > 1:
segment_name = '%s SEG-%04d' % (track_name, segment_num)
else:
segment_name = track_name
geom = arcpy.Polyline(arcpy.Array(track_pts), sr)
tracks.append([geom , segment_name, len(track_pts)])
else:
arcpy.AddMessage('Skipping track "%s": track_pts=%d' % (track_name, len(track_pts)))
track_pts = []
dt_last = dt
track_pts.append(pt)
if len(track_pts) > 1:
segment_num += 1
if segment_num > 1:
segment_name = '%s SEG-%04d' % (track_name, segment_num)
else:
segment_name = track_name
geom = arcpy.Polyline(arcpy.Array(track_pts), sr)
tracks.append([geom, segment_name, len(track_pts)])
else:
arcpy.AddMessage('Skipping track "%s": track_pts=%d' % (track_name, len(track_pts)))
if tracks:
temp_fc = os.path.join(scratch, os.path.basename(trk_fc) + '_Temp')
if sr is None:
arcpy.AddError('Geoprocessing environment not set: outputCoordinateSystem')
return None
fc = mgmt.CreateFeatureclass(*os.path.split(temp_fc), geometry_type='POLYLINE', spatial_reference=sr)
mgmt.AddField(fc, 'NAME', 'TEXT', field_length=64)
mgmt.AddField(fc, 'POINTS', 'LONG')
cur = arcpy.da.InsertCursor(fc, ('SHAPE@', 'NAME', 'POINTS'))
for row in tracks:
cur.insertRow(row)
del cur
mgmt.CopyFeatures(temp_fc, trk_fc)
del fc
def createExtentBoxes(mxdPath):
try:
# Restore Page Layout (from PageLayoutElements table) before running this script.
mxd = arcpy.mapping.MapDocument(mxdPath)
ddp = mxd.dataDrivenPages
pageName = str(ddp.pageRow.getValue(ddp.pageNameField.name))
df_lst = arcpy.mapping.ListDataFrames(mxd)
# Set the main dataframe variable.
try:
MDF = arcpy.mapping.ListDataFrames(mxd, "MDF")[0]
except IndexError:
MDF = arcpy.mapping.ListDataFrames(mxd)[0]
log.info("MXD path: {}".format(mxd.filePath))
log.info("Page Name: {}".format(pageName))
onMapDFs = []
# List of data frames on the current page.
for df in df_lst:
if (df.elementPositionX > 0 and df.elementPositionX < mxd.pageSize[0] and df.elementPositionY > 0 and df.elementPositionY < mxd.pageSize[1]):
onMapDFs.append(df)
feature_info = []
XMin = MDF.extent.XMin
YMin = MDF.extent.YMin
XMax = MDF.extent.XMax
YMax = MDF.extent.YMax
# A list of features and coordinate pairs
df_info = [[XMin, YMin], [XMax, YMin], [XMax, YMax], [XMin, YMax]]
feature_info.append(df_info)
# A list that will hold each of the Polygon objects
features = []
for feature in feature_info:
# Create a Polygon object based on the array of points
# Append to the list of Polygon objects
features.append(arcpy.Polygon(arcpy.Array([arcpy.Point(*coords) for coords in feature])))
# Persist a copy of the Polygon objects using CopyFeatures
poly_filename = "DF_Polygons_{}".format(pageName)
parentDir = os.path.abspath(os.path.join(os.path.dirname(mxd.filePath), os.pardir))
edDir = os.path.join(parentDir, pageName)
outDir = os.path.join(edDir, "anno_fgdb")
if not os.path.exists(outDir):
os.makedirs(outDir)
workspace = arcpy.env.workspace = outDir
log.info("Output directory set to {}".format(outDir))
poly_shp = os.path.join(workspace, poly_filename)
for filename in glob.glob(poly_shp + "*"):
os.remove(filename)
arcpy.CopyFeatures_management(features, poly_filename)
removeFGDBs(workspace)
createFGDBs(onMapDFs, workspace)
del coords, feature_info, features, feature, poly_filename, outDir, mxd, df_info, XMax, XMin, YMax, YMin, ddp, pageName
except Exception as e:
log.info("An error occured: {}".format(e))
curSfc = arcpy.da.SearchCursor(fc,["SHAPE@XY","FID"])
def retFID(X):
sql = (""""FID" = {0}""").format(X)
arcpy.AddMessage("Creating line for"+sql)
cur= arcpy.da.SearchCursor(fc,["FID","SHAPE@XY"],sql)
for i in cur:
return i[1]
del cur
#=====================Create polyine=============================#
for m,n in pair:
coordS = retFID(m)
coordE = retFID(n)
array = arcpy.Array([arcpy.Point(coordS[0], coordS[1]),arcpy.Point(coordE[0], coordE[1])])
polyline = arcpy.Polyline(array)
curI.insertRow([polyline])
array.removeAll()
del curI,curSfc
arcpy.Delete_management(distance)
try:
shutil.rmtree(r"C:\temp")
except:
pass
print "Completed Line Generation"
def f7():
for y in range(2015, 2018):
path = 'F:/Test/Data/LST/'
path2 = path + 'LTN8D/' + str(y) + '/' # LTD8D
files = os.listdir(path2)
Input_file = []
for i in range(0, len(files)):
if os.path.splitext(files[i])[1] == '.tif': # "文件获取"
Input_file.append(path2 + files[i])
mFiles = [[] for i in range(0, 12)]
for i in range(0, len(Input_file)):
if (int(Input_file[i][41:44]) > 0
and int(Input_file[i][41:44]) < 31):
mFiles[0].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 31
and int(Input_file[i][41:44]) < 53):
mFiles[1].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 53
and int(Input_file[i][41:44]) < 60):
mFiles[1].append(Input_file[i])
mFiles[2].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 60
and int(Input_file[i][41:44]) < 83):
mFiles[2].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 83
and int(Input_file[i][41:44]) < 91):
mFiles[2].append(Input_file[i])
mFiles[3].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 91
and int(Input_file[i][41:44]) < 121):
mFiles[3].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 121
and int(Input_file[i][41:44]) < 152):
mFiles[4].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 152
and int(Input_file[i][41:44]) < 174):
mFiles[5].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 174
and int(Input_file[i][41:44]) < 182):
mFiles[5].append(Input_file[i])
mFiles[6].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 182
and int(Input_file[i][41:44]) < 206):
mFiles[6].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 206
and int(Input_file[i][41:44]) < 213):
mFiles[6].append(Input_file[i])
mFiles[7].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 213
and int(Input_file[i][41:44]) < 236):
mFiles[7].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 236
and int(Input_file[i][41:44]) < 244):
mFiles[7].append(Input_file[i])
mFiles[8].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 244
and int(Input_file[i][41:44]) < 268):
mFiles[8].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 268
and int(Input_file[i][41:44]) < 274):
mFiles[9].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 274
and int(Input_file[i][41:44]) < 297):
mFiles[9].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 297
and int(Input_file[i][41:44]) < 305):
mFiles[9].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 305
and int(Input_file[i][41:44]) < 327):
mFiles[10].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 327
and int(Input_file[i][41:44]) < 335):
mFiles[10].append(Input_file[i])
mFiles[11].append(Input_file[i])
elif (int(Input_file[i][41:44]) >= 335
and int(Input_file[i][41:44]) < 3666):
mFiles[11].append(Input_file[i])
# for i in range(0, 12):
# print len(mFiles[i])
for m in range(0, 12):
ras = Raster(mFiles[m][0])
arcpy.env.overwriteOutput = True
arcpy.env.outputCoordinateSystem = ras
outWidth = ras.meanCellWidth
outHeight = ras.meanCellHeight
lowerLeft = arcpy.Point(ras.extent.XMin, ras.extent.YMin)
arrTemp = arcpy.RasterToNumPyArray(ras)
rows = arrTemp.shape[0]
cols = arrTemp.shape[1]
# print rows,'\n',cols
arr = np.zeros((len(mFiles[m]), rows, cols), np.float)
for j in range(0, len(mFiles[m])):
temp = Raster(mFiles[m][j])
arr[j] = arcpy.RasterToNumPyArray(temp)
arrSum = np.zeros((rows, cols), np.float)
for r in range(0, rows):
for c in range(0, cols):
counts = 0
for j in range(0, len(mFiles[m])):
if (arr[j, r, c] >= 7500):
arrSum[r, c] = arrSum[r, c] + arr[j, r, c]
counts = counts + 1
if (counts != 0):
arrSum[r, c] = arrSum[r, c] / counts
for i in range(0, rows):
for j in range(0, cols):
while (arrSum[i, j] == 0):
direction = random.randint(1, 4)
if direction == 1:
if i - 1 > 0:
arrSum[i, j] = arrSum[i - 1, j]
else:
arrSum[i, j] = arrSum[i, j]
elif direction == 2:
if j + 1 < cols:
arrSum[i, j] = arrSum[i, j + 1]
else:
arrSum[i, j] = arrSum[i, j]
elif direction == 3:
if i + 1 < rows:
arrSum[i, j] = arrSum[i + 1, j]
else:
arrSum[i, j] = arrSum[i, j]
else:
if j - 1 > 0:
arrSum[i, j] = arrSum[i, j - 1]
else:
arrSum[i, j] = arrSum[i, j]
tempRaster = arcpy.NumPyArrayToRaster(arrSum * 0.02 - 273.15,
lowerLeft, outWidth,
outHeight, -273.15)
tempRaster.save('F:/Test/Paper180829/Data/LTN/monthlyLTN/' +
'LTN' + str(y * 100 + m + 1) +
'.tif') # monthlyLTD
print '啦啦啦'
#Add a field to hold the scale
fldLst = [f.name for f in arcpy.ListFields(ddp.indexLayer.dataSource)]
if "DDP_Scale" not in fldLst:
arcpy.AddField_management(ddp.indexLayer, "DDP_Scale", "LONG")
#For each shape in the viewport feature class...
counter = 1
while counter <= ddp.pageCount:
ddp.currentPageID = counter
arcpy.AddMessage("...Updating page " + str(ddp.currentPageID))
ddp.refresh()
#Grab the extent of the data frame
curExtent = ddp.dataFrame.extent
pnt1 = arcpy.Point(curExtent .XMin, curExtent .YMin)
pnt2 = arcpy.Point(curExtent .XMin, curExtent .YMax)
pnt3 = arcpy.Point(curExtent .XMax, curExtent .YMax)
pnt4 = arcpy.Point(curExtent .XMax, curExtent .YMin)
array = arcpy.Array([pnt1, pnt2, pnt3, pnt4])
polygon = arcpy.Polygon(array)
#And the then use it to update the shape
rows = arcpy.da.UpdateCursor(ddp.indexLayer,["SHAPE@","DDP_Scale"], '"FID" = ' + str(ddp.pageRow.FID))
# ---> to make this generally useful, you'll have to write something to find the object id field and verify proper syntax to call it based on file type
for row in rows:
rows.updateRow([polygon, ddp.dataFrame.scale])
counter = counter + 1
arcpy.AddMessage("...Your layer has been updated.")
arcpy.AddMessage("...I backed up the old one here: " + os.path.join(outputPath,outputName))
return float(maxval - (rown * psize))
def makecolcoord(coln, minval):
return float(minval + (coln * psize))
Vmakerowcoord = numpy.vectorize(makerowcoord)
Vmakecolcoord = numpy.vectorize(makecolcoord)
nrows, ncols = numpy.arange(rows), numpy.arange(cols)
rowcoord = Vmakerowcoord(nrows, DataExtent[3])
colcoord = Vmakecolcoord(ncols, DataExtent[0])
nrows, ncols = 0, 0
#setting the bottem left corner point for later georeferencing
pnt = arcpy.Point(colcoord[0] - (.5 * psize), rowcoord[-1] - (.5 * psize))
#Setting minimum pixels required by each interpolation method
sampledict = {"linear": 4, "cubic": 9}
if SampleMethodInput == "nearest":
SampleMethod = "linear"
else:
SampleMethod = SampleMethodInput
NeedForInterp = sampledict[SampleMethod]
#For each band an output array is created
#The output array is written by blocks of size "blockSize" by "blockSize".
#The extent of these blocks correspond output grid coordinates.
#Data points are retreived from the input HDF that have lat longs that
#fall within the extent of these blocks plus some slop.
#These collected data points are then used to interpolate and
def createpolyfeatureclass(mainpolylist, pfcadd, postbottomboxlist, minsfirst,
minslast, maxfirst, maxlast, prior):
#postbottomboxlist=[ [point1coord,point2coord,point 1 borehole or mid (0 or 1) ,point 2 borehole or mid (0 or 1), polyline] ,... ]
allpolies_temp = list()
homeadd = joinadd(expanduser("~"), "arcgistemp")
#################
'making priorpolylist [ priority number, [polyline1,polyline2,...] ]'
for i in range(1, len(mainpolylist) - 1):
for j in mainpolylist[i][2]:
allpolies_temp.append([j[0], j[3], j[4]])
#allpolies=[prio_num,p1 coord,p2 coord]
allpolies_temp.append(["firstbhline", maxfirst, minsfirst[1]])
#pointlist=[maxfirst,minsfirst[1]]
#pointlist=[maxlast,minslast[1]]
allpolies_temp.append(["lastbhline", maxlast, minslast[1]])
#######
priorpolylist_temp = list()
for n in allpolies_temp:
if [n[0], []] not in priorpolylist_temp:
priorpolylist_temp.append([n[0], []])
for m in priorpolylist_temp:
for b in allpolies_temp:
if b[0] == m[0]:
m[1].append([b[1], b[2]])
#################################
#################################
#priorpolylist=[ [prio_num,[[p1,p2],[p1,p2],...]],... ]
#this is for solving arcgis 3 dimension dissolve Dissolve_management malfunction:
priorpolylist = list()
'''zhigh=None
zdown=None
for m in priorpolylist_temp:
for pnts in m[1]:
if zhigh==None or pnts[0][2]>zhigh:
zhigh=pnts[0][2]
elif zdown==None or pnts[0][2]<zdown:
zdown=pnts[0][2]
if zhigh==None or pnts[1][2]>zhigh:
zhigh=pnts[1][2]
elif zdown==None or pnts[1][2]<zdown:
zdown=pnts[1][2]
print "zdown,zhigh", zdown,zhigh
print 'priorpolylist_temp
for mm in priorpolylist_temp:
print mm[0]
for mmm in mm[1]:
print mmm
mmm[0]=copy.deepcopy(mmm[0])
mmm[1]=copy.deepcopy(mmm[1])'''
#priorpolylist=[ [prio_num,[[p1,p2],[p1,p2],...]],... ]
for m in priorpolylist_temp:
polss = list()
for pnts in m[1]:
'''if zdown!=zhigh :
pnts[0][0]=pnts[0][0]+(float(pnts[0][2]-zhigh)/(zdown-zhigh))*0.01
pnts[0][1]=pnts[0][1]+(float(pnts[0][2]-zhigh)/(zdown-zhigh))*0.01
pnts[1][0]=pnts[1][0]+(float(pnts[1][2]-zhigh)/(zdown-zhigh))*0.01
pnts[1][1]=pnts[1][1]+(float(pnts[1][2]-zhigh)/(zdown-zhigh))*0.01'''
polylinee = arcpy.Polyline(
arcpy.Array(
[arcpy.Point(*coords) for coords in [pnts[0], pnts[1]]]),
"Unknown", True, False)
polss.append(polylinee)
if type(m[0]) == float:
m[0] = int(m[0])
priorpolylist.append([m[0], polss])
#########################################
#########################################
#########################################
#print 'priorpolylist' , priorpolylist
#######
tempost = list()
for kk in postbottomboxlist:
tempost.append(kk[4])
priorpolylist.append(["post_bottombox", tempost])
######
con = 0
polylineadlist = [pfcadd]
polylineadlistmerge = []
for ii in range(0, len(priorpolylist)):
con = con + 1
temppolyname = "temppoly" + str(con)
#mypolyname=joinadd(homeadd,"mypoly")+str(con)
#plnslayertempname=joinadd("in_memory","plnslayertemp"+str(con))+"_"+str(priorpolylist[ii][0])
#plnslayername=joinadd(homeadd,"plnslayer")+str(con)+".shp"
#mainplnsadd=joinadd(homeadd,"mainplns")+str(con)+".shp"
############
arcpy.CreateFeatureclass_management("in_memory", temppolyname,
"POLYLINE", "", "DISABLED",
"ENABLED", "")
cursor = arcpy.da.InsertCursor(joinadd("in_memory", temppolyname),
["SHAPE@"])
for t in priorpolylist[ii][1]:
cursor.insertRow([t])
del cursor
#arcpy.Dissolve_management (joinadd("in_memory",temppolyname), plnslayertempname, "", "", "", "UNSPLIT_LINES")
#polylineadlist.append(plnslayertempname)
########test 2019##########
polylineadlist.append(joinadd("in_memory", temppolyname))
######################
#arcpy.Delete_management(temppolyname)
arcgistempdb = joinadd(homeadd, "arcgistempdb.gdb")
arcpy.CreateFileGDB_management(homeadd, "arcgistempdb.gdb")
arcpy.FeatureClassToGeodatabase_conversion(polylineadlist, arcgistempdb)
#for iii in polylineadlist:
# arcpy.Delete_management(iii)
return arcgistempdb
