def examples():
network_file_name = "rts.net"
# read in the list of components and their probability of failure
components = read(open(network_file_name))
N1 = list(uniqueCombinations(components.keys(), 1))
N2 = list(uniqueCombinations(components.keys(), 2))
def comb(n, k):
return factorial(n) / (factorial(n - k) * factorial(k))
print "length of components", len(components)
print "length of N-1", len(N1)
print
print "length of N-2", len(N2)
assert (len(N1) == len(components))
assert (len(N2) == comb(len(components), 2))
def examples():
network_file_name = "rts.net"
# read in the list of components and their probability of failure
components = read(open(network_file_name))
N1 = list(uniqueCombinations(components.keys(), 1))
N2 = list(uniqueCombinations(components.keys(), 2))
def comb(n, k):
return factorial(n) / (factorial(n - k) * factorial(k))
print "length of components", len(components)
print "length of N-1", len(N1)
print
print "length of N-2", len(N2)
assert(len(N1) == len(components))
assert(len(N2) == comb(len(components), 2))
def solveN1(network_file_name="rts.net"):
print
print("# processing N-1")
network_file_name = "rts.net"
# read in the list of components and their probability of failure
components = read(open(network_file_name))
# prepare the simulator
simulate = make_sample_simulator()
# grab the samples
n_samples = list(uniqueCombinations(components.keys(), 1))
# simulate each sample
results = map(simulate, n_samples)
for result, fails in zip(results, n_samples):
infoline = [1] + list(result) + [len(fails)] + list(fails)
csv_print(infoline)
def solveN1(network_file_name="rts.net"):
print
print("# processing N-1")
network_file_name = "rts.net"
# read in the list of components and their probability of failure
components = read(open(network_file_name))
# prepare the simulator
simulate = make_sample_simulator()
# grab the samples
n_samples = list(uniqueCombinations(components.keys(), 1))
# simulate each sample
results = map(simulate, n_samples)
for result, fails in zip(results, n_samples):
infoline = [1] + list(result) + [len(fails)] + list(fails)
csv_print(infoline)
def n_minus_x_generator(x, net_file):
for kill_list in uniqueCombinations(sampler.read(net_file).keys(), x):
yield 1, Scenario("n-x", 1.0, [1 for _ in range(windlevel.num_wind)],
kill_list)