def main():
numbers = read_numbers()
three = numbers[3][0]
place = [[0, 0, 0, 0, 0],
[0, 0, 0, 0, 0],
[0, 0, 0, 0, 0],
[0, 0, 1, 0, 0],
[0, 0, 0, 0, 0]]
for i in three:
print(i)
print()
BUBBLE_SIZE = 7
q = hello(three, place)
print("SIZE: ", len(q), len(q[0]))
for i in q:
print(i)
bubbled_place = make_bubble(place, BUBBLE_SIZE)
out_matrix(bubbled_place)
out_matrix(zip_bubbled_data(bubbled_place, BUBBLE_SIZE))
# важно чтобы id клеток разных регионов не пересекались!!!
r = Region(len(merge_input([make_bubble(place, BUBBLE_SIZE), hello(three, place)])), 5, 0)
for step in range(200):
s = 0
x = -1
y = -1
for i, I in enumerate(place):
for j, J in enumerate(I):
if place[i][j] == 1:
x, y = i, j
break
print("-----" * 10)
for i in place:
print(i)
print("-----" * 10)
for i, I in enumerate(place):
for j, J in enumerate(I):
place[i][j] = 0
if (x == -1 and y == -1) or step < 10:
while 1:
x = randrange(len(place))
y = randrange(len(place))
place[x][y] = 1
if get_sum(hello(three, place)):
break
place[x][y] = 0
else:
place[x][y] = 1
r.step_forward(merge_input([make_bubble(place, BUBBLE_SIZE), hello(three, place)]))
r.out_prediction()
new_place = zip_bubbled_data(do_cut(r.get_binary_prediction(), len(make_bubble(place, BUBBLE_SIZE))),
BUBBLE_SIZE)
place = new_place
env.configure(tasks_dir=os.path.abspath("data/sample/imported/"), monitor_scale=10, map_shape=(10, 10))
env.monitor.start("data/sample/results/basic_dqn", force=True, seed=0)
size = 10
temporal_settings = TemporalSettings(
region_size=size,
column_size=1,
initial_permanence=0.5,
dendrite_activate_threshold=1,
dendrite_permanence_inc_delta=0.02,
dendrite_permanence_dec_delta=-0.1,
passive_time_to_active_threshold=1000,
synapse_threshold=0.45,
)
temporal_pooler_region = TemporalPoolerRegion(temporal_settings=temporal_settings)
agent = RandomAgent(env.action_space.n)
def transform_reward_to_weight_inc(reward_):
if reward_ == -1:
return -0.05
if reward_ == -0.1:
return -0.01
if reward_ == 0:
return 0.008
if reward_ == 1:
return 0.4 # 0.02
if reward_ == 10:
return 0.9 # 0.03
raise ValueError
class Foo:
class Chain:
def __init__(self, a, id_):
self.a = a
self.id = id_
class DendritesNode:
def __init__(self, id_, dendrites):
self.id = id_
self.dendrites = dendrites
@staticmethod
def make_string(t):
res = ""
for i in range(0, 1000):
if t & (2 ** i):
res = res + ' ' + str(i)
return res
@staticmethod
def make_string_(a):
res = ""
for i in a:
res += str(i) + "\n"
return res
def dfs_chain(self, t, chain):
if t.id in self.graph_used_vertex:
return
self.graph_used_vertex.add(t.id)
chain.append(t)
edges_to_go = []
for i in self.graph_edges:
x, y = i
if x.id == t.id:
edges_to_go.append(i)
if len(edges_to_go) == 1:
_, to = edges_to_go[0]
cnt = 0
for i in self.graph_edges:
x, y = i
if y.id == to.id:
cnt += 1
if cnt == 1:
self.dfs_chain(to, chain)
# поиск в глубину
def dfs(self, state, cnt=0):
size = self.tp_level_one.temporal_settings.region_size
t = 0
for i in state:
t |= 2 ** i.id
if t == 0:
return
if t in self.used:
return
self.used[t] = True
active_cells = set()
for current in state:
active_cells.add(current.id_to)
ans = []
for den in self.dendrites:
q = 0
for j in den.synapses:
if j.id_to in active_cells and j.permanence > self.tp_level_one.temporal_settings.synapse_threshold:
q += 1
if q >= self.tp_level_one.temporal_settings.dendrite_activate_threshold:
ans.append(den)
to = 0
for i in ans:
to |= 2 ** i.id
a = [[0 for _ in range(size)] for _ in range(size)]
for i in state:
for j in i.synapses:
x, y = self.id_to_Cell[j.id_to].position_x_y
a[x][y] = 1
b = [[0 for _ in range(size)] for _ in range(size)]
for i in state:
b[i.position_x_y[0]][i.position_x_y[1]] = 1
self.edges.append(
[self.make_string(t) + "\n" + self.make_string_(a), self.make_string(to) + "\n" + self.make_string_(b)])
self.graph_edges.append([self.DendritesNode(t, state), self.DendritesNode(to, ans)])
print("**", t, to)
self.dfs(ans, cnt + 1)
def __init__(self, pre_learning_steps, input_generator, region_size):
self.generator = input_generator
tp_level_one_settings = TemporalSettings(region_size=region_size, column_size=2, initial_permanence=0.5,
dendrite_activate_threshold=1, dendrite_permanence_inc_delta=0.02,
dendrite_permanence_dec_delta=-0.1,
passive_time_to_active_threshold=1000,
synapse_threshold=0.45)
self.tp_level_one = Region(tp_level_one_settings)
for i in range(pre_learning_steps):
self.tp_level_one.step_forward(self.generator.get_data())
self.tp_level_one.out_prediction()
self.generator.move()
# замораживаем состояние региона
tp_level_one_settings.dendrite_permanence_dec_delta = tp_level_one_settings.dendrite_permanence_inc_delta = 0.0
tp_level_one_settings.passive_time_to_active_threshold = 10000000000000000000
dendrite_id_cnt = 0
self.id_to_dendrite_map = {}
self.id_to_Cell = {}
self.dendrites = []
for i, I in enumerate(self.tp_level_one.columns):
for j, J in enumerate(I):
for cell, Cell in enumerate(self.tp_level_one.columns[i][j].cells):
self.id_to_Cell[Cell.id] = Cell
Cell.position_x_y = [i, j]
for dendrite, Dendrite in enumerate(Cell.dendrites):
self.dendrites.append(Dendrite)
Dendrite.id = dendrite_id_cnt
Dendrite.id_to = Cell.id
dendrite_id_cnt += 1
Dendrite.position_x_y = [i, j]
self.id_to_dendrite_map[Dendrite.id] = Dendrite
self.used = {}
self.edges = []
self.graph_edges = []
for current in self.dendrites:
print("id" + str(current.id) + ":" + str(current.position_x_y))
active_cells = set()
for i in current.synapses:
if i.permanence > tp_level_one_settings.synapse_threshold:
active_cells.add(i.id_to)
if len(active_cells) < tp_level_one_settings.dendrite_activate_threshold:
continue
print("acells:" + str(active_cells))
ans = []
for den in self.dendrites:
q = 0
for j in den.synapses:
if j.id_to in active_cells and j.permanence > tp_level_one_settings.synapse_threshold:
q += 1
if q >= tp_level_one_settings.dendrite_activate_threshold:
ans.append(den)
print("---" * 5)
for t in ans:
print(t.position_x_y)
self.dfs(ans)
if sys.platform == "linux":
draw_graph_pg("refactoring", self.edges)
else:
draw_graph_vis("out.html", self.edges)
self.graph_used_vertex = set()
self.chains = []
chain_cnt = 0
while 1:
edges_with_in_greater_zero = set()
for i in self.graph_edges:
x, y = i
edges_with_in_greater_zero.add(y.id)
t = None
for i in self.graph_edges:
x, y = i
if x.id not in self.graph_used_vertex and x.id not in edges_with_in_greater_zero:
t = x
break
if not t:
break
chain = []
self.dfs_chain(t, chain)
self.chains.append(self.Chain(chain, chain_cnt))
chain_cnt += 1
while 1:
t = None
for i in self.graph_edges:
x, y = i
if x.id not in self.graph_used_vertex and y.id not in self.graph_used_vertex:
t = x
break
if not t:
break
chain = []
self.dfs_chain(t, chain)
self.chains.append(self.Chain(chain, chain_cnt))
chain_cnt += 1
for i in self.chains:
s = ""
for j in i.a:
s += "[" + self.make_string(j.id) + "]"
print("chain" + str(s))
print("----" * 9)
self.tp_level_one.temporal_settings.dendrite_permanence_dec_delta = 0
self.tp_level_one.temporal_settings.dendrite_permanence_inc_delta = 0
self.tp_level_one.temporal_settings.initial_permanence = 0
self.column_dendrite_dependencies = {}
for i, I in enumerate(self.tp_level_one.columns):
for j, J in enumerate(I):
for cell, Cell in enumerate(self.tp_level_one.columns[i][j].cells):
for dendrite_left, DendriteLeft in enumerate(Cell.dendrites):
if DendriteLeft.id not in self.column_dendrite_dependencies.keys():
self.column_dendrite_dependencies[DendriteLeft.id] = set()
for cellRight, CellRight in enumerate(self.tp_level_one.columns[i][j].cells):
for dendrite_right, DendriteRight in enumerate(CellRight.dendrites):
if DendriteLeft.id != DendriteRight.id:
self.column_dendrite_dependencies[DendriteLeft.id].add(DendriteRight.id)
self.my_states = {}
# пока задается жестко, предполагается, что данная велечина, потом будет приходить как параметр
self.output_size = 15
def move(self):
self.tp_level_one.step_forward(self.generator.get_data())
self.generator.move()
cur = 0
for i in self.dendrites:
if i.active:
cur |= 2 ** i.id
# print(2 ** i.id)
# создаем битовый вектор в котором хранится информация о том, какие дендриты не могут быть в данной комбинации
reverse_bit_vector = 0
for i in self.dendrites:
if i.active:
# print(self.column_dendrite_dependencies.keys())
# print(i.id)
for j, J in enumerate(self.column_dendrite_dependencies[i.id]):
reverse_bit_vector |= 2 ** J
f = False
if cur & reverse_bit_vector:
raise KeyError("Конфликт текущего дендрита и активируемого", cur, reverse_bit_vector,
cur & reverse_bit_vector, self.column_dendrite_dependencies[cur & reverse_bit_vector])
for i in self.chains:
for j in i.a:
state_id = j.id
state_id |= reverse_bit_vector
state_id ^= reverse_bit_vector
if state_id == cur:
my_state = i.id
if my_state not in self.my_states:
self.my_states[my_state] = len(self.my_states)
# проверяем умещается ли у нас выход для второго слоя
assert (len(self.my_states) < self.output_size ** 2)
print("found:", cur)
f = True
return encode(self.my_states[my_state], self.output_size)
if not f:
# print()
print("not found", cur)
def __init__(self, pre_learning_steps, input_generator, region_size):
self.generator = input_generator
tp_level_one_settings = TemporalSettings(region_size=region_size, column_size=2, initial_permanence=0.5,
dendrite_activate_threshold=1, dendrite_permanence_inc_delta=0.02,
dendrite_permanence_dec_delta=-0.1,
passive_time_to_active_threshold=1000,
synapse_threshold=0.45)
self.tp_level_one = Region(tp_level_one_settings)
for i in range(pre_learning_steps):
self.tp_level_one.step_forward(self.generator.get_data())
self.tp_level_one.out_prediction()
self.generator.move()
# замораживаем состояние региона
tp_level_one_settings.dendrite_permanence_dec_delta = tp_level_one_settings.dendrite_permanence_inc_delta = 0.0
tp_level_one_settings.passive_time_to_active_threshold = 10000000000000000000
dendrite_id_cnt = 0
self.id_to_dendrite_map = {}
self.id_to_Cell = {}
self.dendrites = []
for i, I in enumerate(self.tp_level_one.columns):
for j, J in enumerate(I):
for cell, Cell in enumerate(self.tp_level_one.columns[i][j].cells):
self.id_to_Cell[Cell.id] = Cell
Cell.position_x_y = [i, j]
for dendrite, Dendrite in enumerate(Cell.dendrites):
self.dendrites.append(Dendrite)
Dendrite.id = dendrite_id_cnt
Dendrite.id_to = Cell.id
dendrite_id_cnt += 1
Dendrite.position_x_y = [i, j]
self.id_to_dendrite_map[Dendrite.id] = Dendrite
self.used = {}
self.edges = []
self.graph_edges = []
for current in self.dendrites:
print("id" + str(current.id) + ":" + str(current.position_x_y))
active_cells = set()
for i in current.synapses:
if i.permanence > tp_level_one_settings.synapse_threshold:
active_cells.add(i.id_to)
if len(active_cells) < tp_level_one_settings.dendrite_activate_threshold:
continue
print("acells:" + str(active_cells))
ans = []
for den in self.dendrites:
q = 0
for j in den.synapses:
if j.id_to in active_cells and j.permanence > tp_level_one_settings.synapse_threshold:
q += 1
if q >= tp_level_one_settings.dendrite_activate_threshold:
ans.append(den)
print("---" * 5)
for t in ans:
print(t.position_x_y)
self.dfs(ans)
if sys.platform == "linux":
draw_graph_pg("refactoring", self.edges)
else:
draw_graph_vis("out.html", self.edges)
self.graph_used_vertex = set()
self.chains = []
chain_cnt = 0
while 1:
edges_with_in_greater_zero = set()
for i in self.graph_edges:
x, y = i
edges_with_in_greater_zero.add(y.id)
t = None
for i in self.graph_edges:
x, y = i
if x.id not in self.graph_used_vertex and x.id not in edges_with_in_greater_zero:
t = x
break
if not t:
break
chain = []
self.dfs_chain(t, chain)
self.chains.append(self.Chain(chain, chain_cnt))
chain_cnt += 1
while 1:
t = None
for i in self.graph_edges:
x, y = i
if x.id not in self.graph_used_vertex and y.id not in self.graph_used_vertex:
t = x
break
if not t:
break
chain = []
self.dfs_chain(t, chain)
self.chains.append(self.Chain(chain, chain_cnt))
chain_cnt += 1
for i in self.chains:
s = ""
for j in i.a:
s += "[" + self.make_string(j.id) + "]"
print("chain" + str(s))
print("----" * 9)
self.tp_level_one.temporal_settings.dendrite_permanence_dec_delta = 0
self.tp_level_one.temporal_settings.dendrite_permanence_inc_delta = 0
self.tp_level_one.temporal_settings.initial_permanence = 0
self.column_dendrite_dependencies = {}
for i, I in enumerate(self.tp_level_one.columns):
for j, J in enumerate(I):
for cell, Cell in enumerate(self.tp_level_one.columns[i][j].cells):
for dendrite_left, DendriteLeft in enumerate(Cell.dendrites):
if DendriteLeft.id not in self.column_dendrite_dependencies.keys():
self.column_dendrite_dependencies[DendriteLeft.id] = set()
for cellRight, CellRight in enumerate(self.tp_level_one.columns[i][j].cells):
for dendrite_right, DendriteRight in enumerate(CellRight.dendrites):
if DendriteLeft.id != DendriteRight.id:
self.column_dendrite_dependencies[DendriteLeft.id].add(DendriteRight.id)
self.my_states = {}
# пока задается жестко, предполагается, что данная велечина, потом будет приходить как параметр
self.output_size = 15
from gens.input_generators import Cross
from gens.make_bubble import MakeBubble
from temporalPooler.htm__region import Region as TemporalPoolerRegion
from apps.settings import *
size = 12
temporal_settings = TemporalSettings(region_size=size, column_size=4, initial_permanence=0.5,
dendrite_activate_threshold=8, dendrite_permanence_inc_delta=0.02,
dendrite_permanence_dec_delta=-0.1, passive_time_to_active_threshold=1000,
synapse_threshold=0.45)
generator = MakeBubble(Cross, size // 4, 4)
temporal_pooler_region = TemporalPoolerRegion(temporal_settings=temporal_settings)
for i in range(700):
generator.out()
temporal_pooler_region.step_forward(generator.get_data())
temporal_pooler_region.out_prediction()
generator.move()
from temporalPooler.htm__region import Region
from apps.settings import temporal_settings
from apps.settings import input_settings
from gens.input_generators import MakeBubble
generator = MakeBubble(input_settings.GENERATOR, temporal_settings.REGION_SIZE_N,
input_settings.SCALE)
r = Region(temporal_settings.REGION_SIZE_N * input_settings.SCALE, temporal_settings.COLUMN_SIZE)
print("""
**** ЛЕГЕНДА *****
P1 - Клетка с номером 1, данной колонки находится в состоянии предсказания
A3 - Клетка с номером 3, данной колонки активировалась
O3 - Клетка с номером 3, данной колонки активировалась из-за простоя (PassiveTime > PASSIVE_TIME_TO_ACTIVE_THRESHOLD)
""")
for i in range(input_settings.STEPS_NUMBER):
print('---------------------')
# generator.out()
r.step_forward(generator.get_data())
r.out_prediction()
generator.move()
from spatialPooler.sp_region import Region as SpatialPoolerRegion
from apps.settings import *
input_settings = InputSettings(SCALE=1, STEPS_NUMBER=300)
generator = ListImages(12)
spatial_settings = SpatialSettings(debug = False, min_overlap = 1, desired_local_activity = 2, connected_pct = 1,
connected_perm = 0.1, xinput = generator.square_size, yinput = generator.square_size,
potential_radius = 4, xdimension = 12, ydimension = 12, initial_inhibition_radius = 2,
permanence_inc = 0.02, permanence_dec = 0.1, max_boost = 2, min_duty_cycle_fraction = 0.2)
temporal_settings = TemporalSettings(region_size=spatial_settings.xdimension, column_size=4, initial_permanence=0.5,
dendrite_activate_threshold=1, dendrite_permanence_inc_delta=0.02,
dendrite_permanence_dec_delta=-0.1, passive_time_to_active_threshold=1000,
synapse_threshold=0.45)
spatial_pooler_region = SpatialPoolerRegion(spatial_settings=spatial_settings, mapper=SquareMapperAutoRadius())
temporal_pooler_region = TemporalPoolerRegion(temporal_settings=temporal_settings)
for i in range(input_settings.STEPS_NUMBER):
generator.out()
outdata=spatial_pooler_region.step_forward(generator.get_data())
print_matrix(to_binmatrix(outdata))
temporal_pooler_region.step_forward(outdata)
temporal_pooler_region.out_prediction()
cols=temporal_pooler_region.columns
imagined_input = spatial_pooler_region.out_prediction(cols, temporal_settings.region_size)
generator.move()