def first_population(sensors, mi, d):
population = []
done = False
for i in range(mi):
genes = []
gene_part = ''
for _ in range(sensors):
while True:
gene_part = ''
for _ in range((math.ceil(math.log2(dekoder.n())) +
math.ceil(math.log2(dekoder.m())) + 2)):
rand = random.randint(0, 1)
gene_part += str(rand)
if not done:
tp = afunction.j_for_one(
dekoder.decode(gene_part)[0][0],
dekoder.decode(gene_part)[1][0], d)
else:
tp = [0, 0]
if not tp[1]:
break
genes.append(gene_part)
new_gene = ''
while genes:
new_gene += genes.pop()
s = SJ(d)
power = s.simple_J(new_gene)
print(i + 1, "/", mi, " genotypes created (power: ", power, ")")
if power >= 0.9:
done = True
population.append(new_gene)
print("first population created")
return population
def J_return_forbidden(x, y, alpha, dep):
table = readFile.getArray()
no_0 = seen_counter_for_0(table)
n = dekoder.n() # szerokosc x
m = dekoder.m() # szerokosc y
is_forbidden = False
for k in range(len(x)):
# print(alpha[k])
# print(m)
table = angel_change(alpha[k], table)
temp_x = x[k]
x[k] = change_x(alpha[k], x[k], y[k], n, m)
y[k] = change_y(alpha[k], temp_x, y[k], n, m)
# print(x[k])
# print(y[k])
temp = j_for_one(x[k], y[k], dep, table)
table = temp[0]
if temp[1]:
is_forbidden = True
table = angel_change_back(alpha[k], table)
# print_matrix(table)
if is_forbidden:
return None
else:
return round((seen_counter(table) / no_0), 4)