def ques4_plot():
"""
Plot an example with two curves with legends
"""
ERGraph = uERAlgo(1239,0.004)
UPAGraph = UPAalgo(1239,3)
computer_nw = alg_application2_provided.load_graph(alg_application2_provided.NETWORK_URL)
xvals = range(0,1240)
yvals1 = module2.compute_resilience(ERGraph,alg_application2_provided.targeted_order(ERGraph))
yvals2 = module2.compute_resilience(UPAGraph,alg_application2_provided.targeted_order(UPAGraph))
yvals3 = module2.compute_resilience(computer_nw,alg_application2_provided.targeted_order(computer_nw))
#yvals1 = module2.compute_resilience(ERGraph,fast_targeted_order(ERGraph))
#yvals2 = module2.compute_resilience(UPAGraph,fast_targeted_order(UPAGraph))
#yvals3 = module2.compute_resilience(computer_nw,fast_targeted_order(computer_nw))
plt.xlabel("Number of Nodes Removed")
plt.ylabel("Size of Largest Connected Component")
plt.title("Size of Largest Connected Component vs Nodes Removed (using Targeted Order)")
plt.plot(xvals, yvals1, '-g', label='ERGraph n = 1239,p = 0.004')
plt.plot(xvals, yvals2, '-r', label='UPAGraph n = 1239, m = 3')
plt.plot(xvals, yvals3, '-b', label='computer network')
plt.legend(loc='upper right')
plt.show()
#ques4_plot()
def question1(network, er, upa, order_func, order_label, filename):
N = len(network)
order = order_func(network)
network_res = module2.compute_resilience(network, order)
er_res = module2.compute_resilience(er, order)
upa_res = module2.compute_resilience(upa, order)
xs = range(N + 1)
plt.plot(xs, network_res, '-r', label='Network graph')
plt.plot(xs, er_res, '-b', label='ER-generated (p = 0.00171)')
plt.plot(xs, upa_res, '-g', label='UPA-generated (m = 2)')
plt.title('Graph resilience (%s)' % order_label)
plt.xlabel('Number of nodes removed')
plt.ylabel('Size of the largest connected component')
plt.legend(loc='upper right')
plt.tight_layout()
plt.savefig(filename)
print('Saved plot to %s' % filename)
def question1(network, er, upa, order_func, order_label, filename):
N = len(network)
order = order_func(network)
network_res = module2.compute_resilience(network, order)
er_res = module2.compute_resilience(er, order)
upa_res = module2.compute_resilience(upa, order)
xs = range(N + 1)
plt.plot(xs, network_res, '-r', label='Network graph')
plt.plot(xs, er_res, '-b', label='ER-generated (p = 0.00171)')
plt.plot(xs, upa_res, '-g', label='UPA-generated (m = 2)')
plt.title('Graph resilience (%s)' % order_label)
plt.xlabel('Number of nodes removed')
plt.ylabel('Size of the largest connected component')
plt.legend(loc='upper right')
plt.tight_layout()
plt.savefig(filename)
print('Saved plot to %s' % filename)
def legend_example():
"""
Plot an example with two curves with legends
"""
ERGraph = uERAlgo(1239,0.004)
UPAGraph = UPAalgo(1239,3)
computer_nw = alg_application2_provided.load_graph(alg_application2_provided.NETWORK_URL)
print countedges(ERGraph)
print countedges(UPAGraph)
print countedges(computer_nw)
#deg_dict = compute_degrees(computer_nw)
#total_deg = (sum(x for x in deg_dict.values()))/1239
#print total_deg
xvals = range(0,1240)
yvals1 = module2.compute_resilience(ERGraph,random_order(ERGraph))
yvals2 = module2.compute_resilience(UPAGraph,random_order(UPAGraph))
yvals3 = module2.compute_resilience(computer_nw,random_order(computer_nw))
#yvals1 = module2.compute_resilience(ERGraph,alg_application2_provided.targeted_order(ERGraph))
#yvals2 = module2.compute_resilience(UPAGraph,alg_application2_provided.targeted_order(UPAGraph))
#yvals3 = module2.compute_resilience(computer_nw,alg_application2_provided.targeted_order(computer_nw))
#yvals1 = module2.compute_resilience(ERGraph,fast_targeted_order(ERGraph))
#yvals2 = module2.compute_resilience(UPAGraph,fast_targeted_order(UPAGraph))
#yvals3 = module2.compute_resilience(computer_nw,fast_targeted_order(computer_nw))
print len(yvals1)
print len(yvals2)
print len(yvals3)
plt.xlabel("Number of Nodes Removed")
plt.ylabel("Size of Largest Connected Component")
plt.title("Size of Largest Connected Component vs Nodes Removed")
plt.plot(xvals, yvals1, '-g', label='ERGraph n = 1239,p = 0.004')
plt.plot(xvals, yvals2, '-r', label='UPAGraph n = 1239, m = 3')
plt.plot(xvals, yvals3, '-b', label='computer network')
plt.legend(loc='upper right')
plt.show()
