def main():
nodeGenerator = NodeGenerator()
coors = nodeGenerator.gen(10, 200)
tree = DHTree(coors)
tree.get_tree(math.pi / 3, math.pi / 4, 2, 7)
tree.print_tree()
tree.store_vertices('vertices')
tree.store_edges('edges')
def main():
nodeGenerator = NodeGenerator()
coors = nodeGenerator.gen(10, 100)
tree = DHTree(2, 7, math.pi / 3, coors)
index = range(len(coors))
tree.build_tree(index, begin = 0, end = len(index), r = tree.V[0])
tree.print_tree()
tree.store_vertices('vertices')
tree.store_edges('edges')
def __init__(self, char, start=None, finish=None):
# constructor makes a simple start node and accept state connected by an edge
node_generator = NodeGenerator.getInstance()
if (start == None):
self.start_node = node_generator.make_node(isStart=True)
self.accept_state = node_generator.make_node(isFinish=True)
self.start_node.add_destination_node(char, self.accept_state)
self.all_accept_states = []
else: # make custom non-simple graphs (like ones after operations)
self.start_node = start
self.accept_state = finish
self.start_node.add_destination_node(char, self.accept_state)
self.all_accept_states = []
def keenClosure(graph):
"""
uses the kleen closure operator on a graph to produce a new graph using thompson algorithm
:param graph: a graph
:return:
"""
n = NodeGenerator.getInstance()
g = Graph("@")
# g.start_node.clearEdges()
# repeat more than once
graph.accept_state.add_destination_node("@", graph.start_node)
# add new finish with edge epsilon
graph.accept_state.add_destination_node("@", g.accept_state)
graph.accept_state.isFinish = 0
# add new start
g.start_node.add_destination_node("@", graph.start_node)
graph.start_node.isStart = 0
# repeat zero times
return g
def __init__(self, nodes):
# sort nodes according to ids
nodes = sorted(nodes, key=state.sortHelper)
state.state_Nodes.append(nodes)
state.state_instances.append(self)
self.destinations = {} # we add in it a pair (char,state number)
self.id = state.id
state.id += 1
@staticmethod
def getNodeFromID(self, id):
return state.state_instances[id]
def getStateNodes(self):
return state.state_Nodes[self.id]
def addDestination(self, char, state_to):
# only 1 state_to for each char, so we dont need a list
self.destinations[char] = state_to
if __name__ == '__main__':
x = NodeGenerator.getInstance()
a = x.make_node()
b = x.make_node()
c = x.make_node()
y = state.getState([a, b])
z = state.getState([a, c])
print(z.getStateNodes())
from Operation import Operation
import random
row = []
for x in range(0, Main.x_resolution):
column = []
for y in range(0, Main.y_resolution):
r = random.randint(0, 255)
g = random.randint(0, 255)
b = random.randint(0, 255)
column.append(Pixel(r, g, b, 255))
row.append(column)
frame = Frame(row)
i0 = NodeGenerator(frame)
i1 = Operation()
c2 = 0
c3 = 0
i4 = -14
i4 = i1.actALessThanB(c3, c3)
i6 = -5
i7 = i0.constructNodeRectangle(793, 448, 246, 568)
i8 = 36
i8 = i1.actAdd(i6, i7.determineAverageBlue())
i10 = -5
c3 = i1.actRemainder(i7.determineAverageBlue(), i10)
i12 = i0.constructNodeRectangle(611, 250, 416, 0)
i13 = 1
i13 = i1.actDivide(i6, i12.determineAverageGreen())
i15 = -54
def main():
nodeGen = NodeGenerator()
coors = nodeGen.gen(100, 500)
tree = RandTree(coors)
tree.get_tree(2, 5)
tree.print_nodes()
