def __init__(self, region, tilex, tiley):
"""Create a tile based on the region and the tile's coordinates."""
# NB: smart people check that files have been gotten.
# today we assume that's already been done.
# snag stuff from the region first
self.name = region.name
self.size = region.tilesize
self.mapname = region.mapname
self.tilex = int(tilex)
self.tiley = int(tiley)
self.tiles = region.tiles
self.doOre = region.doOre
self.doSchematics = region.doSchematics
if (self.tilex < self.tiles['xmin']) or (self.tilex >= self.tiles['xmax']):
raise AttributeError, "tilex (%d) must be between %d and %d" % (self.tilex, self.tiles['xmin'], self.tiles['xmax'])
if (self.tiley < self.tiles['ymin']) or (self.tiley >= self.tiles['ymax']):
raise AttributeError, "tiley (%d) must be between %d and %d" % (self.tiley, self.tiles['ymin'], self.tiles['ymax'])
# create the tile directory if necessary
self.tiledir = os.path.join(region.regiondir, 'Tiles', '%dx%d' % (self.tilex, self.tiley))
self.skip = False
if os.path.isfile(os.path.join(self.tiledir, 'Tile.yaml')):
self.skip = True
else:
cleanmkdir(self.tiledir)
def __init__(self, region, tilex, tiley):
"""Create a tile based on the region and the tile's coordinates."""
# NB: smart people check that files have been gotten.
# today we assume that's already been done.
# snag stuff from the region first
self.name = region.name
self.size = region.tilesize
self.mapfile = region.mapfile
self.tilex = int(tilex)
self.tiley = int(tiley)
self.tiles = region.tiles
self.doOre = region.doOre
self.doSchematics = region.doSchematics
if (self.tilex < self.tiles['xmin']) or (self.tilex >=
self.tiles['xmax']):
raise AttributeError(
'tilex (%d) must be between %d and %d' %
(self.tilex, self.tiles['xmin'], self.tiles['xmax']))
if (self.tiley < self.tiles['ymin']) or (self.tiley >=
self.tiles['ymax']):
raise AttributeError(
'tiley (%d) must be between %d and %d' %
(self.tiley, self.tiles['ymin'], self.tiles['ymax']))
# create the tile directory if necessary
self.tiledir = os.path.join(region.regiondir, 'Tiles',
'%dx%d' % (self.tilex, self.tiley))
cleanmkdir(self.tiledir)
def main():
"""The main routine."""
parser = argparse.ArgumentParser(
description='Builds c10t maps for regions.')
parser.add_argument('--name',
required=True,
type=str,
help='name of region to be mapped')
parser.add_argument('--gmaps',
action='store_true',
help='generate Google Maps')
args = parser.parse_args()
print "Building %smaps for %s..." % ('Google ' if args.gmaps else '',
args.name)
(centerx, centerz) = center(args.name)
if args.gmaps:
cleanmkdir(os.path.join('maps', args.name))
command = 'C10T=../c10t/build/c10t ../c10t/scripts/google-api/google-api.sh -w worlds/%s -o maps/%s -O "-M 2048 -z --center %d,%d"' % (
args.name, args.name, centerx, centerz)
else:
command = '../c10t/build/c10t -M 2048 -z -w worlds/%s -o maps/%s.png --center %d,%d' % (
args.name, args.name, centerx, centerz)
os.system(command)
def buildvrts(self):
"""Extracts image files and merges as necessary."""
layerIDs = [ name for name in os.listdir(self.mapsdir) if os.path.isdir(os.path.join(self.mapsdir, name)) ]
if layerIDs == []:
raise IOError, 'No files found'
for layerID in layerIDs:
(pType, iType, mType, cType) = self.decodeLayerID(layerID)
filesuffix = cType.lower()
layerdir = os.path.join(self.mapsdir, layerID)
compfiles = [ name for name in os.listdir(layerdir) if (os.path.isfile(os.path.join(layerdir, name)) and name.endswith(filesuffix)) ]
for compfile in compfiles:
(compbase, compext) = os.path.splitext(compfile)
fullfile = os.path.join(layerdir, compfile)
datasubdir = os.path.join(layerdir, compbase)
compfile = '%s.%s' % (compbase, iType)
# tar (at least) expects Unix pathnames
compimage = '/'.join([compbase, compfile])
cleanmkdir(datasubdir)
if (Region.zipfileBroken == False):
if (cType == "tgz"):
cFile = tarfile.open(fullfile)
elif (cType == "zip"):
cFile = zipfile.ZipFile(fullfile)
cFile.extract(compimage, layerdir)
cFile.close()
else:
if (cType == "tgz"):
cFile = tarfile.open(fullfile)
cFile.extract(compimage, layerdir)
elif (cType == "zip"):
omfgcompimage = os.path.join(compbase, compfile)
os.mkdir(os.path.dirname(os.path.join(datasubdir, compimage)))
cFile = zipfile.ZipFile(fullfile)
cFile.extract(omfgcompimage, datasubdir)
os.rename(os.path.join(datasubdir, omfgcompimage), os.path.join(layerdir, compimage))
cFile.close()
# convert tif to good SRS
rawfile = os.path.join(layerdir, compbase, compfile)
goodfile = os.path.join(layerdir, compbase, "%s.good%s" % (compbase, iType))
warpcmd = 'gdalwarp -q -multi -t_srs "%s" %s %s' % (Region.t_srs, rawfile, goodfile)
os.system('%s' % warpcmd)
vrtfile = os.path.join(layerdir, '%s.vrt' % layerID)
buildvrtcmd = 'gdalbuildvrt %s %s' % (vrtfile, ' '.join(['"%s"' % x for x in locate('*.good*', root=layerdir)]))
os.system('%s' % buildvrtcmd)
def main():
"""The main routine."""
parser = argparse.ArgumentParser(description='Builds c10t maps for regions.')
parser.add_argument('--name', required=True, type=str, help='name of region to be mapped')
parser.add_argument('--gmaps', action='store_true', help='generate Google Maps')
args = parser.parse_args()
print "Building %smaps for %s..." % ('Google ' if args.gmaps else '', args.name)
(centerx, centerz) = center(args.name)
if args.gmaps:
cleanmkdir(os.path.join('maps', args.name))
command = 'C10T=../c10t/build/c10t ../c10t/scripts/google-api/google-api.sh -w worlds/%s -o maps/%s -O "-M 2048 -z --center %d,%d"' % (args.name, args.name, centerx, centerz)
else:
command = '../c10t/build/c10t -M 2048 -z -w worlds/%s -o maps/%s.png --center %d,%d' % (args.name, args.name, centerx, centerz)
os.system(command)
def __init__(self, name, xmax, xmin, ymax, ymin, tilesize=None, scale=None, vscale=None, trim=None, sealevel=None, maxdepth=None, oiIDs=None, lcIDs=None, elIDs=None, doOre=True, doSchematics=False):
"""Create a region based on lat-longs and other parameters."""
# NB: smart people check names
self.name = name
# Zone computation for UTM
lat_center = (ymax + ymin) / 2.
lon_center = (xmax + xmin) / 2.
zone_num = utmll.latlon_to_zone_number(lat_center, lon_center)
self.utm = utmll.latlon_to_zone_identifier(lat_center, lon_center)
self.t_srs = self.t_srs % zone_num
# tile must be an even multiple of chunk width
# chunkWidth not defined in pymclevel but is hardcoded everywhere
if tilesize == None:
tilesize = Region.tilesize
else:
if (tilesize % 16 != 0):
raise AttributeError, 'bad tilesize %s' % tilesize
self.tilesize = tilesize
# scale can be any positive integer
if scale == None:
scale = Region.scale
else:
if (scale > 0):
self.scale = int(scale)
else:
raise AttributeError, 'bad scale %s' % scale
# sealevel and maxdepth are not checked until after files are retrieved
if sealevel == None:
sealevel = Region.sealevel
else:
self.sealevel = sealevel
if maxdepth == None:
maxdepth = Region.maxdepth
else:
self.maxdepth = maxdepth
# trim and vscale are not checked until after files are retrieved
if trim == None:
trim = Region.trim
else:
self.trim = trim
if vscale == None:
vscale = Region.vscale
else:
self.vscale = vscale
# disable overly dense elevation products
self.productIDs = Region.productIDs
# NB: ND9 no longer supported
# if (scale > 5):
# self.productIDs['elevation'].remove('ND9')
if (scale > 15):
self.productIDs['elevation'].remove('N3F')
# specified IDs must be in region list
if oiIDs == None:
orthoIDs = self.productIDs['ortho']
else:
orthoIDs = [ ID for ID in oiIDs if ID in self.productIDs['ortho'] ]
if orthoIDs == []:
raise AttributeError, 'invalid ortho ID'
if lcIDs == None:
landcoverIDs = self.productIDs['landcover']
else:
landcoverIDs = [ ID for ID in lcIDs if ID in self.productIDs['landcover'] ]
if landcoverIDs == []:
raise AttributeError, 'invalid landcover ID'
if elIDs == None:
elevationIDs = self.productIDs['elevation']
else:
elevationIDs = [ ID for ID in elIDs if ID in self.productIDs['elevation'] ]
if elevationIDs == []:
raise AttributeError, 'invalid elevation ID'
# enable or disable ore and schematics
self.doOre = doOre
self.doSchematics = doSchematics
# crazy directory fun
self.regiondir = os.path.join(Region.regiontop, self.name)
cleanmkdir(self.regiondir)
self.mapsdir = os.path.join(self.regiondir, 'Datasets')
cleanmkdir(self.mapsdir)
self.mapname = os.path.join(self.regiondir, 'Map.tif')
# these are the latlong values
self.llextents = { 'xmax': max(xmax, xmin), 'xmin': min(xmax, xmin), 'ymax': max(ymax, ymin), 'ymin': min(ymax, ymin) }
# access the web service
# NB: raise hell if it is inaccessible
wsdlConv = "http://extract.cr.usgs.gov/XMLWebServices/Coordinate_Conversion_Service.asmx?WSDL"
clientConv = suds.client.Client(wsdlConv)
# This web service returns suds.sax.text.Text not XML sigh
Convre = "<X Coordinate>(.*?)</X Coordinate > <Y Coordinate>(.*?)</Y Coordinate >"
# convert from WGS84 to Albers
ULdict = {'X_Value': self.llextents['xmin'], 'Y_Value': self.llextents['ymin'], 'Current_Coordinate_System': Region.wgs84, 'Target_Coordinate_System': Region.utm}
(ULx, ULy) = re.findall(Convre, clientConv.service.getCoordinates(**ULdict))[0]
URdict = {'X_Value': self.llextents['xmax'], 'Y_Value': self.llextents['ymin'], 'Current_Coordinate_System': Region.wgs84, 'Target_Coordinate_System': Region.utm}
(URx, URy) = re.findall(Convre, clientConv.service.getCoordinates(**URdict))[0]
LLdict = {'X_Value': self.llextents['xmin'], 'Y_Value': self.llextents['ymax'], 'Current_Coordinate_System': Region.wgs84, 'Target_Coordinate_System': Region.utm}
(LLx, LLy) = re.findall(Convre, clientConv.service.getCoordinates(**LLdict))[0]
LRdict = {'X_Value': self.llextents['xmax'], 'Y_Value': self.llextents['ymax'], 'Current_Coordinate_System': Region.wgs84, 'Target_Coordinate_System': Region.utm}
(LRx, LRy) = re.findall(Convre, clientConv.service.getCoordinates(**LRdict))[0]
# select maximum values for landcover extents
xfloat = [float(x) for x in [ULx, URx, LLx, LRx]]
yfloat = [float(y) for y in [ULy, URy, LLy, LRy]]
mxmax = max(xfloat)
mxmin = min(xfloat)
mymax = max(yfloat)
mymin = min(yfloat)
# calculate tile edges
realsize = self.scale * self.tilesize
self.tiles = { 'xmax': int(ceil(mxmax / realsize)), 'xmin': int(floor(mxmin / realsize)), 'ymax': int(ceil(mymax / realsize)), 'ymin': int(floor(mymin / realsize)) }
self.utmextents = { 'ortho': dict(), 'landcover': dict(), 'elevation': dict() }
self.wgs84extents = { 'ortho': dict(), 'landcover': dict(), 'elevation': dict() }
# landcover has a maxdepth-sized border
self.utmextents['elevation'] = { 'xmax': self.tiles['xmax'] * realsize, 'xmin': self.tiles['xmin'] * realsize, 'ymax': self.tiles['ymax'] * realsize, 'ymin': self.tiles['ymin'] * realsize }
borderwidth = self.maxdepth * self.scale
self.utmextents['landcover'] = { 'xmax': self.utmextents['elevation']['xmax'] + borderwidth, 'xmin': self.utmextents['elevation']['xmin'] - borderwidth, 'ymax': self.utmextents['elevation']['ymax'] + borderwidth, 'ymin': self.utmextents['elevation']['ymin'] - borderwidth }
self.utmextents['ortho'] = { 'xmax': self.tiles['xmax'] * realsize, 'xmin': self.tiles['xmin'] * realsize, 'ymax': self.tiles['ymax'] * realsize, 'ymin': self.tiles['ymin'] * realsize }
# now convert back from Albers to WGS84
for maptype in ['ortho', 'landcover', 'elevation']:
ULdict = {'X_Value': self.utmextents[maptype]['xmin'], \
'Y_Value': self.utmextents[maptype]['ymin'], \
'Current_Coordinate_System': Region.utm, \
'Target_Coordinate_System': Region.wgs84}
(ULx, ULy) = re.findall(Convre, clientConv.service.getCoordinates(**ULdict))[0]
URdict = {'X_Value': self.utmextents[maptype]['xmax'], \
'Y_Value': self.utmextents[maptype]['ymin'], \
'Current_Coordinate_System': Region.utm, \
'Target_Coordinate_System': Region.wgs84}
(URx, URy) = re.findall(Convre, clientConv.service.getCoordinates(**URdict))[0]
LLdict = {'X_Value': self.utmextents[maptype]['xmin'], \
'Y_Value': self.utmextents[maptype]['ymax'], \
'Current_Coordinate_System': Region.utm, \
'Target_Coordinate_System': Region.wgs84}
(LLx, LLy) = re.findall(Convre, clientConv.service.getCoordinates(**LLdict))[0]
LRdict = {'X_Value': self.utmextents[maptype]['xmax'], \
'Y_Value': self.utmextents[maptype]['ymax'], \
'Current_Coordinate_System': Region.utm, \
'Target_Coordinate_System': Region.wgs84}
(LRx, LRy) = re.findall(Convre, clientConv.service.getCoordinates(**LRdict))[0]
# select maximum values
xfloat = [float(x) for x in [ULx, URx, LLx, LRx]]
yfloat = [float(y) for y in [ULy, URy, LLy, LRy]]
self.wgs84extents[maptype] = { 'xmax': max(xfloat), 'xmin': min(xfloat), 'ymax': max(yfloat), 'ymin': min(yfloat) }
# check availability of product IDs and identify specific layer IDs
self.oilayer = self.checkavail(orthoIDs, 'ortho')
self.lclayer = self.checkavail(landcoverIDs, 'landcover')
self.ellayer = self.checkavail(elevationIDs, 'elevation')
# write the values to the file
stream = file(os.path.join(self.regiondir, 'Region.yaml'), 'w')
yaml.dump(self, stream)
stream.close()
def __init__(self,
name,
xmax,
xmin,
ymax,
ymin,
tilesize=None,
scale=None,
vscale=None,
trim=None,
sealevel=None,
maxdepth=None,
lcIDs=None,
elIDs=None,
doOre=True,
doSchematics=False):
"""Create a region based on lat-longs and other parameters."""
# NB: smart people check names
self.name = name
# tile must be an even multiple of chunk width
# chunkWidth not defined in pymclevel but is hardcoded everywhere
if tilesize is None:
tilesize = Region.tilesize
else:
if tilesize % 16 != 0:
raise AttributeError('bad tilesize %s' % tilesize)
self.tilesize = tilesize
# scale can be any positive integer
if scale is None:
scale = Region.scale
else:
if scale > 0:
self.scale = int(scale)
else:
raise AttributeError('bad scale %s' % scale)
# sealevel and maxdepth are not checked until after files are retrieved
if sealevel is None:
sealevel = Region.sealevel
else:
self.sealevel = sealevel
if maxdepth is None:
maxdepth = Region.maxdepth
else:
self.maxdepth = maxdepth
# trim and vscale are not checked until after files are retrieved
if trim is None:
trim = Region.trim
else:
self.trim = trim
if vscale is None:
vscale = Region.vscale
else:
self.vscale = vscale
# disable overly dense elevation products
self.productIDs = Region.productIDs
# NB: ND9 no longer supported
# if scale > 5:
# self.productIDs['elevation'].remove('ND9')
if scale > 15:
self.productIDs['elevation'].remove('N3F')
# specified IDs must be in region list
if lcIDs is None:
landcoverIDs = self.productIDs['landcover']
else:
landcoverIDs = [
ID for ID in lcIDs if ID in self.productIDs['landcover']
]
if landcoverIDs == []:
raise AttributeError('invalid landcover ID')
if elIDs is None:
elevationIDs = self.productIDs['elevation']
else:
elevationIDs = [
ID for ID in elIDs if ID in self.productIDs['elevation']
]
if elevationIDs == []:
raise AttributeError('invalid elevation ID')
# enable or disable ore and schematics
self.doOre = doOre
self.doSchematics = doSchematics
# crazy directory fun
cleanmkdir(self.regiondir)
cleanmkdir(self.mapsdir)
# these are the latlong values
self.llextents = {
'xmax': max(xmax, xmin),
'xmin': min(xmax, xmin),
'ymax': max(ymax, ymin),
'ymin': min(ymax, ymin)
}
# Convert from WGS84 to Albers.
[mxmax, mxmin, mymax,
mymin] = Region.get_corners(Region.wgs84, Region.albers, xmax, xmin,
ymax, ymin)
# calculate tile edges
realsize = self.scale * self.tilesize
self.tiles = {
'xmax': int(ceil(mxmax / realsize)),
'xmin': int(floor(mxmin / realsize)),
'ymax': int(ceil(mymax / realsize)),
'ymin': int(floor(mymin / realsize))
}
self.albersextents = {'landcover': dict(), 'elevation': dict()}
self.wgs84extents = {'landcover': dict(), 'elevation': dict()}
# Landcover needs a maxdepth-sized border for bathy calculations.
self.albersextents['elevation'] = {
'xmax': self.tiles['xmax'] * realsize,
'xmin': self.tiles['xmin'] * realsize,
'ymax': self.tiles['ymax'] * realsize,
'ymin': self.tiles['ymin'] * realsize
}
borderwidth = self.maxdepth * self.scale
self.albersextents['landcover'] = {
'xmax': self.albersextents['elevation']['xmax'] + borderwidth,
'xmin': self.albersextents['elevation']['xmin'] - borderwidth,
'ymax': self.albersextents['elevation']['ymax'] + borderwidth,
'ymin': self.albersextents['elevation']['ymin'] - borderwidth
}
# Now convert back from Albers to WGS84.
for maptype in ['landcover', 'elevation']:
[wxmax, wxmin, wymax,
wymin] = Region.get_corners(Region.albers, Region.wgs84,
self.albersextents[maptype]['xmax'],
self.albersextents[maptype]['xmin'],
self.albersextents[maptype]['ymax'],
self.albersextents[maptype]['ymin'])
self.wgs84extents[maptype] = {
'xmax': wxmax,
'xmin': wxmin,
'ymax': wymax,
'ymin': wymin
}
# check availability of product IDs and identify specific layer IDs
self.lclayer = self.check_availability(landcoverIDs, 'landcover')
self.ellayer = self.check_availability(elevationIDs, 'elevation')
# write the values to the file
stream = file(os.path.join(self.regionfile), 'w')
yaml.dump(self, stream)
stream.close()
def __init__(self, name, xmax, xmin, ymax, ymin, tilesize=None, scale=None, vscale=None, trim=None, sealevel=None, maxdepth=None, lcIDs=None, elIDs=None, doOre=True, doSchematics=False):
"""Create a region based on lat-longs and other parameters."""
# NB: smart people check names
self.name = name
# tile must be an even multiple of chunk width
# chunkWidth not defined in pymclevel but is hardcoded everywhere
if tilesize is None:
tilesize = Region.tilesize
else:
if tilesize % 16 != 0:
raise AttributeError('bad tilesize %s' % tilesize)
self.tilesize = tilesize
# scale can be any positive integer
if scale is None:
scale = Region.scale
else:
if scale > 0:
self.scale = int(scale)
else:
raise AttributeError('bad scale %s' % scale)
# sealevel and maxdepth are not checked until after files are retrieved
if sealevel is None:
sealevel = Region.sealevel
else:
self.sealevel = sealevel
if maxdepth is None:
maxdepth = Region.maxdepth
else:
self.maxdepth = maxdepth
# trim and vscale are not checked until after files are retrieved
if trim is None:
trim = Region.trim
else:
self.trim = trim
if vscale is None:
vscale = Region.vscale
else:
self.vscale = vscale
# disable overly dense elevation products
self.productIDs = Region.productIDs
# NB: ND9 no longer supported
# if scale > 5:
# self.productIDs['elevation'].remove('ND9')
if scale > 15:
self.productIDs['elevation'].remove('N3F')
# specified IDs must be in region list
if lcIDs is None:
landcoverIDs = self.productIDs['landcover']
else:
landcoverIDs = [ID for ID in lcIDs if ID in self.productIDs['landcover']]
if landcoverIDs == []:
raise AttributeError('invalid landcover ID')
if elIDs is None:
elevationIDs = self.productIDs['elevation']
else:
elevationIDs = [ID for ID in elIDs if ID in self.productIDs['elevation']]
if elevationIDs == []:
raise AttributeError('invalid elevation ID')
# enable or disable ore and schematics
self.doOre = doOre
self.doSchematics = doSchematics
# crazy directory fun
cleanmkdir(self.regiondir)
cleanmkdir(self.mapsdir)
# these are the latlong values
self.llextents = {'xmax': max(xmax, xmin), 'xmin': min(xmax, xmin), 'ymax': max(ymax, ymin), 'ymin': min(ymax, ymin)}
# Convert from WGS84 to Albers.
[mxmax, mxmin, mymax, mymin] = Region.get_corners(Region.wgs84, Region.albers, xmax, xmin, ymax, ymin)
# calculate tile edges
realsize = self.scale * self.tilesize
self.tiles = {'xmax': int(ceil(mxmax / realsize)), 'xmin': int(floor(mxmin / realsize)), 'ymax': int(ceil(mymax / realsize)), 'ymin': int(floor(mymin / realsize))}
self.albersextents = {'landcover': dict(), 'elevation': dict()}
self.wgs84extents = {'landcover': dict(), 'elevation': dict()}
# Landcover needs a maxdepth-sized border for bathy calculations.
self.albersextents['elevation'] = {'xmax': self.tiles['xmax'] * realsize,
'xmin': self.tiles['xmin'] * realsize,
'ymax': self.tiles['ymax'] * realsize,
'ymin': self.tiles['ymin'] * realsize}
borderwidth = self.maxdepth * self.scale
self.albersextents['landcover'] = {'xmax': self.albersextents['elevation']['xmax'] + borderwidth,
'xmin': self.albersextents['elevation']['xmin'] - borderwidth,
'ymax': self.albersextents['elevation']['ymax'] + borderwidth,
'ymin': self.albersextents['elevation']['ymin'] - borderwidth}
# Now convert back from Albers to WGS84.
for maptype in ['landcover', 'elevation']:
[wxmax, wxmin, wymax, wymin] = Region.get_corners(Region.albers, Region.wgs84, self.albersextents[maptype]['xmax'], self.albersextents[maptype]['xmin'], self.albersextents[maptype]['ymax'], self.albersextents[maptype]['ymin'])
self.wgs84extents[maptype] = {'xmax': wxmax, 'xmin': wxmin, 'ymax': wymax, 'ymin': wymin}
# check availability of product IDs and identify specific layer IDs
self.lclayer = self.check_availability(landcoverIDs, 'landcover')
self.ellayer = self.check_availability(elevationIDs, 'elevation')
# write the values to the file
stream = file(os.path.join(self.regionfile), 'w')
yaml.dump(self, stream)
stream.close()
def main():
"""Builds a region."""
# example:
# ./BuildRegion.py --name BlockIsland
# parse options and get results
parser = argparse.ArgumentParser(description='Builds Minecraft worlds from regions.')
parser.add_argument('--name', required=True, type=str, \
help='name of the region to be built')
parser.add_argument('--single', action='store_true', \
help='enable single-threaded mode for debugging or profiling')
parser.add_argument('--safemerge', action='store_true', \
help='use \"safer\" method of merging tiles together')
parser.add_argument("-v", "--verbosity", action="count", \
help="increase output verbosity")
parser.add_argument("-q", "--quiet", action="store_true", \
help="suppress informational output")
args = parser.parse_args()
# set up logging
log_level = klog_levels.LOG_INFO
if args.quiet:
log_level = klog_levels.LOG_ERROR
if args.verbosity:
# v=1 is DEBUG 1, v=2 is DEBUG 2, and so on
log_level += args.verbosity
log = klogger(log_level)
# build the region
log.log_info("Building region %s..." % args.name)
yamlfile = file(os.path.join('Regions', args.name, 'Region.yaml'))
myRegion = yaml.load(yamlfile)
yamlfile.close()
# exit if map does not exist
if not os.path.exists(myRegion.mapname):
log.log_fatal("No map file exists!")
# tree and ore variables
treeobjs = dict([(tree.name, tree) for tree in treeObjs])
trees = dict([(name, list()) for name in treeobjs])
oreobjs = dict([(ore.name, ore) for ore in oreObjs])
ores = dict([(name, list()) for name in oreobjs])
# generate overall world
worlddir = os.path.join('Worlds', args.name)
world = mclevel.MCInfdevOldLevel(worlddir, create=True)
peak = [0, 0, 0]
save(world)
world = None
# generate individual tiles
tilexrange = xrange(myRegion.tiles['xmin'], myRegion.tiles['xmax'])
tileyrange = xrange(myRegion.tiles['ymin'], myRegion.tiles['ymax'])
name = myRegion.name
tiles = [(log, name, x, y) for x, y in product(tilexrange, tileyrange)]
if args.single:
# single process version
log.log_warn("Single-threaded region merge")
for tile in tiles:
buildtile(tile)
else:
# multi-process version
pool = Pool()
rs = pool.map_async(buildtile, tiles)
pool.close()
while not(rs.ready()):
remaining = rs._number_left
log.log_info("Waiting for %s buildtile tasks to complete..." %
remaining)
time.sleep(10)
pool.join() # Just as a precaution.
# Necessary for tile-welding -> regions
cleanmkdir(worlddir)
cleanmkdir(os.path.join(worlddir, 'region'))
# Generate regions
if not(args.safemerge):
regionsize = 32 * 16
regionxrange = xrange(int(floor(myRegion.tiles['xmin'] * (myRegion.tilesize / float(regionsize)))), \
int(ceil(myRegion.tiles['xmax'] * (myRegion.tilesize / float(regionsize)))))
regionyrange = xrange(int(floor(myRegion.tiles['ymin'] * (myRegion.tilesize / float(regionsize)))), \
int(ceil(myRegion.tiles['ymax'] * (myRegion.tilesize / float(regionsize)))))
regions = [(log, name, x, y) for x, y in product(regionxrange, regionyrange)]
# merge individual tiles into regions
log.log_info("Merging %d tiles into one world..." % len(tiles))
for tile in tiles:
(dummy, name, x, y) = tile
tiledir = os.path.join('Regions', name, 'Tiles', '%dx%d' % (x, y))
if not(os.path.isfile(os.path.join(tiledir, 'Tile.yaml'))):
log.log_fatal("The following tile is missing. Please re-run this script:\n%s" % \
os.path.join(tiledir, 'Tile.yaml'))
if args.single:
# single process version
log.log_warn("Single-threaded region merge")
for region in regions:
buildregion(region)
else:
# multi-process version
pool = Pool()
rs = pool.map_async(buildregion, regions)
pool.close()
while not(rs.ready()):
remaining = rs._number_left
log.log_info("Waiting for %s buildregion tasks to complete..." %
remaining)
time.sleep(10)
pool.join() # Just as a precaution.
world = mclevel.MCInfdevOldLevel(worlddir, create=True)
if not(args.safemerge):
mcoffsetx = myRegion.tiles['xmin'] * myRegion.tilesize
mcoffsetz = myRegion.tiles['ymin'] * myRegion.tilesize
mcsizex = (myRegion.tiles['xmax'] - myRegion.tiles['xmin']) * myRegion.tilesize
mcsizez = (myRegion.tiles['ymax'] - myRegion.tiles['ymin']) * myRegion.tilesize
tilebox = box.BoundingBox((mcoffsetx, 0, mcoffsetz), (mcsizex, world.Height, mcsizez))
world.createChunksInBox(tilebox)
for tile in tiles:
(dummy, name, x, y) = tile
tiledir = os.path.join('Regions', name, 'Tiles', '%dx%d' % (x, y))
tilefile = file(os.path.join(tiledir, 'Tile.yaml'))
newtile = yaml.load(tilefile)
tilefile.close()
if (newtile.peak[1] > peak[1]):
peak = newtile.peak
for treetype in newtile.trees:
trees.setdefault(treetype, []).extend(newtile.trees[treetype])
if myRegion.doOre:
for oretype in newtile.ores:
ores.setdefault(oretype, []).extend(newtile.ores[oretype])
if args.safemerge:
tileworld = mclevel.MCInfdevOldLevel(tiledir, create=False)
world.copyBlocksFrom(tileworld, tileworld.bounds, tileworld.bounds.origin)
tileworld = False
# plant trees in our world
log.log_info("Planting %d trees at the region level..." % \
sum([len(trees[treetype]) for treetype in trees]))
Tree.placetreesinregion(trees, treeobjs, world)
# deposit ores in our world
if myRegion.doOre:
log.log_info("Depositing %d ores at the region level..." % \
sum([len(ores[oretype]) for oretype in ores]))
Ore.placeoreinregion(ores, oreobjs, world)
# tie up loose ends
world.setPlayerGameType(1)
setspawnandsave(world, peak)
oldyamlpath = os.path.join('Regions', args.name, 'Region.yaml')
newyamlpath = os.path.join('Worlds', args.name, 'Region.yaml')
shutil.copy(oldyamlpath, newyamlpath)
shutil.rmtree(os.path.join('Regions', name, 'Tiles'))