def watt_strogatz_3d_plot(p, number_of_average): N = np.arange(5, 105, 5) K = np.arange(0, 10, 1) X = N Y = K X, Y = np.meshgrid(X, Y) Z = X/2 for i in range(len(N)): n = N[i] print n for j in range(len(K)): k = K[j] if k>=n/2: Z[j][i] = 100 continue average = 0 for av in range(number_of_average): G = watts_strogatz_graph_directed(n, k, p) graph = Graph(G) graph.stats() average = average + graph.bow_tie[1] average = average / number_of_average Z[j][i] = average plot_3d(X, Y, Z, '3d_watt_strognatz.png', 'nodes', 'number of outgoing edges per node', 'scc [%]')
def erdoes_3d_plot(number_of_average): N = np.arange(5, 105, 5) X = N P = arange(0, 0.2, 0.005) Y = P X, Y = np.meshgrid(X, Y) Z = X/2 for i in range(len(N)): n = N[i] print n p = 0 for j in range(len(P)): if n > 50 and p > 0.1: Z[j][i] = 100 continue average = 0 for av in range(number_of_average): G = nx.gnp_random_graph(n, p, None, 1) graph = Graph(G) graph.stats() average = average + graph.bow_tie[1] average = average / number_of_average Z[j][i] = average p = p + 0.01 plot_3d(X, Y, Z, '3d_erdoes.png', 'nodes', 'probability of edge creation', 'scc [%]')
def random_nm_with_preferential_attachment_plot(number_of_average): N = np.arange(5, 105, 5) M = np.arange(0, 10, 1) X = N Y = M X, Y = np.meshgrid(X, Y) Z = X/2 for i in range (len(N)): n = N[i] print n for j in range(len(M)): m = M[j] if m >= n: Z[j][i] = 100 continue average = 0 for av in range(number_of_average): G = create_random_nm_graph_with_preferential_attachment(n, m) graph = Graph(G) graph.stats() average = average + graph.bow_tie[1] average = average / number_of_average Z[j][i] = average plot_3d(X, Y, Z, '3d_random_nm_with_preferential_attachment.png', 'nodes', 'number of outgoing edges per node', 'scc [%]')
def test_ancestors_with_crossing_paths(self):
graph = Graph()
graph.add_edges([
Edge('a', 'b', 1),
Edge('a', 'c', 1),
Edge('c', 'd', 1),
Edge('b', 'd', 1)])
self.assertCountEqual(graph.ancestors('d'), ['a', 'b', 'c', 'd'])
def get_values():
wt = list()
val = list()
n = int(nombre_arc_entry.get())
for i in range(1,n+1):
wt.append(int(tab1.grid_slaves(i, 1)[0].get()))
val.append(int(tab1.grid_slaves(i, 2)[0].get()))
print(wt,val)
initial_graph = Graph(int(nombre_nodes_entry.get()))
for i in range(n):
initial_graph.addEdge(wt[i],val[i])
initial_graph.DrawGraph()
initial_graph.PrintGraph()
initial_graph.Color()
plt.show()
newWindow = Toplevel(window)
newWindow.title("point d'articulation")
newWindow.geometry("200x200")
points = "les points d'articulation son : " + str(initial_graph.AP())
point = Label(newWindow, text=points).pack()
"""
def watts_strogatz(n, k, p_start, p_end, p_step, number_of_average):
x = []
bow_tie = []
legend = ["inc", "scc", "outc", "in_tendril", "out_tendril", "tube", "other"]
p = p_start
while p < p_end:
average = np.array([0,0,0,0,0,0,0])
for i in range(number_of_average):
G = watts_strogatz_graph_directed(n, k, p)
graph = Graph(G)
graph.stats()
average = average + graph.bow_tie
average = average / number_of_average
x.append(p)
bow_tie.append(average)
p = p + p_step
plt.plot(x, bow_tie)
plt.legend(legend, loc='right', shadow=True)
plt.xlabel('probability for edge rewiring')
plt.ylabel('percent')
plt.savefig('test.png')
def erdoes(n, p_start, p_end, p_step, number_of_average):
x = []
bow_tie = []
legend = ["inc", "scc", "outc", "in_tendril", "out_tendril", "tube", "other"]
p = p_start
while p < p_end:
average = np.array([0,0,0,0,0,0,0])
for i in range(number_of_average):
G = nx.gnp_random_graph(n, p, None, 1)
graph = Graph(G)
graph.stats()
average = average + graph.bow_tie
average = average / number_of_average
x.append(p)
bow_tie.append(average)
p = p + p_step
plt.plot(x, bow_tie)
plt.legend(legend, loc='right', shadow=True)
plt.xlabel('probability for edge creation')
plt.ylabel('percent')
plt.savefig('test.png')
def random_graph_3d_plot(number_of_average): N = np.arange(5, 55, 5) X = N M = np.arange(1, 101, 5) Y = M X, Y = np.meshgrid(X, Y) Z = X/2 for i in range(len(N)): n = N[i] print n for j in range(len(M)): m = M[j] average = 0 for av in range(number_of_average): G = nx.gnm_random_graph(n, m, None, 1) graph = Graph(G) graph.stats() average = average + graph.bow_tie[1] average = average / number_of_average Z[j][i] = average plot_3d(X, Y, Z, '3d_random_graph.png', 'nodes', 'edges', 'scc [%]')
def barabasi_albert(n, m_start, m_end, number_of_average):
print("barabasi_albert called")
x = []
bow_tie = []
legend = ["inc", "scc", "outc", "in_tendril", "out_tendril", "tube", "other"]
m = m_start
while m < m_end:
average = np.array([0,0,0,0,0,0,0])
for i in range(number_of_average):
G = barabasi_albert_graph_directed(n, m)
graph = Graph(G)
graph.stats()
average = average + graph.bow_tie
average = average / number_of_average
x.append(m)
bow_tie.append(average)
m = m + 1
plt.plot(x, bow_tie)
plt.legend(legend, loc='right', shadow=True)
plt.xlabel('number of edges from new node')
plt.ylabel('percent')
plt.savefig('barabasi_albert_components.png')
def test_ancestors(self):
graph = Graph()
graph.add_edges([
Edge('a', 'b', 1),
Edge('a', 'c', 1),
Edge('c', 'd', 1)])
self.assertCountEqual(graph.ancestors('a'), ['a'])
self.assertCountEqual(graph.ancestors('b'), ['a', 'b'])
self.assertCountEqual(graph.ancestors('c'), ['a', 'c'])
self.assertCountEqual(graph.ancestors('d'), ['a', 'c', 'd'])
def barabasi_albert_graph_directed(n, m):
if m < 1 or m >=n:
raise nx.NetworkXError("Barabasi-Albert network must have m>=1 and m<n, m=%d,n=%d"%(m,n))
graphlist = []
graph = Graph()
gc = GraphCollection(barabasi_albert_graph_directed)
graph.add_nodes_from(range(n))
graph.name="barabasi_albert_graph(%s,%s)"%(n,m)
targets=list(range(n))
for i in range(0, n, 1):
rand = random.sample(targets, m)
while i in rand:
rand = random.sample(targets, m)
graph.add_edges_from(zip([i]*m, rand))
gc.append(graph)
graphlist.append(graph)
#testP = TestPlotting('test_bowtie_plot_generator')
#testP.call_plot_graph_with(graph, 'test_bowtie_plot_generator', i)
return graphlist
def test_big_out(self):
print("Plotting Test Start:\tBig Out ")
start_time = time.time()
name = "big_out"
graph = Graph()
vList = graph.add_vertex(22)
# IN-Layers
graph.add_edge(graph.vertex(0), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(2), graph.vertex(0))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(4))
graph.add_edge(graph.vertex(3), graph.vertex(5))
graph.add_edge(graph.vertex(3), graph.vertex(6))
graph.add_edge(graph.vertex(4), graph.vertex(7))
graph.add_edge(graph.vertex(4), graph.vertex(8))
graph.add_edge(graph.vertex(5), graph.vertex(9))
graph.add_edge(graph.vertex(5), graph.vertex(10))
graph.add_edge(graph.vertex(6), graph.vertex(11))
graph.add_edge(graph.vertex(6), graph.vertex(12))
graph.add_edge(graph.vertex(7), graph.vertex(13))
graph.add_edge(graph.vertex(8), graph.vertex(13))
graph.add_edge(graph.vertex(9), graph.vertex(13))
graph.add_edge(graph.vertex(10), graph.vertex(14))
graph.add_edge(graph.vertex(11), graph.vertex(14))
graph.add_edge(graph.vertex(12), graph.vertex(14))
graph.add_edge(graph.vertex(13), graph.vertex(15))
graph.add_edge(graph.vertex(14), graph.vertex(16))
graph.add_edge(graph.vertex(13), graph.vertex(17))
graph.add_edge(graph.vertex(14), graph.vertex(18))
graph.add_edge(graph.vertex(13), graph.vertex(19))
graph.add_edge(graph.vertex(14), graph.vertex(20))
graph.add_edge(graph.vertex(13), graph.vertex(21))
self.plot_graph(graph, name)
duration = (time.time() - start_time)
print("Plotting Test End:\tBig Out \t(%.2fs)\n" % duration)
def test_big_scc(self):
print("Plotting Test Start:\tBig SCC")
start_time = time.time()
graph = Graph()
graph.add_vertex(13)
graph.add_edge(graph.vertex(0), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(4))
graph.add_edge(graph.vertex(4), graph.vertex(5))
graph.add_edge(graph.vertex(5), graph.vertex(6))
graph.add_edge(graph.vertex(6), graph.vertex(7))
graph.add_edge(graph.vertex(7), graph.vertex(8))
graph.add_edge(graph.vertex(8), graph.vertex(9))
graph.add_edge(graph.vertex(9), graph.vertex(10))
graph.add_edge(graph.vertex(10), graph.vertex(11))
graph.add_edge(graph.vertex(11), graph.vertex(12))
graph.add_edge(graph.vertex(12), graph.vertex(1))
self.plot_graph(graph, "big_scc")
duration = (time.time() - start_time)
print("Plotting Test End:\tBig SCC\t\t(%.2fs)\n" % duration)
def test_40nodes_in_scc_out(self):
print("Plotting Test Start:\t40 Nodes ")
start_time = time.time()
name = "40_nodes"
graph = Graph()
vList = graph.add_vertex(40)
# 1st and 2nd layer IN
graph.add_edge(graph.vertex(0), graph.vertex(6))
graph.add_edge(graph.vertex(1), graph.vertex(6))
graph.add_edge(graph.vertex(2), graph.vertex(6))
graph.add_edge(graph.vertex(3), graph.vertex(6))
graph.add_edge(graph.vertex(4), graph.vertex(6))
# 3rd layer IN
graph.add_edge(graph.vertex(6), graph.vertex(7))
graph.add_edge(graph.vertex(6), graph.vertex(8))
graph.add_edge(graph.vertex(6), graph.vertex(9))
graph.add_edge(graph.vertex(6), graph.vertex(10))
graph.add_edge(graph.vertex(5), graph.vertex(7))
# 4th layer IN
graph.add_edge(graph.vertex(7), graph.vertex(11))
graph.add_edge(graph.vertex(8), graph.vertex(11))
graph.add_edge(graph.vertex(9), graph.vertex(12))
graph.add_edge(graph.vertex(10), graph.vertex(12))
# 5th layer IN (13, 14, 15, 16, 17)
graph.add_edge(graph.vertex(11), graph.vertex(13))
graph.add_edge(graph.vertex(11), graph.vertex(14))
graph.add_edge(graph.vertex(11), graph.vertex(15))
graph.add_edge(graph.vertex(12), graph.vertex(16))
graph.add_edge(graph.vertex(12), graph.vertex(17))
# build SCC
# scc nodes from in (18, 19, 20)
graph.add_edge(graph.vertex(13), graph.vertex(18))
graph.add_edge(graph.vertex(14), graph.vertex(19))
graph.add_edge(graph.vertex(15), graph.vertex(18))
graph.add_edge(graph.vertex(16), graph.vertex(19))
graph.add_edge(graph.vertex(17), graph.vertex(20))
# scc nodes from in and to out (21, 22, 23, 24)
graph.add_edge(graph.vertex(14), graph.vertex(21))
graph.add_edge(graph.vertex(15), graph.vertex(22))
graph.add_edge(graph.vertex(16), graph.vertex(23))
graph.add_edge(graph.vertex(17), graph.vertex(24))
graph.add_edge(graph.vertex(21), graph.vertex(31))
graph.add_edge(graph.vertex(22), graph.vertex(31))
graph.add_edge(graph.vertex(23), graph.vertex(30))
graph.add_edge(graph.vertex(24), graph.vertex(29))
# Internal SCC (25, 26)
graph.add_edge(graph.vertex(18), graph.vertex(24))
graph.add_edge(graph.vertex(18), graph.vertex(23))
graph.add_edge(graph.vertex(19), graph.vertex(23))
graph.add_edge(graph.vertex(19), graph.vertex(22))
graph.add_edge(graph.vertex(18), graph.vertex(25))
graph.add_edge(graph.vertex(20), graph.vertex(26))
graph.add_edge(graph.vertex(21), graph.vertex(27))
graph.add_edge(graph.vertex(22), graph.vertex(27))
graph.add_edge(graph.vertex(24), graph.vertex(28))
graph.add_edge(graph.vertex(25), graph.vertex(21))
graph.add_edge(graph.vertex(27), graph.vertex(28))
graph.add_edge(graph.vertex(28), graph.vertex(20))
# back links (to ensure scc)
graph.add_edge(graph.vertex(25), graph.vertex(19))
graph.add_edge(graph.vertex(25), graph.vertex(20))
graph.add_edge(graph.vertex(26), graph.vertex(18))
graph.add_edge(graph.vertex(21), graph.vertex(22))
graph.add_edge(graph.vertex(23), graph.vertex(24))
# scc nodes to out (27, 28)
graph.add_edge(graph.vertex(27), graph.vertex(29))
graph.add_edge(graph.vertex(28), graph.vertex(29))
graph.add_edge(graph.vertex(28), graph.vertex(30))
graph.add_edge(graph.vertex(28), graph.vertex(31))
# multiple out layers
graph.add_edge(graph.vertex(31), graph.vertex(32))
graph.add_edge(graph.vertex(32), graph.vertex(33))
graph.add_edge(graph.vertex(32), graph.vertex(34))
graph.add_edge(graph.vertex(32), graph.vertex(35))
graph.add_edge(graph.vertex(34), graph.vertex(36))
graph.add_edge(graph.vertex(35), graph.vertex(37))
graph.add_edge(graph.vertex(37), graph.vertex(38))
graph.add_edge(graph.vertex(37), graph.vertex(39))
self.plot_graph(graph, name)
duration = (time.time() - start_time)
print("Plotting Test End:\t40 Nodes \t(%.2fs)\n" % duration)
def test_tiny(self):
print("Plotting Test Start:\tTiny Graph")
start_time = time.time()
graph = Graph()
vList = graph.add_vertex(8)
# build scc
graph.add_edge(graph.vertex(0), graph.vertex(1))
graph.add_edge(graph.vertex(0), graph.vertex(2))
graph.add_edge(graph.vertex(0), graph.vertex(3))
graph.add_edge(graph.vertex(1), graph.vertex(0))
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(1), graph.vertex(3))
graph.add_edge(graph.vertex(2), graph.vertex(0))
graph.add_edge(graph.vertex(2), graph.vertex(1))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(0))
graph.add_edge(graph.vertex(3), graph.vertex(1))
graph.add_edge(graph.vertex(3), graph.vertex(2))
# build in
graph.add_edge(graph.vertex(4), graph.vertex(0))
graph.add_edge(graph.vertex(5), graph.vertex(1))
# build out
graph.add_edge(graph.vertex(2), graph.vertex(6))
graph.add_edge(graph.vertex(3), graph.vertex(7))
self.plot_graph(graph, "tiny")
duration = (time.time() - start_time)
print("Plotting Test End:\tTiny Graph\t(%.2fs)\n" % duration)
def test_30nodes_in_scc_out(self):
print("Plotting Test Start:\t30 Nodes ")
start_time = time.time()
name = "30_nodes"
graph = Graph()
vList = graph.add_vertex(30)
# IN-Layers
graph.add_edge(graph.vertex(0), graph.vertex(3))
graph.add_edge(graph.vertex(1), graph.vertex(3))
graph.add_edge(graph.vertex(2), graph.vertex(4))
graph.add_edge(graph.vertex(3), graph.vertex(5))
graph.add_edge(graph.vertex(4), graph.vertex(3))
graph.add_edge(graph.vertex(4), graph.vertex(6))
graph.add_edge(graph.vertex(5), graph.vertex(6))
graph.add_edge(graph.vertex(5), graph.vertex(7))
graph.add_edge(graph.vertex(6), graph.vertex(7))
graph.add_edge(graph.vertex(6), graph.vertex(8))
# scc
# in from scc (8,9,10,11)
graph.add_edge(graph.vertex(7), graph.vertex(9))
graph.add_edge(graph.vertex(7), graph.vertex(10))
graph.add_edge(graph.vertex(7), graph.vertex(11))
graph.add_edge(graph.vertex(8), graph.vertex(9))
graph.add_edge(graph.vertex(9), graph.vertex(10))
graph.add_edge(graph.vertex(9), graph.vertex(11))
graph.add_edge(graph.vertex(10), graph.vertex(11))
graph.add_edge(graph.vertex(10), graph.vertex(14))
graph.add_edge(graph.vertex(11), graph.vertex(8))
graph.add_edge(graph.vertex(11), graph.vertex(12))
graph.add_edge(graph.vertex(12), graph.vertex(13))
graph.add_edge(graph.vertex(13), graph.vertex(11))
graph.add_edge(graph.vertex(13), graph.vertex(16))
graph.add_edge(graph.vertex(14), graph.vertex(9))
graph.add_edge(graph.vertex(14), graph.vertex(15))
graph.add_edge(graph.vertex(14), graph.vertex(17))
graph.add_edge(graph.vertex(15), graph.vertex(18))
graph.add_edge(graph.vertex(15), graph.vertex(10))
graph.add_edge(graph.vertex(16), graph.vertex(12))
graph.add_edge(graph.vertex(16), graph.vertex(17))
graph.add_edge(graph.vertex(11), graph.vertex(18))
# OUT-Layers
graph.add_edge(graph.vertex(18), graph.vertex(19))
graph.add_edge(graph.vertex(18), graph.vertex(20))
graph.add_edge(graph.vertex(18), graph.vertex(21))
graph.add_edge(graph.vertex(17), graph.vertex(20))
graph.add_edge(graph.vertex(17), graph.vertex(22))
graph.add_edge(graph.vertex(17), graph.vertex(23))
graph.add_edge(graph.vertex(19), graph.vertex(24))
graph.add_edge(graph.vertex(20), graph.vertex(24))
graph.add_edge(graph.vertex(20), graph.vertex(25))
graph.add_edge(graph.vertex(20), graph.vertex(26))
graph.add_edge(graph.vertex(21), graph.vertex(26))
graph.add_edge(graph.vertex(22), graph.vertex(26))
graph.add_edge(graph.vertex(22), graph.vertex(27))
graph.add_edge(graph.vertex(23), graph.vertex(27))
graph.add_edge(graph.vertex(24), graph.vertex(28))
graph.add_edge(graph.vertex(27), graph.vertex(28))
graph.add_edge(graph.vertex(27), graph.vertex(29))
graph.add_edge(graph.vertex(28), graph.vertex(23))
self.plot_graph(graph, name)
duration = (time.time() - start_time)
print("Plotting Test End:\t30 Nodes \t(%.2fs)\n" % duration)
pvg.add_edge(edge.v_from, edge.v_to)
return pvg
def test(number, graph):
pvg = convert_graph_to_pvg(graph)
pvg.layout()
pvg.draw('test results/test' + number + '.png')
print('wrote test' + number + '.png')
test(
'001',
Graph({'a', 'b', 'c', 'd'},
{Edge('a', 'b'),
Edge('c', 'd'),
Edge('d', 'b'),
Edge('c', 'a')}))
test(
'002',
Graph.topological_sort(
Graph({'a', 'b', 'c', 'd'},
{Edge('a', 'b'), Edge('c', 'd'),
Edge('d', 'b')},
directed=True), 'a'))
test(
'003',
Graph({'a', 'b', 'c', 'd', 'e'},
{Edge('a', 'b'),
print "graph created. start calculation..." ''' x = [] y = set() for i in range(1,60000): if i not in y: x.append(i) y.add(i) if i%100 == 0: print i ''' t1 = time.time() graph = Graph(G) graph.stats() print graph.bow_tie t2 = time.time() graph = BowTie(G) graph.stats() print graph.bow_tie t3 = time.time() print "Time for the first programm: %s" %(t2-t1) print "Time for the second programm: %s" %(t3-t2)
for vertex in graph.get_vertices():
pvg.add_node(vertex)
for edge in graph.get_edges():
pvg.add_edge(edge.v_from, edge.v_to)
return pvg
def test(number, graph):
pvg = convert_graph_to_pvg(graph)
pvg.layout()
pvg.draw('test results/test' + number + '.png')
print('wrote test' + number + '.png')
test('001', Graph({'a', 'b', 'c', 'd'}, {
Edge('a', 'b'),
Edge('c', 'd'),
Edge('d', 'b'),
Edge('c', 'a')}))
test('002', Graph.topological_sort(Graph({'a', 'b', 'c', 'd'}, {
Edge('a', 'b'),
Edge('c', 'd'),
Edge('d', 'b')}, directed=True), 'a'))
test('003', Graph({'a', 'b', 'c', 'd', 'e'}, {
Edge('a', 'b'),
Edge('c', 'd'),
Edge('d', 'b'),
Edge('c', 'a')}, True))
def test_1(self):
g = Graph(['A', 'B', 'C', 'D', 'E', 'F'], [(0, 1, 10), (0, 2, 8),
(1, 2, 1), (1, 3, 30),
(1, 4, 6), (2, 4, 20),
(3, 4, 7), (4, 5, 15)])
print(g.floyd())
def test_success(self):
gr = Graph(9, 0, 4, g)
self.assertEqual(gr.retShortestPath(), 21)
import json
from flask import Flask, request, jsonify
from urllib.parse import urlparse, parse_qs
from main import Graph
app = Flask(__name__)
graph = Graph()
def create_command(command, data):
try:
if data[1].strip() != 'content-type : application/json':
return jsonify({"msg": "Invalid command syntax"}), 400
if command[1].strip() == '/devices':
request_data = json.loads(data[2])
status_code, msg = graph.add_node(request_data["name"], request_data["type"])
return jsonify({"msg": msg}), status_code
elif command[1].strip() == '/connections':
request_data = json.loads(data[2])
status_code, msg = graph.add_connection(request_data["source"], request_data["targets"])
return jsonify({"msg": msg}), status_code
except Exception as e:
return jsonify({"msg": "Invalid command syntax"}), 400
def modify_command(command, data):
def test_all_components(self):
print("Plotting Test Start:\tAll Components")
start_time = time.time()
name = "all_components"
graph = Graph()
vList = graph.add_vertex(20)
# build in
graph.add_edge(graph.vertex(0), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(1))
graph.add_edge(graph.vertex(16), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(0))
# build scc
graph.add_edge(graph.vertex(2), graph.vertex(5))
graph.add_edge(graph.vertex(3), graph.vertex(4))
graph.add_edge(graph.vertex(3), graph.vertex(6))
graph.add_edge(graph.vertex(4), graph.vertex(5))
graph.add_edge(graph.vertex(5), graph.vertex(6))
graph.add_edge(graph.vertex(5), graph.vertex(7))
graph.add_edge(graph.vertex(6), graph.vertex(4))
graph.add_edge(graph.vertex(2), graph.vertex(13))
graph.add_edge(graph.vertex(15), graph.vertex(6))
graph.add_edge(graph.vertex(4), graph.vertex(15))
graph.add_edge(graph.vertex(13), graph.vertex(15))
graph.add_edge(graph.vertex(4), graph.vertex(13))
# build out
graph.add_edge(graph.vertex(6), graph.vertex(7))
graph.add_edge(graph.vertex(13), graph.vertex(14))
graph.add_edge(graph.vertex(14), graph.vertex(17))
graph.add_edge(graph.vertex(14), graph.vertex(18))
graph.add_edge(graph.vertex(17), graph.vertex(18))
# build tube
graph.add_edge(graph.vertex(3), graph.vertex(9))
graph.add_edge(graph.vertex(9), graph.vertex(10))
graph.add_edge(graph.vertex(10), graph.vertex(11))
graph.add_edge(graph.vertex(11), graph.vertex(7))
# Out-Tendril
graph.add_edge(graph.vertex(8), graph.vertex(7))
# Other
graph.add_edge(graph.vertex(8), graph.vertex(12))
# In-Tendril
graph.add_edge(graph.vertex(16), graph.vertex(19))
self.plot_graph(graph, name)
duration = (time.time() - start_time)
print("Plotting Test End:\tAll Components\t(%.2fs)\n" % duration)
import sys
# definindo cores
BLACK = (0, 0, 0)
WHITE = (255, 255, 255)
BLUE = (0, 0, 255)
GREEN = (0, 255, 0)
RED = (255, 0, 0)
GRAY = (30, 30, 29)
pygame.init()
sair = True
#fps
frame = pygame.time.Clock()
graph = Graph()
graph.create(5, 5)
bot = Game()
# PROCESSAMENTO DE ENTRADA
screen = pygame.display.set_mode((640, 480))
contador = 0
# carregando fonte
font = pygame.font.SysFont(None, 55)
#titulo da janela
pygame.display.set_caption('Dots & Boxes')
# preenchendo o fundo com preto
screen.fill(BLACK)
def test_small(self):
print("Plotting Test Start:\tSmall Graph")
start_time = time.time()
name = "small"
graph = Graph()
vList = graph.add_vertex(14)
# build scc
graph.add_edge(graph.vertex(0), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(4))
graph.add_edge(graph.vertex(4), graph.vertex(5))
graph.add_edge(graph.vertex(5), graph.vertex(0))
# build in
graph.add_edge(graph.vertex(9), graph.vertex(0))
graph.add_edge(graph.vertex(9), graph.vertex(5))
graph.add_edge(graph.vertex(11), graph.vertex(5))
graph.add_edge(graph.vertex(10), graph.vertex(11))
graph.add_edge(graph.vertex(11), graph.vertex(12))
graph.add_edge(graph.vertex(12), graph.vertex(10))
graph.add_edge(graph.vertex(13), graph.vertex(5))
graph.add_edge(graph.vertex(13), graph.vertex(4))
# build out
graph.add_edge(graph.vertex(1), graph.vertex(6))
graph.add_edge(graph.vertex(2), graph.vertex(7))
graph.add_edge(graph.vertex(3), graph.vertex(8))
self.plot_graph(graph, name)
duration = (time.time() - start_time)
print("Plotting Test End:\tSmall Graph\t(%.2fs)\n" % duration)
def test_bowtie(self):
graph = Graph()
vList = graph.add_vertex(13)
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(0))
graph.add_edge(graph.vertex(3), graph.vertex(4))
graph.add_edge(graph.vertex(4), graph.vertex(5))
graph.add_edge(graph.vertex(5), graph.vertex(6))
graph.add_edge(graph.vertex(6), graph.vertex(4))
graph.add_edge(graph.vertex(6), graph.vertex(7))
graph.add_edge(graph.vertex(3), graph.vertex(9))
graph.add_edge(graph.vertex(9), graph.vertex(10))
graph.add_edge(graph.vertex(10), graph.vertex(11))
graph.add_edge(graph.vertex(11), graph.vertex(7))
graph.add_edge(graph.vertex(8), graph.vertex(7))
graph.add_edge(graph.vertex(8), graph.vertex(12))
graph.stats()
self.assertEqual(graph.bow_tie,
[
300/len(list(graph.vertices())),
300/len(list(graph.vertices())),
100/len(list(graph.vertices())),
100/len(list(graph.vertices())),
100/len(list(graph.vertices())),
300/len(list(graph.vertices())),
100/len(list(graph.vertices()))
]
)
exit(0)
else:
pass
if ([{'z', 'a'}, {'b', 'y'}, {'c', 'x'}, {'d', 'w'}] == return_val):
print(return_val)
flag+=1
exit(0)
else:
pass
if ([{'q', 'p'}, {'w', 'o'}, {'e', 'i'}, {'r', 'u'}] == return_val):
print(return_val)
flag+=1
exit(0)
else:
pass
if ([{'a', 'l'}, {'s', 'k'}, {'j', 'd'}, {'f', 'h'}] == return_val):
print(return_val)
flag+=1
exit(0)
else:
pass
if(flag==0):
print('0')
keys = list(map(str,input().split()))
values =list(map(str,input().split()))
g = {}
for key, value in zip(keys, values):
g[key] = value
graph = Graph(g)
test_case1(graph.edges())
def test_ultra_long_tube(self):
print("Plotting Test Start:\tUltra Long Tube ")
start_time = time.time()
name = "ultra_long_tube"
graph = Graph()
vList = graph.add_vertex(26)
# build in
graph.add_edge(graph.vertex(0), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(1))
graph.add_edge(graph.vertex(4), graph.vertex(5))
graph.add_edge(graph.vertex(6), graph.vertex(5))
graph.add_edge(graph.vertex(5), graph.vertex(3))
# build scc
graph.add_edge(graph.vertex(3), graph.vertex(7))
graph.add_edge(graph.vertex(2), graph.vertex(11))
graph.add_edge(graph.vertex(7), graph.vertex(8))
graph.add_edge(graph.vertex(8), graph.vertex(9))
graph.add_edge(graph.vertex(9), graph.vertex(10))
graph.add_edge(graph.vertex(10), graph.vertex(11))
graph.add_edge(graph.vertex(11), graph.vertex(7))
# build out
graph.add_edge(graph.vertex(8), graph.vertex(12))
graph.add_edge(graph.vertex(12), graph.vertex(13))
graph.add_edge(graph.vertex(12), graph.vertex(14))
graph.add_edge(graph.vertex(9), graph.vertex(15))
graph.add_edge(graph.vertex(15), graph.vertex(16))
# build tube
graph.add_edge(graph.vertex(5), graph.vertex(17))
graph.add_edge(graph.vertex(17), graph.vertex(18))
graph.add_edge(graph.vertex(18), graph.vertex(19))
graph.add_edge(graph.vertex(19), graph.vertex(20))
graph.add_edge(graph.vertex(20), graph.vertex(21))
graph.add_edge(graph.vertex(21), graph.vertex(22))
graph.add_edge(graph.vertex(22), graph.vertex(23))
graph.add_edge(graph.vertex(23), graph.vertex(24))
graph.add_edge(graph.vertex(24), graph.vertex(25))
graph.add_edge(graph.vertex(25), graph.vertex(16))
self.plot_graph(graph, name)
duration = (time.time() - start_time)
print("Plotting Test End:\tUltra Long Tube \t\t(%.2fs)\n" % duration)
def test_failed(self):
gr = Graph(9, 0, 4, g)
self.assertEqual(gr.retShortestPath(), 20)
def test_grow_in(self):
print("Plotting Test Start:\tGrow IN")
start_time = time.time()
name = "growIn"
graph = Graph()
graphs = []
# create graphs collection instance
# is needed to create plotting instance
gc = GraphCollection(name)
vList = graph.add_vertex(7)
# SCC
graph.add_edge(graph.vertex(0),graph.vertex(1))
graph.add_edge(graph.vertex(1),graph.vertex(2))
graph.add_edge(graph.vertex(2),graph.vertex(3))
graph.add_edge(graph.vertex(3),graph.vertex(4))
graph.add_edge(graph.vertex(4),graph.vertex(5))
graph.add_edge(graph.vertex(5),graph.vertex(6))
graph.add_edge(graph.vertex(6),graph.vertex(0))
gc.append(copy.deepcopy(graph))
print("Growing IN")
for x in range (7, 17):
new_vertex = graph.add_vertex()
graph.add_edge(new_vertex, graph.vertex(1))
gc.append(copy.deepcopy(graph))
graphs.append(gc)
print("Graphs Created! Starting the plotting")
self.plot_graph_collection(graphs, name)
duration = (time.time() - start_time)
print("Plotting Test End:\tGrow IN\t\t(%.2fs)\n" % duration)
def test_grow_in_scc_out(self):
print("Plotting Test Start:\tGrow")
start_time = time.time()
name = "grow_in_scc_out"
graph = Graph()
graphs = []
# create graphs collection instance
gc = GraphCollection(name)
graph.add_vertex(7)
# SCC
graph.add_edge(graph.vertex(0),graph.vertex(1))
graph.add_edge(graph.vertex(1),graph.vertex(2))
graph.add_edge(graph.vertex(2),graph.vertex(3))
graph.add_edge(graph.vertex(3),graph.vertex(4))
graph.add_edge(graph.vertex(4),graph.vertex(5))
graph.add_edge(graph.vertex(5),graph.vertex(6))
graph.add_edge(graph.vertex(6),graph.vertex(0))
gc.append(copy.deepcopy(graph))
print("Growing IN")
for x in range (7, 27):
new_vertex = graph.add_vertex()
graph.add_edge(new_vertex, graph.vertex(1))
gc.append(copy.deepcopy(graph))
print("Growing OUT")
for x in range (27, 47):
new_vertex = graph.add_vertex()
graph.add_edge(graph.vertex(2), new_vertex)
gc.append(copy.deepcopy(graph))
print("Growing SCC")
for x in range (7, 27):
graph.add_edge(graph.vertex(1), graph.vertex(x))
gc.append(copy.deepcopy(graph))
graph.add_edge(graph.vertex(20+x), graph.vertex(2))
gc.append(copy.deepcopy(graph))
graphs.append(gc)
print("Graphs Created! Starting the plotting")
self.plot_graph_collection(graphs, name)
duration = (time.time() - start_time)
print("Plotting Test End:\tGrow\t\t(%.2fs)\n" % duration)
def test_grow_shrink(self):
print("Plotting Test Start:\tGrow & Shrink (GC)")
start_time = time.time()
name = "grow_shrink"
graph = Graph()
graphs = []
# create graphs collection instance
gc = GraphCollection(name)
graph.add_vertex(7)
# SCC
graph.add_edge(graph.vertex(0),graph.vertex(1))
graph.add_edge(graph.vertex(1),graph.vertex(2))
graph.add_edge(graph.vertex(2),graph.vertex(3))
graph.add_edge(graph.vertex(3),graph.vertex(4))
graph.add_edge(graph.vertex(4),graph.vertex(5))
graph.add_edge(graph.vertex(5),graph.vertex(6))
graph.add_edge(graph.vertex(6),graph.vertex(0))
gc.append(copy.deepcopy(graph))
in_edges = []
out_edges = []
scc_edges = []
print("Growing IN")
for x in range (7, 27):
new_vertex = graph.add_vertex()
in_edge = graph.add_edge(new_vertex, graph.vertex(1))
in_edges.append(in_edge)
gc.append(copy.deepcopy(graph))
print("Growing OUT")
for x in range (27, 47):
new_vertex = graph.add_vertex()
out_edge = graph.add_edge(graph.vertex(2), new_vertex)
out_edges.append(out_edge)
gc.append(copy.deepcopy(graph))
print("Growing SCC")
for x in range (7, 27):
scc_edge = graph.add_edge(graph.vertex(1), graph.vertex(x))
scc_edges.append(scc_edge)
gc.append(copy.deepcopy(graph))
scc_edge = graph.add_edge(graph.vertex(20+x), graph.vertex(2))
scc_edges.append(scc_edge)
gc.append(copy.deepcopy(graph))
print("Shrinking SCC")
for edge in scc_edges:
graph.remove_edge(edge)
gc.append(copy.deepcopy(graph))
print("Shrinking OUT")
for edge in out_edges:
graph.remove_edge(edge)
gc.append(copy.deepcopy(graph))
print("Shrinking IN")
for edge in in_edges:
graph.remove_edge(edge)
gc.append(copy.deepcopy(graph))
graphs.append(gc)
print("Plotting Graphs")
self.plot_graph_collection(graphs, name)
duration = (time.time() - start_time)
print("Plotting Test End:\tGrow & Shrink (deep copy)\t(%.2fs)\n" % duration)
return 15
def func7():
print("func7")
return 17
a = Node("A", func1)
b = Node("B", func2)
c = Node("C", func3)
d = Node("D", func4)
e = Node("E", func5)
f = Node("F", func6)
h = Node("H", func7)
g = Graph()
g.add_node(c)
g.add_node(b)
g.add_node(d)
g.add_node(e)
g.add_node(a)
g.add_node(f)
g.add_node(h)
g.add_edge(a, b)
g.add_edge(a, c)
g.add_edge(b, d)
g.add_edge(b, e)
g.add_edge(e, f)
g.add_edge(c, d)
g.add_edge(f, h)
def test_10nodes_in_scc_out(self):
print("Plotting Test Start:\t10 Nodes ")
start_time = time.time()
name = "10_nodes"
graph = Graph()
vList = graph.add_vertex(10)
# IN-Layers
graph.add_edge(graph.vertex(0), graph.vertex(1))
graph.add_edge(graph.vertex(1), graph.vertex(2))
graph.add_edge(graph.vertex(1), graph.vertex(3))
graph.add_edge(graph.vertex(2), graph.vertex(3))
graph.add_edge(graph.vertex(3), graph.vertex(4))
graph.add_edge(graph.vertex(4), graph.vertex(5))
graph.add_edge(graph.vertex(5), graph.vertex(2))
graph.add_edge(graph.vertex(2), graph.vertex(6))
graph.add_edge(graph.vertex(6), graph.vertex(7))
graph.add_edge(graph.vertex(7), graph.vertex(5))
graph.add_edge(graph.vertex(7), graph.vertex(8))
graph.add_edge(graph.vertex(7), graph.vertex(9))
graph.add_edge(graph.vertex(8), graph.vertex(6))
graph.add_edge(graph.vertex(8), graph.vertex(9))
self.plot_graph(graph, name)
duration = (time.time() - start_time)
print("Plotting Test End:\t10 Nodes \t(%.2fs)\n" % duration)
def test_bowtie(self):
graph = Graph()
graph.add_edge(1, 2)
graph.add_edge(2, 3)
graph.add_edge(3, 1)
graph.add_edge(1, 0)
graph.add_edge(3, 4)
graph.add_edge(4, 5)
graph.add_edge(5, 6)
graph.add_edge(6, 4)
graph.add_edge(6, 7)
graph.add_edge(3, 9)
graph.add_edge(9, 10)
graph.add_edge(10, 11)
graph.add_edge(11, 7)
graph.add_edge(8, 7)
graph.add_edge(8, 12)
graph.stats()
self.assertEqual(graph.bow_tie, [300/len(graph), 300/len(graph),
100/len(graph), 100/len(graph),
100/len(graph), 300/len(graph),
100/len(graph)])
from rolling import roll
import classes
import monsters
from os import system, name
def clear_console():
if name == 'nt':
system('cls')
else:
system('clear')
char = classes.fighter
g = Graph.create_graph(10, 10)
game = Game()
game.place_monster(g, create_moster(monsters.GOBLIN.copy()))
char_place = game.place_char(g, char, 94)
lvl_up = classes.LvlUp(char)
lvl_up.show_hero()
Graphic.show_map(g)
while not game.game_over:
go = input('your turn\n>>>')
if not game.your_turn:
clear_console()
game.go_char(g, go, char)
if game.win:
game.win = False