def generateRoute(start, end, mta):
accessibility = True
if random.random() > 0.5:
accessibility = False
start = random.choice(mta.findStop(start, accessibility))
end = random.choice(mta.findStop(end, accessibility))
return route(start, end, mta, accessibility)
with open(join("test", "trees_route.json")) as file:
routes_data = load(file)
N2 = 10 # Cantidad de test para la consulta 3
for i in range(N2):
total[2] += 1
try:
# Respuesta de la consulta
answer = routes_data[i]["answer"]
# Eliminar la respuesta del diccionario
del routes_data[i]["answer"]
# Ejecutar la consulta. Le entrego los argumentos con un kwargs
student_answer = route(**routes_data[i])
# Comparar
if student_answer == answer:
result[2] += 1
print_test("Founding route", "Successful")
text.append(1)
else:
text.append(0)
print_test("Founding route", "Failed")
except Exception as e:
print_test("Founding route", "Failed")
print(e)
text.append("Error {}".format(e))
import sys
import main as m
sys.path.append("/home/blitzar/projects/scigraph")
gr = m.graph("graph", "blitzar")
for i in range(0, 100):
globals()['v' + str(i)] = m.vertex(gr, name='vertex number' + str(i))
e1 = m.edge(graph=gr, initial=v2, final=v1, directed=True)
e2 = m.edge(graph=gr, initial=v2, final=v3, directed=True)
e3 = m.edge(graph=gr, initial=v3, final=v1)
r1 = m.route(graph=gr, way=[e2, e3], name="Test")
for i in range(0, 100):
gr.appendVertex(globals()['v' + str(i)])
gr.appendRoute(r1)
gr.appendEdge(e2)
gr.appendEdge(e3)
gr.dump('test.json')
fld = m.canvas()
fld.loadGraph('test.json')
print(gr.id)
print(fld.graphs[0].vertices)
print(fld.graphs[0].edges)
print(fld.graphs[0].routes)
print(fld.graphs[0].author)
print(fld.graphs[0].name)
print(fld.graphs[0].id)
import numpy as np
import matplotlib.pyplot as plt
if __name__ == '__main__':
matr = main.pointsField(20, 8, 5, 100)
m = main.matr_adj(matr)
rt = main.route(matr)
tree = main.Cluster_Tree(m, rt, rt[0])
maximum = [0]
main.cost_balancing(tree, 100, maximum)
main.show_cluster_tree(tree, matr, maximum[0])
print(main.check_sum(tree))
print(rt[0])
area = np.pi * 10