def _run(self, region):
# TODO: Randomize split amount
# TODO: Set limits. This is done with the node recursion so far.
# TODO: Support recursion terminator that still allows the region to
# be split in the other direction.
#print '*' * 35
#print region, 'width:', region.width, 'height:', region.height
leaves = []
axis = self.split_dir.run()
if axis == Axis.X:
#print 'width:', region.width
#print 1, region.width - 1
split = region.x1 + random.randint(1, region.width - 1)
#print 'split:', split
leaves.extend([
Region(region.x1, region.y1, split, region.y2),
Region(split, region.y1, region.x2, region.y2),
])
else:
#print 'height:', region.height
#print 1, region.height - 1
split = region.y1 + random.randint(1, region.height - 1)
#print 'split:', split
leaves.extend([
Region(region.x1, region.y1, region.x2, split),
Region(region.x1, split, region.x2, region.y2),
])
#for leave in leaves:
# print '->', leave, 'width:', leave.width, 'height:', leave.height
return leaves
def _run(self, region):
regions = []
width = self.width.run()
num_rows = region.width / width
for i in range(num_rows):
regions.append(
Region(region.x1 + (i * width), region.y1,
region.x1 + ((i + 1) * width), region.y2))
return regions
def _run(self, p_region):
regions = []
for i in xrange(self.max_iters):
# Randomise some dimensions.
#w = random.randint(self.min_size, self.max_size)
#h = random.randint(self.min_size, self.max_size)
w = self.width_sampler.run()
h = self.height_sampler.run()
# Randomise some coords. Weight them towards the center if
# specified.
x, y = 0, 0
rx = p_region.width - w
ry = p_region.height - h
if self.center_weight is not None:
xWeights = {
i: center_weight(i / (float(rx) - 1) * 180.0)
for i in range(rx)
}
yWeights = {
i: center_weight(i / (float(ry) - 1) * 180.0)
for i in range(ry)
}
x = utils.get_weighted_choice(xWeights.items())
y = utils.get_weighted_choice(yWeights.items())
else:
x = random.randint(0, rx)
y = random.randint(0, ry)
# Check for overlap with previous rooms.
region = Region(x, y, x + w, y + h)
if self.intersect:
regions.append(region)
else:
for other_region in regions:
if region.intersects(other_region):
break
else:
regions.append(region)
return regions
def _run(self, region):
regions = []
height = self.height.run()
num_cols = region.height / height
for i in range(num_cols):
regions.append(Region(
region.x1,
region.y1 + (i * height),
region.x2,
region.y1 + ((i + 1) * height)
))
return regions
def _run(self, region):
regions = []
num_cols = self.num_cols.run()
num_rows = self.num_rows.run()
x = region.width / float(num_cols)
y = region.height / float(num_rows)
for i in range(num_cols):
x_offset = region.x1 + i * x
for j in range(num_rows):
y_offset = region.y1 + j * y
regions.append(Region(x_offset, y_offset, x_offset + x, y_offset + y))
return regions
def _get_padding_region(self, region):
x1 = y1 = x2 = y2 = 0
if self.padding is not None:
x1 = y1 = x2 = y2 = self.padding.run()
if self.padding_x1 is not None:
x1 = self.padding_x1.run()
if self.padding_y1 is not None:
y1 = self.padding_y1.run()
if self.padding_x2 is not None:
x2 = self.padding_x2.run()
if self.padding_y2 is not None:
y2 = self.padding_y2.run()
return Region(
region.x1 + x1,
region.y1 + y1,
region.x2 - x2,
region.y2 - y2,
)
def on_draw():
window.clear()
grid = 40
pRegion = Region(0, 0, WIDTH / grid, HEIGHT / grid)
sineWeight = SineWeight(1, invert=True)
regions = random_regions(pRegion,
5,
20,
30,
intersect=True,
center_weight=sineWeight)
for region in regions:
#colour = pglib.utils.get_random_colour(a=0.05)
#rectArgs = [region.x1 * grid, region.y1 * grid, region.x2 * grid, region.y2 * grid]
#drawFns.append(partial(rectangle, *rectArgs, fill=colour, stroke=(1, 0, 0, 0.75)))
Rect(
Point2d(region.x1 * grid_spacing, region.y1 * grid_spacing),
Point2d(region.x2 * grid_spacing, region.y2 * grid_spacing),
colour=None,
line_colour=utils.get_random_colour(1),
line_width=4,
).draw()
import logging
from pglib.draw.pyglet.appbase import AppBase
from pglib.generators.bspregions import BspRegions
from pglib.node import Node
from pglib.region import Region
from pglib.samplers.range import Range
logger = logging.getLogger(__name__)
logging.basicConfig(level=logging.DEBUG)
MIN_LEAF_SIZE = 6
MAX_LEAF_SIZE = 20
GRID_SPACING = 10
WIDTH = 64
HEIGHT = 48
WINDOW_WIDTH = WIDTH * GRID_SPACING
WINDOW_HEIGHT = HEIGHT * GRID_SPACING
# TODO: Port remaining bspregion stuff to bsp
# Create tree.
root = Node('root',
BspRegions(Range(MIN_LEAF_SIZE, MAX_LEAF_SIZE), padding=Range(5)))
# Add some input data.
root.add_input(Region(0, 0, WIDTH, HEIGHT))
# Create test app and run.
app = AppBase(root, GRID_SPACING, WINDOW_WIDTH, WINDOW_HEIGHT)
app.run()
from pglib.region import Region
from pglib.samplers.choice import Choice
from pglib.samplers.constant import Constant
from pglib.samplers.range import Range
logger = logging.getLogger(__name__)
logging.basicConfig(level=logging.DEBUG)
GRID_SPACING = 10
WIDTH = 100
HEIGHT = 100
WINDOW_WIDTH = WIDTH * GRID_SPACING
WINDOW_HEIGHT = HEIGHT * GRID_SPACING
# Create tree.
block = Node('block', Grid(Range(2, 4), Range(2, 4)))
footpath = Node('footpath', RegionBase(padding=Constant(1)))
building = Node(
'footpath',
Bsp(Choice([Axis.X, Axis.Y])),
recurse_while_fn=lambda i, r: r.data.width > 5 and r.data.height > 5)
block.add_child(footpath)
footpath.add_child(building)
# Add some input data.
block.add_input(Region(0, 0, WIDTH, HEIGHT))
# Create test app and run.
app = AppBase(block, GRID_SPACING, WINDOW_WIDTH, WINDOW_HEIGHT)
app.run()
from pglib.region import Region
from pglib.samplers.constant import Constant
logger = logging.getLogger(__name__)
logging.basicConfig(level=logging.DEBUG)
GRID_SPACING = 10
WIDTH = 30
HEIGHT = 20
WINDOW_WIDTH = WIDTH * GRID_SPACING
WINDOW_HEIGHT = HEIGHT * GRID_SPACING
# Create tree.
root = Node('root', Row(Constant(2), padding=Constant(1)))
node_a = Node('every_second', Column(Constant(6)))
node_b = Node('every_other', Column(Constant(6), padding_x1=Constant(3)))
root.add_child(node_a, lambda data: data[slice(0, len(data), 2)])
root.add_child(node_b, lambda data: data[slice(1, len(data), 2)])
node_a.add_child(Node('bottom', Image('pillar_bottom')))
node_b.add_child(Node('top', Image('pillar_top')))
# Add some input data.
root.add_input(Region(5, 0, WIDTH - 5, HEIGHT))
# Create test app and run.
app = AppBase(root, GRID_SPACING, WINDOW_WIDTH, WINDOW_HEIGHT)
app.run()
