def remove_not_needed_nodes(basis, current_weights, reply, target, capacity,
verbose):
if verbose:
print('Start removing not-needed nodes...')
init_score = u.calculate_score(basis, current_weights)
if init_score == 0:
return basis
if verbose:
print('Initial score = ', init_score)
if len(basis) == 0:
return basis
current_basis = basis.copy()
flag_removed = 1
while flag_removed:
flag_removed = 0
for b in current_basis:
new_basis = current_basis.copy()
new_basis.remove(b)
confl = check_if_basis_has_no_conflicts(new_basis, reply, target,
capacity)
if confl == 0:
score = u.calculate_score(new_basis, current_weights)
if score <= init_score:
current_basis = copy.copy(new_basis)
init_score = score
if verbose:
print(
'Remove node {} from basis. New score: {}'.format(
b, score))
flag_removed = 1
break
return current_basis
def solveSmall(G, s, t):
# Remove node and delete 15 edges
# location 0 corresponds to best to remove at first iteration
bestEdgeToRemove = []
newGraph = G.copy()
bestC, bestK = smallHelper(newGraph, s, t, 15, [])
maxScore = calculate_score(G, bestC, bestK)
# print(maxScore)
for i in range(1, 16):
newGraph = G.copy()
k = []
for j in range(len(bestEdgeToRemove)):
e = bestEdgeToRemove[j]
newGraph.remove_edge(e[0], e[1])
k.append((e[0], e[1]))
e = EdgeToRemove(newGraph, s, t)
if e is None:
break
bestEdgeToRemove.append(e)
k.append((e[0], e[1]))
c, k = smallHelper(newGraph, s, t, 15 - i, k)
score = calculate_score(G, c, k)
if score > maxScore:
bestC, bestK = c, k
return bestC, bestK
def minimize_patch_weights_v1(scheme, etalon, weights, final_patch):
current_basis = final_patch.__inputs__.copy()
best_score = u.calculate_score(current_basis, weights)
# Получить конус от базиса к входам
inp_cone = scheme.subscheme_by_outputs(current_basis)
# Step 1: Go to F circuit inputs
current_patch = copy.deepcopy(final_patch)
while 1:
# Try to check all possible variations
local_basis = current_patch.__inputs__.copy()
best_lscr = u.calculate_score(local_basis, weights)
best_signature = -1
if len(local_basis) < 18:
for sig in range(0, 2**len(local_basis)):
lscore, lbasis = get_basis_score_for_given_signature(
inp_cone, local_basis, sig, weights)
if lscore < best_lscr:
# print(lscore, len(lbasis))
best_lscr = lscore
best_signature = sig
else:
print('Random replaces...')
# too big basis try random replaces
for i in range(2**12):
sig = random.randint(0, 2**len(local_basis))
lscore, lbasis = get_basis_score_for_given_signature(
inp_cone, local_basis, sig, weights)
if lscore < best_lscr:
# print(lscore, len(lbasis))
best_lscr = lscore
best_signature = sig
# We found something. Need to copy additional elements to current_patch
if best_signature != -1:
current_patch = add_elements_to_patch(inp_cone, current_patch,
best_signature)
print('New patch score: {}'.format(best_lscr))
else:
break
if 0:
# Step 2. Check if some basis nodes are inputs for some element in inp_cone.
bs = set(current_patch.__inputs__)
print(bs)
for el in inp_cone.__elements__:
inp_nodes = set(inp_cone.__elements__[el][1])
# print(inp_nodes)
if inp_nodes.issubset(bs):
print('Found subset: {}'.format(inp_nodes))
current_patch = rename_patch_internal_nodes(current_patch)
return current_patch
def eval(self, mode):
self.model.eval()
if mode == 'dev':
data_eval = self.dev_data
else:
data_eval = self.test_data
total_loss = 0.0
true_labels = []
pred_labels = []
with torch.no_grad():
for sentence, tags in data_eval:
sentence_in = prepare_sequence(sentence).to(self.device)
targets = torch.tensor(tags, dtype=torch.long).to(self.device)
loss = self.model.neg_log_likelihood(sentence_in, targets)
_, pred = self.model(sentence_in)
total_loss += loss.item()
true_labels.extend(tags)
pred_labels.extend(pred)
precision, recall, F1_score = calculate_score(
true_labels, pred_labels, len(self.dataset.label2id))
return total_loss / len(data_eval), precision, recall, F1_score
def read_output_file(G, path):
"""
Parses and validates an output file
Args:
G: input graph corresponding to input file
path: str, path to output file
Returns:
score: the difference between the new and original shortest path
"""
H = G.copy()
if len(H) >= 20 and len(H) <= 30:
max_cities = 2
max_roads = 15
elif len(H) > 30 and len(H) <= 50:
max_cities = 3
max_roads = 30
elif len(H) > 50 and len(H) <= 100:
max_cities = 5
max_roads = 100
else:
print('Input Graph is not of a valid size')
assert H.has_node(0), 'Source vertex is missing in input graph'
assert H.has_node(len(G) - 1), 'Target vertex is missing in input graph'
cities = []
removed_edges = []
with open(path, "r") as fo:
number_of_cities = fo.readline().strip()
assert number_of_cities.isdigit(), 'Number of cities is not a digit'
number_of_cities = int(number_of_cities)
assert number_of_cities <= max_cities, 'Too many cities being removed from input graph'
for _ in range(number_of_cities):
city = fo.readline().strip()
assert city.isdigit(), 'Specified vertex is not a digit'
city = int(city)
assert H.has_node(city), 'Specified vertex is not in input graph'
cities.append(city)
number_of_roads = fo.readline().strip()
assert number_of_roads.isdigit(), 'Number of roads is not a digit'
number_of_roads = int(number_of_roads)
for _ in range(number_of_roads):
road = fo.readline().split()
assert len(
road
) == 2, 'An edge must be specified with a start and end vertex'
assert road[0].isdigit() and road[1].isdigit()
u = int(road[0])
v = int(road[1])
assert H.has_edge(u, v), 'Specified edge is not in input graph'
removed_edges.append((u, v))
return utils.calculate_score(G, cities, removed_edges)
def find_scores(self, position):
pos_x, pos_y = position
positions = np.clip(
np.array([(pos_x, pos_y), (pos_x - 1, pos_y), (pos_x + 1, pos_y),
(pos_x, pos_y - 1), (pos_x, pos_y + 1)]), 0, 10)
scores = np.zeros((positions.shape[0], 1))
for i, board_index in enumerate(positions):
scores[i] = utils.calculate_score(board_index)
total_neighbour_score = 0
"""
already_encountered_start_pos = False
for neighbor in utils.get_neighbour_indices(board_index):
# Reaching end of the board
if neighbor[0] == board_index[0] and neighbor[
1] == board_index[1]:
if already_encountered_start_pos:
neighbor_score = -1000 * 0.1
else:
already_encountered_start_pos = True
neighbor_score = utils.calculate_score(neighbor)
# Free to roam
else:
neighbor_score = utils.calculate_score(neighbor)
total_neighbour_score += neighbor_score * 0.01
"""
scores[i] += total_neighbour_score
# print(scores)
return scores, positions
def create(cls, video_key, video_createtime, score, conn=None, *args, **kwargs):
conn = cls.get_connection()
now = datetime.now()
_delta = now - datetime.utcfromtimestamp(video_createtime)
hour = int(_delta.total_seconds() / 60)
real_score = calculate_score(score, hour, 2)
conn.zadd(cls.table_name, real_score, video_key)
def train_epoch(self):
self.model.train()
train_loss = 0.0
true_labels = []
pred_labels = []
for sentence, tags in self.train_data:
self.optimizer.zero_grad()
sentence_in = prepare_sequence(sentence).to(self.device)
targets = torch.tensor(tags, dtype=torch.long,
device=self.device).to(self.device)
loss = self.model.neg_log_likelihood(sentence_in, targets)
loss.backward()
nn.utils.clip_grad_norm_(self.model.parameters(), 1)
self.optimizer.step()
_, pred = self.model(sentence_in)
train_loss += loss.item()
true_labels.extend(tags)
pred_labels.extend(pred)
precision, recall, F1_score = calculate_score(
true_labels, pred_labels, len(self.dataset.label2id))
# precision, recall, F1_score = calculate_score(torch.tensor(true_labels), torch.tensor(pred_labels), len(self.dataset.label2id))
return train_loss / len(self.train_data), precision, recall, F1_score
def endpoint_logic():
"""Validate API request, submit the data to logic API, and return probability of survival.
Request:
{
"request_id": "16fd2706-8baf-433b-82eb-8c7fada847da",
"logic_id": "MD_00001",
"data": [
{
"passenger_id": "A00001",
"sex": "male",
"sib_sp": 0,
"parch": 0,
"fare": 15.0,
"embarked": "S",
"p_class": "2"
},{
"passenger_id": "A00002",
"sex": "female",
"sib_sp": 2,
"parch": 1,
"fare": 30.0,
"embarked": "S",
"p_class": "1"
}
]
}
Response:
{
"request_id": "16fd2706-8baf-433b-82eb-8c7fada847da",
"logic_id": "MD_00001",
"prediction": [
{
"passenger_id": "A00001",
"score": 0.9132
},{
"passenger_id": "A00002",
"score": 0.1251
}
],
"timestamp": "2010-04-20T20:08:21.634121"
}
"""
api_request = request.json
if not is_request_valid(api_request):
response = Response({}, status=400, mimetype="application/json")
return response
calculate_score_response = calculate_score(
path=logic_config[api_request["logic_id"]]["endpoint"],
data=request.json)
response = Response(json.dumps(calculate_score_response),
status=200,
mimetype="application/json")
return response
def get_score(self, pos, time):
"""
>>> w = CircularWorld('../test/')
>>> w.get_score(np.array([2.1,2.9]), 0)
0.0
"""
return utils.calculate_score(pos, self.centers[time],
self.center_radius, self.pos_limits)
def test_calculate_score(self):
world = parse('input_files/example.in')
print(world)
# sample solution
world['rows'] = [[UNAVAILABLE, 0, 0, 0, 3], [1, 1, 1, 2, 2]]
world['pools'] = [[0, 2], [1, 3]]
self.assertEqual(calculate_score(world, None), 5,
'ha fallado el test!')
def get_best_patch_by_weights(patches_list, weights):
if len(patches_list) == 0:
return []
scores_list = []
for p in patches_list:
score = u.calculate_score(p.__inputs__, weights)
scores_list.append(score)
indexes = sorted(range(len(scores_list)), key=lambda k: scores_list[k])
current_best = patches_list[indexes[0]]
return current_best
def minimize_patch_weights_v2(scheme, etalon, weights, final_patch):
current_basis = final_patch.__inputs__.copy()
# Получить конус от базиса к входам
inp_cone = scheme.subscheme_by_outputs(current_basis)
current_patch = merge_circuits(scheme, inp_cone, final_patch)
score = u.calculate_score(current_patch.__inputs__, weights)
print('Input cone basis length: {} Weight: {}'.format(
len(current_patch.__inputs__), score))
current_patch = rename_patch_internal_nodes(current_patch)
return current_patch
def get_runs():
rows = []
conn = engine_runs.connect()
# TODO prices/actions in separate route
for row in conn.execute('select id, hypers, advantage_avg, advantages, uniques from runs where advantage_avg > 0').fetchall():
row = dict(row.items())
row['advantage_avg'] = utils.calculate_score(row['advantages'])
rows.append(row)
conn.close()
print(len(rows), 'rows')
return jsonify(rows)
def single_file(lol):
path = 'inputs/small/small-' + str(lol) + '.in'
# path = 'test.in'
# path = 'inputs/medium/medium-' + str(lol) + '.in'
# path = 'inputs/large/large-' + str(lol) + '.in'
G = read_input_file(path)
print(G.nodes)
# c, k = solve2(G)
c, k = solve2(G)
assert is_valid_solution(G, c, k)
print("Shortest Path Difference: {}".format(calculate_score(G, c, k)))
write_output_file(G, c, k, 'small-test.out')
def get_runs():
rows = []
conn = engine_runs.connect()
# TODO prices/actions in separate route
for row in conn.execute(
'select id, hypers, advantage_avg, advantages, uniques from runs'
).fetchall():
row = dict(row.items())
row['advantage_avg'] = utils.calculate_score(row)
rows.append(row)
conn.close()
print(len(rows), 'rows')
return jsonify(rows)
def evaluate(self):
self.model.eval()
print(len(self.val_dl))
with torch.no_grad():
all_outputs = list()
all_targets = list()
for batch in tqdm(self.val_dl, total=len(self.val_dl),
leave=False):
data, target = batch
data = data.to(self.device)
target = target.to(self.device)
outputs = self.model(data)
loss = self.loss_func(outputs, target)
if type(outputs) == type(()) and len(outputs) > 1:
_output = outputs[0]
for output in outputs:
_output = _output + output
outputs = _output / len(outputs)
target = target.data.cpu()
outputs = outputs.data.cpu()
self.val_loss_avg.update(loss.cpu().item())
all_outputs.append(outputs)
all_targets.append(target)
all_outputs = torch.cat(all_outputs, 0)
all_targets = torch.cat(all_targets, 0)
val_f1, val_acc = calculate_score(self.cfg, all_outputs, all_targets)
self.logger.info('Validation Result:')
self.logger.info('VAL_LOSS: %s, VAL_ACC: %s VAL_F1: %s \n' %
(self.val_loss_avg.avg, val_acc, val_f1))
self.logger.info('-' * 20)
if self.summary_writer:
self.summary_writer.add_scalar('Valid/loss', self.val_loss_avg.avg,
self.train_epoch)
self.summary_writer.add_scalar('Valid/acc', np.mean(val_acc),
self.train_epoch)
self.summary_writer.add_scalar('Valid/f1', np.mean(val_f1),
self.train_epoch)
def loss_fn(hypers):
processed = post_process(hypers)
network = network_spec(processed['custom'])
agent = processed['ppo_agent']
## GPU split
gpu_split = args.gpu_split
if gpu_split != 1:
fraction = .9 / gpu_split if gpu_split > 1 else gpu_split
session_config = tf.ConfigProto(gpu_options=tf.GPUOptions(per_process_gpu_memory_fraction=fraction))
agent['execution'] = {'type': 'single', 'session_config': session_config, 'distributed_spec': None}
pprint(processed)
pprint(network)
env = BitcoinEnv(processed, args)
agent = agents_dict['ppo_agent'](
states=env.states,
actions=env.actions,
network=network,
**agent
)
env.train_and_test(agent)
acc = env.acc.test
adv_avg = utils.calculate_score(acc.ep.returns)
print(hypers, f"\nScore={adv_avg}\n\n")
df = pd.DataFrame([dict(
id=uuid.uuid4(),
hypers=json.dumps(hypers),
returns=list(acc.ep.returns),
uniques=list(acc.ep.uniques),
prices=list(env.data.get_prices(acc.ep.i, 0)),
signals=list(acc.step.signals),
)]).set_index('id')
dtype = {
'hypers': psql.JSONB,
**{k: psql.ARRAY(psql.DOUBLE_PRECISION) for k in ['returns', 'signals', 'prices', 'uniques']},
}
with data.engine_runs.connect() as conn:
df.to_sql('runs', conn, if_exists='append', index_label='id', dtype=dtype)
# TODO restore save_model() from git
agent.close()
env.close()
return -adv_avg # maximize
def process_file(solve, input_file):
print("processing %s" % (input_file, ))
output_file = get_output_file(input_file)
world = parse(input_file=os.path.join('./input_files', input_file))
analyze_world(world)
t0 = time.time()
solution = solve(world)
t1 = time.time()
print("solution took %.1f sec" % (t1 - t0, ))
score = calculate_score(world, solution)
t2 = time.time()
print("calculate score took %.1f sec" % (t2 - t1, ))
print("SCORE: %d" % score)
write(solution, output_file)
return score
def queryArticlesByHot(self, pagesize=32, page=1, user_id=None):
try:
query = self.session.query(Article).all()
now = time.time()
for row in query:
if user_id is not None and self.isFaved(article_id=row.id,
user_id=user_id):
row.faved = True
else:
row.faved = False
delta_hours = int(
(decimal.Decimal(now) - row.timestamp) / 3600)
hot = calculate_score(row.score, delta_hours)
row.hot = hot
query = sorted(query, reverse=True)
for index, row in enumerate(query):
row.rowid = index + 1
row.shortURL = formatURL(row.URL)
totalpage = int(math.ceil(len(query) / float(pagesize)))
nextpagenum = 1
privouspagenum = 1
if totalpage > 1:
if page >= totalpage:
hasnextpage = False
hasprivouspage = True
privouspagenum = totalpage - 1
elif page <= 1:
hasnextpage = True
hasprivouspage = False
nextpagenum = 2
else:
hasnextpage = True
hasprivouspage = True
privouspagenum = page - 1
nextpagenum = page + 1
else:
hasnextpage = False
hasprivouspage = False
query = query[pagesize * (page - 1):pagesize * page]
return query, hasnextpage, nextpagenum, hasprivouspage, privouspagenum
except:
self.session.rollback()
def queryArticlesByHot(self, pagesize = 32, page = 1, user_id = None):
try:
query = self.session.query(Article).all()
now = time.time()
for row in query:
if user_id is not None and self.isFaved(article_id = row.id, user_id = user_id):
row.faved = True
else:
row.faved = False
delta_hours = int((decimal.Decimal(now)-row.timestamp)/3600)
hot = calculate_score(row.score, delta_hours)
row.hot = hot
query = sorted(query, reverse=True)
for index, row in enumerate(query):
row.rowid = index + 1
row.shortURL = formatURL(row.URL)
totalpage = int(math.ceil(len(query)/float(pagesize)))
nextpagenum = 1
privouspagenum = 1
if totalpage > 1:
if page >= totalpage:
hasnextpage = False
hasprivouspage = True
privouspagenum = totalpage - 1
elif page <= 1:
hasnextpage = True
hasprivouspage = False
nextpagenum = 2
else:
hasnextpage = True
hasprivouspage = True
privouspagenum = page - 1
nextpagenum = page + 1
else:
hasnextpage = False
hasprivouspage = False
query = query[pagesize*(page-1):pagesize*page]
return query, hasnextpage, nextpagenum, hasprivouspage, privouspagenum
except:
self.session.rollback()
def minimax(curr_node, player):
score_list = []
score = utils.calculate_score(curr_node.get_board(), player)
if score in [math.inf, -math.inf]:
curr_node.set_score(score)
print(curr_node.get_board())
return score
if curr_node.get_depth() == 2:
print(curr_node.get_board())
curr_node.set_score(score)
return score
moves = utils.get_available_moves(curr_node.get_board())
if moves == []:
print(curr_node.get_board())
curr_node.set_score(score)
return score
for move in moves:
new_board = utils.perform_move(copy.deepcopy(curr_node.get_board()),
move, player)
new_node = node.Node(curr_node, new_board,
curr_node.get_depth() + 1, move)
curr_node.add_lower(new_node)
if player == 1:
move_score = minimax(new_node, 2)
else:
move_score = minimax(new_node, 1)
score_list.append(move_score)
if (player == 1):
score = max(score_list)
curr_node.set_score(score)
else:
score = min(score_list)
curr_node.set_score(score)
return score
def execute(self, actions):
flat, hydrated, network = self.get_hypers(actions)
env = BitcoinEnv(flat, name=self.agent)
agent = agents_dict[self.agent](
states_spec=env.states,
actions_spec=env.actions,
network_spec=network,
**hydrated
)
env.train_and_test(agent, self.cli_args.n_steps, self.cli_args.n_tests, -1)
step_acc, ep_acc = env.acc.step, env.acc.episode
adv_avg = utils.calculate_score(ep_acc.advantages)
print(flat, f"\nAdvantage={adv_avg}\n\n")
sql = """
insert into runs (hypers, advantage_avg, advantages, uniques, prices, actions, agent, flag)
values (:hypers, :advantage_avg, :advantages, :uniques, :prices, :actions, :agent, :flag)
returning id;
"""
row = self.conn_runs.execute(
text(sql),
hypers=json.dumps(flat),
advantage_avg=adv_avg,
advantages=list(ep_acc.advantages),
uniques=list(ep_acc.uniques),
prices=list(env.prices),
actions=list(step_acc.signals),
agent=self.agent,
flag=self.cli_args.net_type
).fetchone()
if ep_acc.advantages[-1] > 0:
_id = str(row[0])
directory = os.path.join(os.getcwd(), "saves", _id)
filestar = os.path.join(directory, _id)
os.mkdir(directory)
agent.save_model(filestar)
agent.close()
env.close()
return adv_avg
def execute(self, actions):
flat, hydrated, network = self.get_hypers(actions)
env = BitcoinEnv(flat, self.cli_args)
agent = agents_dict[self.agent](
states=env.states,
actions=env.actions,
network=network,
**hydrated
)
env.train_and_test(agent, self.cli_args.n_steps, self.cli_args.n_tests, -1)
step_acc, ep_acc = env.acc.step, env.acc.episode
adv_avg = utils.calculate_score(ep_acc.returns)
print(flat, f"\nScore={adv_avg}\n\n")
sql = """
insert into runs (hypers, sharpes, returns, uniques, prices, signals, agent, flag)
values (:hypers, :sharpes, :returns, :uniques, :prices, :signals, :agent, :flag)
returning id;
"""
row = self.conn_runs.execute(
text(sql),
hypers=json.dumps(flat),
sharpes=list(ep_acc.sharpes),
returns=list(ep_acc.returns),
uniques=list(ep_acc.uniques),
prices=list(env.prices),
signals=list(step_acc.signals),
agent=self.agent,
flag=self.cli_args.net_type
).fetchone()
if ep_acc.returns[-1] > 0:
_id = str(row[0])
directory = os.path.join(os.getcwd(), "saves", _id)
filestar = os.path.join(directory, _id)
os.makedirs(directory, exist_ok=True)
agent.save_model(filestar)
agent.close()
env.close()
return adv_avg
def get_score(self, pos, time):
"""
>>> w = RectangularWorld('../test/')
>>> w.get_score(np.array([2.1,2.9]), 0)
0.0
"""
if self.full_noise_file:
return utils.get_score(pos, time, self.noise_location,
self.pos_limits, self.noise_line_width)
else:
if self.edge_goal:
return utils.wall_score(pos, self.centers[time],
self.center_radius, self.pos_limits,
self.shape)
else:
return utils.calculate_score(pos, self.centers[time],
self.center_radius,
self.pos_limits, self.shape)
def solve(G):
"""
Args:
G: networkx.Graph
Returns:
c: list of cities to remove
k: list of edges to remove
"""
random.seed(datetime.now())
iterations = 0
best_c, best_k = [], []
if len(list(G.nodes)) <= 30:
iterations = 500
elif len(list(G.nodes)) <= 50:
iterations = 200
elif len(list(G.nodes)) <= 100:
iterations = 15
first_time, best_score, is_medium_or_large = True, 0.0, False
for i in range(iterations):
m = 0
t = len(list(G.nodes)) - 1
if len(list(G.nodes)) <= 30:
max_k, max_c, m = 15, 1, 100
elif len(list(G.nodes)) <= 50:
max_k, max_c, m = 50, 3, 100
is_medium_or_large = True
elif len(list(G.nodes)) <= 100:
max_k, max_c, m = 100, 5, 500
is_medium_or_large = True
else:
max_k, max_c = 0, 0
c, k, m, max_c, max_k, first_time = helper(G, m, t, max_c, max_k,
first_time,
is_medium_or_large)
first_time = False
if is_valid_solution(G, c, k, t):
curr_score = calculate_score(G, c, k, t)
if curr_score > best_score:
best_score = curr_score
best_c, best_k = c, k
print("END")
return best_c, best_k
def stories(page=1, limit=25, story_type=None, over_filter=0):
now = timezone.now()
stories = Stories.objects.all()
# Only show the last week
enddate = datetime.datetime.now(tz)
startdate = enddate - datetime.timedelta(days=14)
stories = stories.filter(time__range=[startdate, enddate])
if story_type:
if story_type == 'best':
stories = stories.order_by('-score')
elif story_type == 'newest':
stories = stories.order_by('-time')
elif story_type == 'self':
stories = stories.filter(selfpost=True)
elif story_type == 'show':
stories = stories.filter(title__startswith='Show HN')
elif story_type == 'ask':
stories = stories.filter(selfpost=True, title__startswith='Ask HN')
elif story_type == 'poll':
stories = stories.filter(poll=True)
else:
stories = stories.filter(story_type=story_type)
if over_filter > 0:
stories = stories.filter(score__gte=over_filter)
if story_type not in ['newest', 'best']:
# HN Sorting
sorted_stories = []
for story in stories:
time_hours = (now - story.time).total_seconds() / 3600
score = utils.calculate_score(story.score, time_hours)
sorted_stories.append({'story': story, 'score': score})
sorted_stories = sorted(sorted_stories,
key=lambda story: story['score'],
reverse=True)
stories = [story['story'] for story in sorted_stories]
paginator = Paginator(stories, limit)
try:
stories = paginator.page(page)
except (InvalidPage, EmptyPage):
stories = paginator.page(paginator.num_pages)
return stories
def get_basis_score_for_given_signature(cir, basis, sig, weights):
basis_new = []
for i in range(len(basis)):
val = (sig >> i) & 1
if val == 0:
basis_new.append(basis[i])
else:
if basis[i] in cir.__elements__:
flag_ok = 1
for ael in cir.__elements__[basis[i]][1]:
if ael not in weights:
flag_ok = 0
break
if flag_ok:
basis_new += cir.__elements__[basis[i]][1]
else:
basis_new.append(basis[i])
else:
basis_new.append(basis[i])
scr = u.calculate_score(basis_new, weights)
return scr, basis_new
def stories(page=1, limit=25, story_type=None, over_filter=0):
now = timezone.now()
stories = Stories.objects.all()
# Only show the last week
enddate = datetime.datetime.now(tz)
startdate = enddate - datetime.timedelta(days=14)
stories = stories.filter(time__range=[startdate, enddate])
if story_type:
if story_type == 'best':
stories = stories.order_by('-score')
elif story_type == 'newest':
stories = stories.order_by('-time')
elif story_type == 'self':
stories = stories.filter(selfpost=True)
elif story_type == 'show':
stories = stories.filter(title__startswith='Show HN')
elif story_type == 'ask':
stories = stories.filter(selfpost=True, title__startswith='Ask HN')
elif story_type == 'poll':
stories = stories.filter(poll=True)
else:
stories = stories.filter(story_type=story_type)
if over_filter > 0:
stories = stories.filter(score__gte=over_filter)
if story_type not in ['newest', 'best']:
# HN Sorting
sorted_stories = []
for story in stories:
time_hours = (now - story.time).total_seconds() / 3600
score = utils.calculate_score(story.score, time_hours)
sorted_stories.append({'story': story, 'score': score})
sorted_stories = sorted(sorted_stories, key=lambda story: story['score'], reverse=True)
stories = [story['story'] for story in sorted_stories]
paginator = Paginator(stories, limit)
try:
stories = paginator.page(page)
except (InvalidPage, EmptyPage):
stories = paginator.page(paginator.num_pages)
return stories
def remove_c(G, c, V):
ret = []
nodes = list(G.nodes())
nodes.remove(0)
nodes.remove(V - 1)
#ret has node
while len(ret) < c:
temp = -1
curr = -1
for j in nodes:
H = G.copy()
H.remove_node(j)
if nx.is_connected(H):
score = calculate_score(G, [j], [])
if score > curr:
temp = j
curr = score
if len(nodes) == 0 or temp == -1:
return ret
#print(temp)
nodes.remove(temp)
if is_valid_solution(G, ret + [temp], []):
ret.append(temp)
return ret
inputs = glob.glob('inputs/*')
for input_path in inputs: # Iterate through folders in inputs
files = glob.glob(input_path + "/*")
for file_path in files: # Iterates through every file in every folder
print("Begin processing {}".format(file_path))
G = read_input_file(file_path) # Reads in the next graph
size = input_path[7:]
v, e = solve(G, size) # Calculates the list of vertices (v) and edges (e) to remove
output_path = 'outputs/' + file_path[7:][:-3] + '.out'
currBest_distance = read_output_file(G, output_path)
#currBest_distance = -1 # DEBUG
this_distance = calculate_score(G, v, e)
if currBest_distance >= this_distance:
print("Current output is better or equal to this output. No output file written.")
else:
overall_improvements += 1
print("Output distance IMPROVED by: " + str(this_distance - currBest_distance))
print("NEW shortest path is length: " + str(this_distance))
write_output_file(G, v, e, output_path)
print("TOTAL OUTPUTS IMPROVED: " + str(overall_improvements))
# Here's an example of how to run your solver.
# Usage: python3 solver.py test.in
print(G.nodes)
# c, k = solve2(G)
c, k = solve2(G)
assert is_valid_solution(G, c, k)
print("Shortest Path Difference: {}".format(calculate_score(G, c, k)))
write_output_file(G, c, k, 'small-test.out')
if __name__ == '__main__':
# single_file(62)
for i in range(1, 301):
print("INPUT: ", i)
path = 'inputs/medium/medium-' + str(i) + '.in'
G = read_input_file(path)
c, k = solve2(G)
assert is_valid_solution(G, c, k)
print("Shortest Path Difference: {}".format(calculate_score(G, c, k)))
output_path = 'outputs/medium-' + str(i) + '.out'
write_output_file(G, c, k, output_path)
# For testing a folder of inputs to create a folder of outputs, you can use glob (need to import it)
# if __name__ == '__main__':
# inputs = glob.glob('inputs/*')
# for input_path in inputs:
# output_path = 'outputs/' + basename(normpath(input_path))[:-3] + '.out'
# G = read_input_file(input_path)
# c, k = solve(G)
# assert is_valid_solution(G, c, k)
# distance = calculate_score(G, c, k)
# write_output_file(G, c, k, output_path)
def main():
import gp
from sklearn.feature_extraction import DictVectorizer
parser = argparse.ArgumentParser()
parser.add_argument('--guess', type=int, default=-1, help="Run the hard-coded 'guess' values first before exploring")
parser.add_argument('--boost', action="store_true", default=False, help="Use custom gradient-boosting optimization, or bayesian optimization?")
utils.add_common_args(parser)
args = parser.parse_args()
# Encode features
hsearch = HSearchEnv(cli_args=args)
hypers_, hardcoded = hsearch.hypers, hsearch.hardcoded
hypers_ = {k: v for k, v in hypers_.items() if k not in hardcoded}
hsearch.close()
# Build a matrix of features, length = max feature size
max_num_vals = 0
for v in hypers_.values():
l = len(v['vals'])
if l > max_num_vals: max_num_vals = l
empty_obj = {k: None for k in hypers_}
mat = pd.DataFrame([empty_obj.copy() for _ in range(max_num_vals)])
for k, hyper in hypers_.items():
for i, v in enumerate(hyper['vals']):
mat.loc[i,k] = v
mat.ffill(inplace=True)
# Above is Pandas-friendly stuff, now convert to sklearn-friendly & pipe through OneHotEncoder
vectorizer = DictVectorizer()
vectorizer.fit(mat.T.to_dict().values())
feat_names = vectorizer.get_feature_names()
# Map TensorForce actions to GP-compatible `domain`
# instantiate just to get actions (get them from hypers above?)
bounds = []
for k in feat_names:
hyper = hypers_.get(k, False)
if hyper:
bounded, min_, max_ = hyper['type'] == 'bounded', min(hyper['vals']), max(hyper['vals'])
b = [min_, max_] if bounded else [0, 1]
bounds.append(b)
def hypers2vec(obj):
h = dict()
for k, v in obj.items():
if k in hardcoded: continue
if type(v) == bool: h[k] = float(v)
else: h[k] = v or 0.
return vectorizer.transform(h).toarray()[0]
def vec2hypers(vec):
# Reverse the encoding
# https://stackoverflow.com/questions/22548731/how-to-reverse-sklearn-onehotencoder-transform-to-recover-original-data
# https://github.com/scikit-learn/scikit-learn/issues/4414
reversed = vectorizer.inverse_transform([vec])[0]
obj = {}
for k, v in reversed.items():
if '=' not in k:
obj[k] = v
continue
if k in obj: continue # we already handled this x=y logic (below)
# Find the winner (max) option for this key
score, attr, val = v, k.split('=')[0], k.split('=')[1]
for k2, score2 in reversed.items():
if k2.startswith(attr + '=') and score2 > score:
score, val = score2, k2.split('=')[1]
obj[attr] = val
# Bools come in as floats. Also, if the result is False they don't come in at all! So we start iterate
# hypers now instead of nesting this logic in reversed-iteration above
for k, v in hypers_.items():
if v['type'] == 'bool':
obj[k] = bool(round(obj.get(k, 0.)))
return obj
# Specify the "loss" function (which we'll maximize) as a single rl_hsearch instantiate-and-run
def loss_fn(params):
hsearch = HSearchEnv(cli_args=args)
reward = hsearch.execute(vec2hypers(params))
hsearch.close()
return [reward]
guess_i = 0
while True:
# Every iteration, re-fetch from the database & pre-train new model. Acts same as saving/loading a model to disk,
# but this allows to distribute across servers easily
conn_runs = data.engine_runs.connect()
sql = "select hypers, advantages, advantage_avg from runs where flag=:f"
runs = conn_runs.execute(text(sql), f=args.net_type).fetchall()
conn_runs.close()
X, Y = [], []
for run in runs:
X.append(hypers2vec(run.hypers))
Y.append([utils.calculate_score(run.advantages)])
boost_model = print_feature_importances(X, Y, feat_names)
if args.guess != -1:
guess = {k: v['guess'] for k, v in hypers_.items()}
guess.update(utils.guess_overrides[args.guess][guess_i])
loss_fn(hypers2vec(guess))
guess_i += 1
if guess_i > len(utils.guess_overrides[args.guess])-1:
args.guess = -1 # start on GP
continue
if args.boost:
print('Using gradient-boosting')
boost_optimization(
model=boost_model,
loss_fn=loss_fn,
bounds=np.array(bounds),
x_list=X,
y_list=Y
)
else:
# Evidently duplicate values break GP. Many of these are ints, so they're definite duplicates. Either way,
# tack on some small epsilon to make them different (1e-6 < gp.py's min threshold, make sure that #'s not a
# problem). I'm concerned about this since many hypers can go below that epislon (eg learning-rate).
for x in X:
for i, v in enumerate(x):
x[i] += np.random.random() * 1e-6
gp.bayesian_optimisation2(
loss_fn=loss_fn,
bounds=np.array(bounds),
x_list=X,
y_list=Y
)
# if __name__ == '__main__':
# assert len(sys.argv) == 2
# path = sys.argv[1]
# G = read_input_file(path)
# H = G.copy()
# c, k = solve2(H)
# assert is_valid_solution(G, c, k)
# print("Shortest Path Difference: {}".format(calculate_score(G, c, k)))
# write_output_file(G, c, k, 'outputs/test.out')
# -----------------------------
# -----------------------------
# Run for folder tests -- FOLDER TESTER --
# For testing a folder of inputs to create a folder of outputs, you can use glob (need to import it)
if __name__ == '__main__':
inputs = glob.glob('inputs/inputs/small/*')
distances = []
for input_path in inputs:
output_path = 'outputs/small/' + basename(normpath(input_path))[:-3] + '.out'
G = read_input_file(input_path)
H = G.copy()
c, k = solve2(H)
assert is_valid_solution(G, c, k)
distances.append((basename(normpath(input_path))[:-3], calculate_score(G, c, k)))
write_output_file(G, c, k, output_path)
with open('outputs/distances_large.txt', "w") as fo:
for d in distances:
fo.write(d[0] + " " + str(d[1]) + "\n")
# -----------------------------
def search4bases(weights, reply, target_vector_int, cap, mit, verbose):
bases = []
scores = []
if cap == 0:
return [[]]
#if mit == 0:
# backward greedy
#if verbose:
# print('\n\n=====================backward greedy=============================')
#basis = gs.backward_greedy_search(weights, reply.copy(), target_vector_int, cap, verbose)
#basis = gs.remove_not_needed_nodes(basis, weights, reply, target_vector_int, cap, verbose)
#if len(basis) < 19:
# basis, scors = gs.multi_replacer(basis, weights, reply, target_vector_int, cap, 3, verbose)
# scores += scors
# bases += basis
if mit == 0:
if verbose:
print(
'\n\n=====================absolute greedy============================='
)
# forward greedy absolute
basis = gs.greedy_search(weights, reply.copy(), target_vector_int, cap,
'absolute', verbose)
basis = gs.remove_not_needed_nodes(basis, weights, reply,
target_vector_int, cap, verbose)
if len(basis) < 19:
if len(basis) < 15:
basis, scors = gs.multi_replacer(basis, weights, reply,
target_vector_int, cap, 1,
verbose)
else:
scors = [u.calculate_score(basis, weights)]
basis = [basis]
scores += scors
bases += basis
if verbose:
print(
'\n\n=====================weighted greedy============================='
)
# forward greedy weighted
basis = gs.greedy_search(weights, reply.copy(), target_vector_int, cap,
'weighted', verbose)
basis = gs.remove_not_needed_nodes(basis, weights, reply,
target_vector_int, cap, 1)
if len(basis) < 19:
if len(basis) < 15:
basis, scors = gs.multi_replacer(basis, weights, reply,
target_vector_int, cap, 1,
verbose)
else:
scors = [u.calculate_score(basis, weights)]
basis = [basis]
scores += scors
bases += basis
# sorting
while None in bases:
bases.remove(None)
while None in scores:
scores.remove(None)
bases = sorted(bases, key=lambda k: scores[bases.index(k)])
print('Bases list:', bases)
return bases
def ic(F, G, weights, patch_file, out_file, time_limit=1000000):
Bk = '\033[0m' # normal
Rd = '\033[31m' # red
Wh = '\033[37m' # white
Bl = '\033[34m' # blue
start = time.time()
sys.setrecursionlimit(20000)
tgts, scheme = rw.read_verilog(F)
_, etalon = rw.read_verilog(G)
weights = rw.read_weights(weights)
dep_outs, sign_inps = u.tgt_influence(scheme, etalon, tgts)
outs_to_process = [
item for sublist in list(dep_outs.values()) for item in sublist
]
eq_outs = [out for out in scheme.__outputs__ if out not in outs_to_process]
sys.stdout.write(Wh + 'Check the rest of outputs on equivalence... ')
sys.stdout.flush()
if not eq.check_clean_outputs(F, G, eq_outs):
print(Rd + 'ERROR: impossible to create patch')
exit()
print('ok')
print(Bk +
'================================================================')
print(Rd +
' Initial targets split ')
print(Bk +
'================================================================')
print(Bk + str(tgts) + ' ' + str(dep_outs))
independent_targets = get_fully_independent_targets(dep_outs)
print('Independent target groups: {} Targets split: {}'.format(
len(independent_targets), independent_targets))
if len(independent_targets
) == 1 and DONT_CUT_CIRCUIT_FOR_SINGLE_TARGET_BLOCK:
final_patch = get_patch_for_independent_target_list(
tgts, scheme, etalon, weights, time_limit)
else:
all_patches = dict()
for target_part in sorted(independent_targets):
print(
'Run independent patch search for targets: {} and outputs: {}'.
format(target_part, independent_targets[target_part]))
new_scheme, new_etalon = create_subpart_for_outputs_v1(
scheme, etalon, tgts, target_part,
independent_targets[target_part])
# new_scheme, new_etalon, new_weights = create_subpart_for_outputs_v2(scheme, etalon, weights, tgts, target_part, independent_targets[target_part])
# new_scheme.print_verilog_in_file('sch_VCC.v', 'VCC')
independent_patch = get_patch_for_independent_target_list(
list(target_part), new_scheme, new_etalon, weights, time_limit)
all_patches[target_part] = [copy.deepcopy(independent_patch)]
final_patch = u.patch_merger(all_patches)
if final_patch == None:
return 0, 0, 0, time.time() - start
# Минимизация
print(Bk +
'================================================================')
print(Rd +
' Patch minimization ')
print(Bk +
'================================================================')
final_patch = minimize_patch_weights(scheme, etalon, weights, final_patch)
score = u.calculate_score(final_patch.__inputs__, weights)
# write in output directory
final_patch.print_verilog_in_file(patch_file, 'patch')
print('Patch size before elements minimizer:', final_patch.elements())
# minimizing patch
rw.minimize_patch_abc(patch_file)
_, final_patch = rw.read_verilog(patch_file)
print(Rd + 'BASIS: ')
print(Bk + ' Score:', score)
print(' Patch size:', final_patch.elements())
print(' Number of nodes:', len(final_patch.__inputs__))
# генерируем пропатченный файл
rw.generate_out_verilog(F, final_patch.__outputs__, final_patch.__inputs__,
out_file)
# финальная верификация
eq.patch_circuit(out_file, patch_file, G)
print(Rd + 'TIMING: ')
timing = time.time() - start
print(Bk, timing, ' seconds')
# проверяем на эквивалентность
print(Rd + 'EQUIVALENCE: ')
eql = eq.equivalence_check_abc()
if eql == 1:
print(Bk + ' SUCCESS')
else:
print(Bk + ' FAIL')
return eql, score, final_patch.elements(), int(timing)
def guess_number():
secret = xor(int(request.form.get('encrypted')))
guess = int(request.form.get('guess'))
return jsonify(calculate_score(secret, guess))