def addOpenningTag(self, tag):
if self.root.state == 'empty':
self.root.state = 'open'
self.root.openningTag = tag
if tag.type == 'empty':
self.root.state = 'close'
self.root.closingTag = tag
return
elif self.root.state == 'close' or (self.root.state == 'text'
and self.root.openningTag.type
== 'no'):
rootBranch1 = node()
rootBranch1.state = 'close'
rootBranch1.openningTag = self.root.openningTag
rootBranch1.listOfText = self.root.listOfText
rootBranch1.closingTag = self.root.closingTag
rootBranch1.listOfNodes = self.root.listOfNodes
self.root = node()
self.root.state = 'passed'
rootBranch2 = node()
rootBranch2.state = 'open'
rootBranch2.openningTag = tag
if tag.type == 'empty':
rootBranch2.state = 'close'
rootBranch2.closingTag = tag
self.root.listOfNodes.append(rootBranch1)
self.root.listOfNodes.append(rootBranch2)
else:
self.root.state = 'passed'
self.addOpenningSubtree(self.root, tag)
def testcase():
head = node(1)
head.next = node(2)
head.next.next = node(3)
head.next.next.next = node(4)
head.next.next.next.next = node(5)
sol = Solution(head)
sol.print_list(sol.reverse_list())
def addNode(self, data):
if self.getHead() == None:
self.setHead(node(data))
else:
currentNode = self.getHead()
while(currentNode.getNext() != None):
currentNode = currentNode.getNext()
currentNode.setNext(node(data))
return "Added a new node:" + str(data)
def iniGameBoard(self): for i in range(0,len(self.board)): col=[] for j in range(0,len(self.board[0])): if self.board[i][j]!=0 : col.append(node(domain,(-1,-1),i,j,value=self.board[i][j])) else: col.append(node(domain,(-1,-1),i,j)) self.gameBoard.append(col) col=[]
def append(self, data):
''' puts data at the end of a list'''
if self.isEmpty():
self.front = node(data)
self.back = self.front
self.size += 1
else:
# create a node with data in it and call it 'temp'
temp = node(data)
temp.set_prev(self.front)
# the new node's (temp) prev becomes the last element in the list
# the back node's next becomes the newly created node
self.back.set_next(temp)
self.back = temp # updating the back to temp
self.size += 1
def __init__(self,
address=('localhost', 5001 + 1),
id=1,
init_address=('localhost', 5000),
timeout=3):
threading.Thread.__init__(self)
self.node = node(address, self.__class__.__name__, id, init_address)
def DT_Learn(data, attrs, pData):
if data.__len__() == 0:
return mostCommon(pData)
else:
if Control_1(data):
return mostCommon(data)
else:
if attrs.__len__() == 0:
return mostCommon(data)
else:
# calcolo il guadagno e scelgo l'attribbuto che realizza il massimo guadagno
listattr = list(attrs.keys())
earning = gain(data, listattr)
i = np.argmax(earning)
A = listattr[i]
# calcolo la classe del nodo cioè la classe più presente nel dataset corrente
classe, num = np.unique(data['Y'], return_counts=True)
i = np.argmax(num)
y = classe[i]
# creo il nuovo nodo
newNode = node()
newNode.setAttribute(A)
newNode.setY(y)
val = attrs[A]
newattrs = copy.deepcopy(attrs)
newattrs.pop(A)
for i in val:
data2 = data.where(data[A] == i).dropna()
nodo = DT_Learn(data2, newattrs, data)
newNode.setChild(nodo, i)
return newNode
def mostCommon(data):
NewNode = node()
val, num = np.unique(data['Y'], return_counts=True)
i = np.argmax(num)
NewNode.setY(val[i])
NewNode.leaf = True
return NewNode
def test3():
tree = node()
root = tree
#first child
firstChild = root.addNode("seq")
if firstChild == None:
print ("error creating seq node")
print("test 3: failed :-(")
return None
tempN = firstChild.addNode("seq")
if tempN == None:
print ("error creating seq node")
else:
tempN.setAttrib("probability","0.1 0.5")
tempN = firstChild.addNode("seq")
if tempN == None:
print ("error creating seq node")
else:
tempN.setAttrib("probability","0.1 0.5")
tempN = firstChild.addNode("loop")
if tempN == None:
print ("error creating loop node")
else:
tempN.setAttrib("probability","0.1 0.5")
tempN = firstChild.addNode("par")
if tempN == None:
print ("error creating parallel node")
else:
tempN.setAttrib("probability","0.1 0.5")
tempN = firstChild.addNode("tsk")
if tempN == None:
print ("error creating tsk node")
else:
tempN.setAttrib("probability","0.1 0.5")
tempN = firstChild.addNode("sel")
if tempN == None:
print ("error creating selector node")
else:
tempN.setAttrib("probability","0.1 0.5")
#iterate over firstChild children:
firstChildList = firstChild.getChildren()
count = 0
for childNode in firstChildList:
count += 1
if count == 6:
print("test 3: success! please check the file test3.xml - every tag need to have the same attrib.")
else:
print("test 3: failed :-(")
#print the tree we built from scratch to xml file.
#please check the file- every tag need to have the same attrib.
root.treeToXml("tests/test3.xml")
def addClosingTag(self, tag):
if self.root.state == 'empty':
self.root.state = 'close'
self.root.closingTag = tag
elif self.root.state == 'close':
rootBranch1 = node()
rootBranch1.state = 'close'
rootBranch1.openningTag = self.root.openningTag
rootBranch1.listOfText = self.root.listOfText
rootBranch1.closingTag = self.root.closingTag
rootBranch1.listOfNodes = self.root.listOfNodes
self.root = node() # clear root
self.root.state = 'close'
self.root.closingTag = tag
self.root.listOfNodes.append(rootBranch1)
else:
self.addClosingSubtree(self.root, tag, 0)
def __init__(self, profondeurMax, nbChildMax, board):
self.profondeurMax = profondeurMax
self.nbChildMax = nbChildMax
self.root = node(None, 0, self.profondeurMax, 0, board)
self.propagate(self.root)
self.root.heuristic = self.MinMax(self.root)
self.info()
def __init__(self,
address=('localhost', 5000),
id=0,
init_address=None,
timeout=3):
threading.Thread.__init__(self)
self.node = node(address, self.__class__.__name__, id, init_address)
self.grill = True # As maquinas...
self.fryer = True
self.bottle = True
def mainFromScrath(argv):
# Twhile True:
# print("please chose a number between 1-5")
# create the tree root
tree = node()
# create a new seq child
child = tree.addNode("seq")
# add attribute to the new node
child.setAttrib("probability", "0.78, 0.2, 0.1, 0.9")
# write the tree to xml file
tree.treeToXml(argv)
def graph_generator(filename):
pyramid = open(filename)
pyramid = [line.strip('\n').split(' ') for line in pyramid]
#print pyramid
graph = []
for r, row in enumerate(pyramid): #Creates nodes
graph.append([])
for element in row:
if element[0] == '0':
graph[r].append(node(-int(element[1:])))
else:
graph[r].append(node(-int(element)))
for r in range(0, len(graph) - 1): #Updates neighbors
for e in range(0, len(graph[r])):
graph[r][e].neighbors = [graph[r + 1][e], graph[r + 1][e + 1]]
graph[0][0].distance = graph[0][0].value
return graph
def graph_generator(filename):
pyramid = open(filename)
pyramid = [line.strip('\n').split(' ') for line in pyramid]
#print pyramid
graph = []
for r, row in enumerate(pyramid): #Creates nodes
graph.append([])
for element in row:
if element[0] == '0':
graph[r].append(node(-int(element[1:])))
else:
graph[r].append(node(-int(element)))
for r in range(0, len(graph)-1): #Updates neighbors
for e in range(0, len(graph[r])):
graph[r][e].neighbors = [graph[r+1][e], graph[r+1][e+1]]
graph[0][0].distance = graph[0][0].value
return graph
def addOpenningSubtree(self, subTree, tag):
if len(subTree.listOfNodes) == 0:
newNode = node()
newNode.state = 'open'
newNode.openningTag = tag
if tag.type == 'empty':
newNode.state = 'close'
newNode.closingTag = tag
subTree.listOfNodes.append(newNode)
return
if subTree.listOfNodes[-1].state == 'text' or subTree.listOfNodes[
-1].state == 'close':
newNode = node()
newNode.state = 'open'
newNode.openningTag = tag
if tag.type == 'empty':
newNode.state = 'close'
newNode.closingTag = tag
subTree.listOfNodes.append(newNode)
return
self.addOpenningSubtree(subTree.listOfNodes[-1], tag)
def addTextSubtree(self, subTree, text):
if len(subTree.listOfNodes) == 0:
subTree.state = 'text'
subTree.listOfText.append(text)
return
if subTree.listOfNodes[-1].state == 'close':
newNode = node()
newNode.state = 'text'
newNode.listOfText.append(text)
subTree.listOfNodes.append(newNode)
return
self.addTextSubtree(subTree.listOfNodes[-1], text)
def __init__(self,
address=('localhost', 5001 + 2),
id=2,
init_address=('localhost', 5000),
timeout=3):
threading.Thread.__init__(self)
self.node = node(address, self.__class__.__name__, id, init_address)
self.plates = Queue.Queue(
) # QUEUE de pratos(menus) que tem para fazer
self.permitions = Queue.Queue(
) # QUEUE das permissões (vindas o Restaurante) que tem, para consequentemente cozinhar
self.cook = threading.Thread(target=self.cooking)
def completeGraph(self):
# Method that create a complete graph. It return a list of objects node.
nodesList = [] # Create an empty list
nodeT = self.N # Define the total number of nodes
positions = self.load_positions()
max_pos = self.max_dist(positions)
for i in range(nodeT):
nodesList.append(
node([(x, self.distance(positions, x, i) / max_pos)
for x in range(nodeT) if x != i]))
# Append an object node, that is connected with all the other nodes except itself, at each iteration
return nodesList
def test1():
tree = node()
root = tree
#first child
newChild = root.addNode("par") #parallel
#notice that the childlist start from zero.
child = root.getChild(0)
#compare by instance id:
if newChild.comparTo(child) == True:
print("test 1: success!")
else:
print("test 1: failed :-(")
def __init__(self):
self.graph = {
'A': [edge('B',5),edge('C',4)],
'B': [edge('A',5),edge('F',10)],
'C': [edge('A',4),edge('D',8)],
'D': [edge('C',8),edge('F',2),edge('E',3)],
'E': [edge('D',3),edge('G',2)],
'F': [edge('B',10),edge('D',2),edge('G',3),edge('H',8)],
'G': [edge('E',2),edge('F',3),edge('H',1)],
'H': [edge('G',1),edge('F',8)]}
self.meta=state('H')
self.initialNode = node(state('A'),None,None,0)
def prepend(self, data):
'''puts data at the end of a list'''
if self.isEmpty():
self.append(data)
else:
# create a node with data in it and call it 'temp'
temp = node(data)
temp.setNext(self.back)
# the new node's (temp) next becomes the first element in the list
# teh front node's prev becomes the newly created node
self.front.setPrev(temp)
self.front = temp # updating the back to temp
self.size += 1
def test1():
tree = node()
root = tree
#first child
newChild = root.addNode("par")#parallel
#notice that the childlist start from zero.
child = root.getChild(0)
#compare by instance id:
if newChild.comparTo(child) == True :
print("test 1: success!")
else:
print("test 1: failed :-(")
def addText(self, text):
if self.root.state == 'empty' or self.root.state == 'text':
self.root.state = 'text'
self.root.listOfText.append(text)
return
elif self.root.state == 'close' or (self.root.state == 'text'
and self.root.openningTag.type
== 'no'):
rootBranch1 = node()
rootBranch1.state = 'close'
rootBranch1.openningTag = self.root.openningTag
rootBranch1.listOfText = self.root.listOfText
rootBranch1.closingTag = self.root.closingTag
rootBranch1.listOfNodes = self.root.listOfNodes
self.root = node()
self.root.state = 'passed'
rootBranch2 = node()
rootBranch2.state = 'text'
rootBranch2.listOfText.append(text)
self.root.listOfNodes.append(rootBranch1)
self.root.listOfNodes.append(rootBranch2)
else:
self.addTextSubtree(self.root, text)
def __init__(self, fileName=None ,root=None):
if fileName != None:
tree = etree.parse(fileName)
#if we don't get a file to parse
if root == None:
self.root = tree.getroot()
else:
self.root= root
#hold the name of the file.
self.fileName = fileName
#create a root node- type plan
self.rootNode = node(self.root,self,self.root.tag)
#update the whole tree- create the wrap for the whole tree.
self._getUpdateTree()
def insert(self, data, old_node):
'''inserts a node between two other nodes in a list'''
if self.isEmpty():
self.append(data)
else:
if old_node == None:
return None
else:
# create a node with data in it and call it 'temp
temp = node(data)
# set that node (temp) prev to the node already in the list
temp.setPRev(old_node)
temp.setNext(old_node.getNext())
# set 'temp's next to the next of teh node already in the lsit
old_node.setNext(temp) # set 'temp' as the old node's next
temp.getNext().setPrevious(temp)
def add(self, item):
current = self.head
previous = None
stop = False
while current != None and not stop:
if current.getData() > item:
stop = True
else:
previous = current
current = current.getNext()
temp = node(item)
if previous == None:
temp.setNext(self.head)
self.head = temp
else:
temp.setNext(current)
previous.setNext(temp)
def __init__(self, address=('localhost', 5001+3), id=3, init_address=('localhost', 5000), timeout=3):
threading.Thread.__init__(self)
self.node = node(address, self.__class__.__name__, id, init_address)
self.deliveries = {} # Dicionario pa guardar o ID : ADDR do cliente
def test_str(self):
test_object = str(node(3,None))
self.assertEqual('3',test_object)
def test_node(self):
test_object = node(3,None).item
self.assertEqual(3,test_object)
def test17():
tree = node()
root = tree
#first child
firstChild = root.addNode("par")
if firstChild == None:
print("error creating parallel node")
print("test 17: failed :-(")
return None
dist_succ = _createUniformDist(2, 5)
dist_fail = _createUniformDist(6, 10)
firstChild.DEBUGchild = True
for j in range(3):
tempN = firstChild.addNode("seq")
if tempN == None:
print("error creating seq node")
for i in range(5):
if ((j == 1) and (i == 2)):
tempN1 = tempN.addNode("seq")
tempN.DEBUGchild = True
tempN1.DEBUGchild = True
if tempN1 == None:
print("error creating seq node")
else:
for i in range(4):
tempN2 = tempN1.addNode("tsk")
if tempN2 == None:
print("error creating seq node")
else:
tempN2.setProbTable([0.8, 0.5])
for i in range(2):
dist_fail = _createUniformDist(6, 10 - i)
tempN2.addDistToSuccTable(dist_succ)
tempN2.addDistToFailTable(dist_fail)
tempN2.setAttrib(
"Successdistribution",
tempN2._distTableToString(
tempN2.distTableSucc))
tempN2.setAttrib(
"Failuredistribution",
tempN2._distTableToString(
tempN2.distTableFail))
tempN2.setDebug("True 100")
else:
tempN1 = tempN.addNode("tsk")
if tempN1 == None:
print("error creating seq node")
else:
tempN1.setProbTable([0.7, 0.5])
for i in range(2):
tempN1.addDistToSuccTable(dist_succ)
tempN1.addDistToFailTable(dist_fail)
tempN1.setAttrib(
"Successdistribution",
tempN1._distTableToString(tempN1.distTableSucc))
tempN1.setAttrib(
"Failuredistribution",
tempN1._distTableToString(tempN1.distTableFail))
#iterate over firstChild children:
firstChildList = firstChild.getChildren()
node.debugMode = False
for i in range(5):
firstChild.run(0)
root.treeToXml("output/test17.xml")
print "phase 2"
node.debugMode = True
for i in range(5):
firstChild.run(0)
root.treeToXml("output/test17.xml")
count = 0
for childNode in firstChildList:
count += 1
if count == 3:
print(
"test 17: success! please check the file test4.xml - every tag need to have the same attrib."
)
else:
print("test 17: failed :-(")
def test15():
tree = node()
root = tree
#first child
firstChild = root.addNode("par")
if firstChild == None:
print ("error creating seq node")
print("test 15: failed :-(")
return None
dist_succ = _createUniformDist(2,5)
dist_fail = _createUniformDist(6,10)
firstChild.DEBUGchild = True
for j in range(3):
tempN = firstChild.addNode("seq")
if tempN == None:
print ("error creating seq node")
for i in range(5):
if ((j==1) and (i==2)):
tempN1 = tempN.addNode("seq")
tempN.DEBUGchild = True
tempN1.DEBUGchild = True
if tempN1 == None:
print ("error creating seq node")
else:
for i in range(4):
tempN2 = tempN1.addNode("tsk")
if tempN2 == None:
print ("error creating seq node")
else:
tempN2.setProbTable([0.8, 0.5])
for i in range(2):
dist_fail = _createUniformDist(6,10-i)
tempN2.addDistToSuccTable(dist_succ)
tempN2.addDistToFailTable(dist_fail)
tempN2.setAttrib("Successdistribution",tempN2._distTableToString(tempN2.distTableSucc))
tempN2.setAttrib("Failuredistribution",tempN2._distTableToString(tempN2.distTableFail))
tempN2.setDebug("True 100")
else:
tempN1 = tempN.addNode("tsk")
if tempN1 == None:
print ("error creating seq node")
else:
tempN1.setProbTable([0.7, 0.5])
for i in range(2):
tempN1.addDistToSuccTable(dist_succ)
tempN1.addDistToFailTable(dist_fail)
tempN1.setAttrib("Successdistribution",tempN1._distTableToString(tempN1.distTableSucc))
tempN1.setAttrib("Failuredistribution",tempN1._distTableToString(tempN1.distTableFail))
#iterate over firstChild children:
node.debugMode = False
for i in range(5):
firstChild.run(0)
root.treeToXml("output/test15a.xml")
print("test 15.1: success! please check the file test15a.xml - every tag need to have the same attrib.")
node.debugMode = True
for i in range(5):
firstChild.run(0)
root.treeToXml("output/test15b.xml")
print("test 15.2: success! please check the file test15b.xml - every tag need to have the same attrib.")
def test6():
tree = node()
root = tree
#first child
firstChild = root.addNode("par")
if firstChild == None:
print ("error creating par node")
print("test 7: failed :-(")
return None
dist_succ = _createUniformDist(2,5)
dist_fail = _createUniformDist(6,10)
firstChild.DEBUGchild = True
for j in range(3):
if j==0:
tempN = firstChild.addNode("seq")
if tempN == None:
print ("error creating seq node")
if j==1:
tempN = firstChild.addNode("sel")
if tempN == None:
print ("error creating sel node")
if j==2:
tempN = firstChild.addNode("loop")
if tempN == None:
print ("error creating seq node")
for i in range(5):
if ((j==1) and (i==2)):
tempN1 = tempN.addNode("seq")
tempN.DEBUGchild = True
tempN1.DEBUGchild = True
if tempN1 == None:
print ("error creating seq node")
else:
for i in range(4):
tempN2 = tempN1.addNode("tsk")
if tempN2 == None:
print ("error creating seq node")
else:
tempN2.setProbTable([0.1, 0.5])
for i in range(2):
dist_fail = _createUniformDist(6,10-i)
tempN2.addDistToSuccTable(dist_succ)
tempN2.addDistToFailTable(dist_fail)
tempN2.setAttrib("Successdistribution",tempN2._distTableToString(tempN2.distTableSucc))
tempN2.setAttrib("Failuredistribution",tempN2._distTableToString(tempN2.distTableFail))
tempN2.setDebug("True 100")
else:
tempN1 = tempN.addNode("tsk")
if tempN1 == None:
print ("error creating seq node")
else:
tempN1.setProbTable([0.3, 0.5])
for i in range(2):
tempN1.addDistToSuccTable(dist_succ)
tempN1.addDistToFailTable(dist_fail)
tempN1.setAttrib("Successdistribution",tempN1._distTableToString(tempN1.distTableSucc))
tempN1.setAttrib("Failuredistribution",tempN1._distTableToString(tempN1.distTableFail))
if j==2:
break
#iterate over firstChild children:
firstChildList = firstChild.getChildren()
node.debugMode = False
for i in range(5):
firstChild.run(0)
root.treeToXml("output/test4.xml")
print "phase 2"
node.debugMode = True
for i in range(5):
firstChild.run(0)
root.treeToXml("output/test5.xml")
count = 0
for childNode in firstChildList:
count += 1
if count == 3:
print("test 6: success! please check the file test4.xml - every tag need to have the same attrib.")
else:
print("test 6: failed :-(")
Outside.remove(Node[i].index)
"""
"""
j = 0
for j in range(len(Cluster[i].nodes_idx)):
if (Cluster[i].nodes_idx[j] not in Assigned_Nodes):
Assigned_Nodes.append(Cluster[i].nodes_idx[j])
"""
"""
Cluster[i].Nodes.append(Cluster[i].centroid.index)
Cluster[i].nodes_idx.append(Cluster[i].centroid.index)
"""
#Create Node set
Node = [node(i, (deliv_517["Longitude"][i], deliv_517["Latitude"][i]), deliv_517["Delivery Volume"][i], deliv_517["Adj Nodes"][i]) for i in range(len(deliv_517))]
#Establish set Outside, which tracks the nodes that are not assigned to a cluster
Outside = []
i = 0
for i in range(len(Node)):
Outside.append(Node[i].index)
#Create set that tracks the nodes that have been assigned to a cluster
Assigned_Nodes = []
#Cluster Initialization
#The last three nodes are the facilities. We are using them as the initial nodes in order to build the algorithm.
#Clusters take a Node object that will be the centroid, a target weight for the cluster, and a capacity.
Cluster = [cluster(Node[i], target_weight, deliv_517["Delivery Volume"][i]) for i in range(465,468)]
if (Node[Node[Outside[i]].adj_nodes[j]].isOutside == True):
n_outside += 1
Node[Outside[i]].reachability = n_outside/len(Outside)
"""
#%%
#Import node and cluster class objects
from Node import node
from Cluster import cluster
from Reachable_Extensible import get_reach_and_ext
from Best_Reach_Ext import best_reach_ext_nodes, best_reach_ext_clusters
from Assign_and_Update import assign_and_update
from Decision_Criteria import priority_weight, priority_card
#Create Node set
Node = [
node(i, (delivs["Longitude"][i], delivs["Latitude"][i]),
delivs["Delivery Volume"][i], delivs["Adj Nodes"][i])
for i in range(len(delivs))
]
#Establish set Outside, which tracks the nodes that are not assigned to a cluster
Outside = [Node[i].index for i in range(len(Node))]
#Create set that tracks the nodes that have been assigned to a cluster
Assigned_Nodes = []
#Cluster Initialization:
#Clusters take a Node object that will be the centroid, a balance target for the cluster, and a capacity.
#This line creates 3 clusters with the facilities as the central locations.
Cluster = [
cluster(Node[i], delivs["Delivery Volume"][i], 999999999)
def test7():
tree = node()
root = tree
#first child
firstChild = root.addNode("par")
if firstChild == None:
print("error creating seq node")
print("test 7: failed :-(")
return None
dist_succ = _createUniformDist(2, 5)
dist_fail = _createUniformDist(6, 10)
for j in range(3):
tempN = firstChild.addNode("seq")
if tempN == None:
print("error creating seq node")
for i in range(5):
if ((j == 1) and (i == 2)):
tempN1 = tempN.addNode("seq")
if tempN1 == None:
print("error creating seq node")
else:
for i in range(4):
tempN2 = tempN1.addNode("tsk")
if tempN2 == None:
print("error creating seq node")
else:
tempN2.setAttrib("time", "1")
tempN2.setAttrib("succ", "T")
#tempN2.setTime(0)
#tempN2.setSucc(False)
tempN2.setProbTable([0.8, 0.5])
for i in range(2):
tempN2.addDistToSuccTable(dist_succ)
tempN2.addDistToFailTable(dist_fail)
tempN2.setAttrib("Successdistribution",
tempN2.distTableSucc)
tempN2.setAttrib("Failuredistribution",
tempN2.distTableFail)
else:
tempN1 = tempN.addNode("tsk")
if tempN1 == None:
print("error creating seq node")
else:
tempN1.setAttrib("time", "1")
tempN1.setAttrib("succ", "T")
#tempN1.setTime(0)
#tempN1.setSucc(False)
tempN1.setProbTable([0.7, 0.5])
for i in range(2):
tempN1.addDistToSuccTable(dist_succ)
tempN1.addDistToFailTable(dist_fail)
tempN1.setAttrib("Successdistribution",
tempN1.distTableSucc)
tempN1.setAttrib("Failuredistribution",
tempN1.distTableFail)
#iterate over firstChild children:
firstChildList = firstChild.getChildren()
for i in range(5):
firstChild.run(0)
count = 0
for childNode in firstChildList:
count += 1
if count == 3:
print(
"test 7: success! please check the file output/test4.xml - every tag need to have the same attrib."
)
else:
print("test 7: failed :-(")
#print the tree we built from scratch to xml file.
#please check the file- every tag need to have the same attrib.
root.treeToXml("output/test4.xml")
def test7():
tree = node()
root = tree
#first child
firstChild = root.addNode("par")
if firstChild == None:
print ("error creating seq node")
print("test 7: failed :-(")
return None
dist_succ = _createUniformDist(2,5)
dist_fail = _createUniformDist(6,10)
for j in range(3):
tempN = firstChild.addNode("seq")
if tempN == None:
print ("error creating seq node")
for i in range(5):
if ((j==1) and (i==2)):
tempN1 = tempN.addNode("seq")
if tempN1 == None:
print ("error creating seq node")
else:
for i in range(4):
tempN2 = tempN1.addNode("tsk")
if tempN2 == None:
print ("error creating seq node")
else:
tempN2.setAttrib("time","1")
tempN2.setAttrib("succ","T")
#tempN2.setTime(0)
#tempN2.setSucc(False)
tempN2.setProbTable([0.8, 0.5])
for i in range(2):
tempN2.addDistToSuccTable(dist_succ)
tempN2.addDistToFailTable(dist_fail)
tempN2.setAttrib("Successdistribution",tempN2.distTableSucc)
tempN2.setAttrib("Failuredistribution",tempN2.distTableFail)
else:
tempN1 = tempN.addNode("tsk")
if tempN1 == None:
print ("error creating seq node")
else:
tempN1.setAttrib("time","1")
tempN1.setAttrib("succ","T")
#tempN1.setTime(0)
#tempN1.setSucc(False)
tempN1.setProbTable([0.7, 0.5])
for i in range(2):
tempN1.addDistToSuccTable(dist_succ)
tempN1.addDistToFailTable(dist_fail)
tempN1.setAttrib("Successdistribution",tempN1.distTableSucc)
tempN1.setAttrib("Failuredistribution",tempN1.distTableFail)
#iterate over firstChild children:
firstChildList = firstChild.getChildren()
for i in range(5):
firstChild.run(0)
count = 0
for childNode in firstChildList:
count += 1
if count == 3:
print("test 7: success! please check the file output/test4.xml - every tag need to have the same attrib.")
else:
print("test 7: failed :-(")
#print the tree we built from scratch to xml file.
#please check the file- every tag need to have the same attrib.
root.treeToXml("output/test4.xml")
def test3():
tree = node()
root = tree
#first child
firstChild = root.addNode("seq")
if firstChild == None:
print("error creating seq node")
print("test 3: failed :-(")
return None
tempN = firstChild.addNode("seq")
if tempN == None:
print("error creating seq node")
else:
tempN.setAttrib("probability", "0.1 0.5")
tempN = firstChild.addNode("seq")
if tempN == None:
print("error creating seq node")
else:
tempN.setAttrib("probability", "0.1 0.5")
tempN = firstChild.addNode("loop")
if tempN == None:
print("error creating loop node")
else:
tempN.setAttrib("probability", "0.1 0.5")
tempN = firstChild.addNode("par")
if tempN == None:
print("error creating parallel node")
else:
tempN.setAttrib("probability", "0.1 0.5")
tempN = firstChild.addNode("tsk")
if tempN == None:
print("error creating tsk node")
else:
tempN.setAttrib("probability", "0.1 0.5")
tempN = firstChild.addNode("sel")
if tempN == None:
print("error creating selector node")
else:
tempN.setAttrib("probability", "0.1 0.5")
#iterate over firstChild children:
firstChildList = firstChild.getChildren()
count = 0
for childNode in firstChildList:
count += 1
if count == 6:
print(
"test 3: success! please check the file test3.xml - every tag need to have the same attrib."
)
else:
print("test 3: failed :-(")
#print the tree we built from scratch to xml file.
#please check the file- every tag need to have the same attrib.
root.treeToXml("tests/test3.xml")
def minimax(board, player, moves_ahead, first_player
): #creates nodes for start board and return best next move
m = 0
curr_node = node(board, [], [], [], "MAX", True, True, False,
-1) #creates parent node
first_move = True
while (
(curr_node.parent != []) or (first_move == True)
): #in this loop it creates each nodes children until reached to given depth (moves_ahead)
first_move = False
if (curr_node.level == "MIN"): #assigns player depending on level
if (player == 'w'):
p = 'b'
else:
p = 'w'
else:
if (player == 'w'):
p = 'w'
else:
p = 'b'
if (curr_node.level == "MAX"
): #assigns level depending on parent node's level
l = "MIN"
else:
l = "MAX"
new_states = movegen(
curr_node.state,
player) #gets the new moves from current given move
while (len(new_states) > 0): #creates children nodes
state = new_states.pop(0)
new_node = node(state, curr_node, [], [], l, False, False, False,
-1)
curr_node.children.append(new_node)
for c in range(len(curr_node.children)):
if (c != len(curr_node.children) - 1):
curr_node.children[c].right = curr_node.children[c + 1]
curr_children = copy.copy(curr_node.children)
#assigns next node
if (m + 1 >= moves_ahead): #if depth is reached
for i in curr_node.children: #leaves are found
i.visited = True
i.isleaf = True
if (curr_node.right !=
[]): #goes to the node on the right if exists
curr_node = curr_node.right
if (curr_node.visited == True): #finds node that wasnt visited
found = False
while (curr_node.visited == True):
if (curr_node.visited == False and curr_node != []):
found = True
curr_node = curr_node.right
curr_node.visited = True
break
if (found == False): #if not found goes back to the parent
curr_node = curr_node.parent
else:
curr_node.visited = True
else:
if (curr_node.parent.isfirst == False
): #if we are back at the top get out of the loop
curr_node = curr_node.parent
else:
curr_node = curr_node.parent
break
else: #if depth hasnt reached
if (len(curr_children) > 0): #get first child if exists
curr_node = curr_children.pop(0)
curr_node.visited = True
else: #if not go right
if (curr_node.right != []):
curr_node = curr_node.right
curr_node.visited = True
else:
if (curr_node.isfirst == True):
break
if (curr_node.parent.isfirst == False):
curr_node = curr_node.parent
else:
curr_node = curr_node.parent
break
m += 1
return (get_best_move(curr_node, player, first_player, moves_ahead))
return True
current_stack.pop()
unvisited.append(a_node)
return False
#Read in names
participants = open('olive.txt')
participants = [names.strip('\n').split(' ') for names in participants]
graph = []
for names in participants: #Creates nodes with name and family members
for name in names:
family = names[:]
family.remove(name)
graph.append(node(name, family))
#Create unvisited list
unvisited = graph
#Traverse and see path:
bag = []
traversal(unvisited[random.randint(0,
len(unvisited) - 1)],
bag) #Selects random participant to start with to organize
bag.append(bag[0]) #Appends first person to the end as well
bag = [x.name for x in bag]
for x in range(len(bag) - 1):
print bag[x] + ' -> ' + bag[x + 1]