def original_raven(modifiable_attr, answer_AoT, rule_groups, context):
candidates = [answer_AoT]
answers_imgs = [render_panel(answer_AoT)]
answer_score, _ = solve(rule_groups, context, [answer_AoT])
assert answer_score > 0
"""Create the negative choices for the original RAVEN dataset"""
while len(candidates) < 8:
component_idx, attr_name, min_level, max_level = sample_attr(modifiable_attr)
new_answer = copy.deepcopy(answer_AoT)
new_answer.sample_new(component_idx, attr_name, min_level, max_level, answer_AoT)
new_answer_img = render_panel(new_answer)
ok = True
new_answer_score, _ = solve(rule_groups, context, [new_answer])
if new_answer_score >= answer_score:
print 'Warning - Accidentally generated good answer - resampling'
ok = False
for i in range(0, len(answers_imgs)):
if (new_answer_img == answers_imgs[i]).all():
print 'Warning - New answer equals existing image - resampling'
ok = False
if ok:
candidates.append(new_answer)
answers_imgs.append(new_answer_img)
return candidates, answers_imgs
def fuse(args, all_configs):
random.seed(args.seed)
np.random.seed(args.seed)
acc = 0
for k in trange(args.num_samples * len(all_configs)):
if k < args.num_samples * (1 - args.val - args.test):
set_name = "train"
elif k < args.num_samples * (1 - args.test):
set_name = "val"
else:
set_name = "test"
tree_name = random.choice(all_configs.keys())
root = all_configs[tree_name]
while True:
rule_groups = sample_rules()
new_root = root.prune(rule_groups)
if new_root is not None:
break
start_node = new_root.sample()
row_1_1 = copy.deepcopy(start_node)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_1_2 = rule_num_pos.apply_rule(row_1_1)
row_1_3 = rule_num_pos.apply_rule(row_1_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_1_2 = rule.apply_rule(row_1_1, row_1_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_1_3 = rule.apply_rule(row_1_2, row_1_3)
if l == 0:
to_merge = [row_1_1, row_1_2, row_1_3]
else:
merge_component(to_merge[1], row_1_2, l)
merge_component(to_merge[2], row_1_3, l)
row_1_1, row_1_2, row_1_3 = to_merge
row_2_1 = copy.deepcopy(start_node)
row_2_1.resample(True)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_2_2 = rule_num_pos.apply_rule(row_2_1)
row_2_3 = rule_num_pos.apply_rule(row_2_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_2_2 = rule.apply_rule(row_2_1, row_2_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_2_3 = rule.apply_rule(row_2_2, row_2_3)
if l == 0:
to_merge = [row_2_1, row_2_2, row_2_3]
else:
merge_component(to_merge[1], row_2_2, l)
merge_component(to_merge[2], row_2_3, l)
row_2_1, row_2_2, row_2_3 = to_merge
row_3_1 = copy.deepcopy(start_node)
row_3_1.resample(True)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_3_2 = rule_num_pos.apply_rule(row_3_1)
row_3_3 = rule_num_pos.apply_rule(row_3_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_3_2 = rule.apply_rule(row_3_1, row_3_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_3_3 = rule.apply_rule(row_3_2, row_3_3)
if l == 0:
to_merge = [row_3_1, row_3_2, row_3_3]
else:
merge_component(to_merge[1], row_3_2, l)
merge_component(to_merge[2], row_3_3, l)
row_3_1, row_3_2, row_3_3 = to_merge
imgs = [
render_panel(row_1_1),
render_panel(row_1_2),
render_panel(row_1_3),
render_panel(row_2_1),
render_panel(row_2_2),
render_panel(row_2_3),
render_panel(row_3_1),
render_panel(row_3_2),
np.zeros((IMAGE_SIZE, IMAGE_SIZE), np.uint8)
]
context = [
row_1_1, row_1_2, row_1_3, row_2_1, row_2_2, row_2_3, row_3_1,
row_3_2
]
modifiable_attr = sample_attr_avail(rule_groups, row_3_3)
answer_AoT = copy.deepcopy(row_3_3)
candidates = [answer_AoT]
for j in range(7):
component_idx, attr_name, min_level, max_level = sample_attr(
modifiable_attr)
answer_j = copy.deepcopy(answer_AoT)
answer_j.sample_new(component_idx, attr_name, min_level, max_level,
answer_AoT)
candidates.append(answer_j)
random.shuffle(candidates)
answers = []
for candidate in candidates:
answers.append(render_panel(candidate))
# imsave(generate_matrix_answer(imgs + answers), "./experiments/fuse/{}.jpg".format(k))
image = imgs[0:8] + answers
target = candidates.index(answer_AoT)
predicted = solve(rule_groups, context, candidates)
meta_matrix, meta_target = serialize_rules(rule_groups)
structure, meta_structure = serialize_aot(start_node)
np.savez("{}/RAVEN_{}_{}.npz".format(args.save_dir, k, set_name),
image=image,
target=target,
predict=predicted,
meta_matrix=meta_matrix,
meta_target=meta_target,
structure=structure,
meta_structure=meta_structure)
with open("{}/RAVEN_{}_{}.xml".format(args.save_dir, k, set_name),
"w") as f:
dom = dom_problem(context + candidates, rule_groups)
f.write(dom)
if target == predicted:
acc += 1
print("Accuracy: {}".format(
float(acc) / (args.num_samples * len(all_configs))))
def separate(args, all_configs):
if not os.path.exists(args.save_dir):
os.makedirs(args.save_dir)
for key in all_configs.keys():
if not os.path.exists(os.path.join(args.save_dir, key)):
os.mkdir(os.path.join(args.save_dir, key))
random.seed(args.seed)
np.random.seed(args.seed)
for key in all_configs.keys():
acc = 0
for k in tqdm(range(args.num_samples), key):
count_num = k % 10
if count_num < (10 - args.val - args.test):
set_name = "train"
elif count_num < (10 - args.test):
set_name = "val"
else:
set_name = "test"
root = all_configs[key]
while True:
rule_groups = sample_rules()
new_root = root.prune(rule_groups)
if new_root is not None:
break
start_node = new_root.sample()
row_1_1 = copy.deepcopy(start_node)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_1_2 = rule_num_pos.apply_rule(row_1_1)
row_1_3 = rule_num_pos.apply_rule(row_1_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_1_2 = rule.apply_rule(row_1_1, row_1_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_1_3 = rule.apply_rule(row_1_2, row_1_3)
if l == 0:
to_merge = [row_1_1, row_1_2, row_1_3]
else:
merge_component(to_merge[1], row_1_2, l)
merge_component(to_merge[2], row_1_3, l)
row_1_1, row_1_2, row_1_3 = to_merge
row_2_1 = copy.deepcopy(start_node)
row_2_1.resample(True)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_2_2 = rule_num_pos.apply_rule(row_2_1)
row_2_3 = rule_num_pos.apply_rule(row_2_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_2_2 = rule.apply_rule(row_2_1, row_2_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_2_3 = rule.apply_rule(row_2_2, row_2_3)
if l == 0:
to_merge = [row_2_1, row_2_2, row_2_3]
else:
merge_component(to_merge[1], row_2_2, l)
merge_component(to_merge[2], row_2_3, l)
row_2_1, row_2_2, row_2_3 = to_merge
row_3_1 = copy.deepcopy(start_node)
row_3_1.resample(True)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_3_2 = rule_num_pos.apply_rule(row_3_1)
row_3_3 = rule_num_pos.apply_rule(row_3_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_3_2 = rule.apply_rule(row_3_1, row_3_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_3_3 = rule.apply_rule(row_3_2, row_3_3)
if l == 0:
to_merge = [row_3_1, row_3_2, row_3_3]
else:
merge_component(to_merge[1], row_3_2, l)
merge_component(to_merge[2], row_3_3, l)
row_3_1, row_3_2, row_3_3 = to_merge
imgs = [render_panel(row_1_1),
render_panel(row_1_2),
render_panel(row_1_3),
render_panel(row_2_1),
render_panel(row_2_2),
render_panel(row_2_3),
render_panel(row_3_1),
render_panel(row_3_2),
np.zeros((IMAGE_SIZE, IMAGE_SIZE), np.uint8)]
context = [row_1_1, row_1_2, row_1_3, row_2_1, row_2_2, row_2_3, row_3_1, row_3_2]
answer_AoT = copy.deepcopy(row_3_3)
modifiable_attr = sample_attr_avail(rule_groups, answer_AoT)
if not args.fair:
candidates, answers_imgs = original_raven(modifiable_attr, answer_AoT, rule_groups, context)
else:
candidates, answers_imgs = fair_raven(modifiable_attr, answer_AoT, rule_groups, context)
if args.save:
zipped = list(zip(candidates, answers_imgs))
random.shuffle(zipped)
candidates, answers_imgs = zip(*zipped)
image = imgs[0:8] + list(answers_imgs)
target = candidates.index(answer_AoT)
_, predicted = solve(rule_groups, context, candidates)
meta_matrix, meta_target = serialize_rules(rule_groups)
structure, meta_structure = serialize_aot(start_node)
np.savez_compressed("{}/{}/RAVEN_{}_{}.npz".format(args.save_dir, key, k, set_name), image=image,
target=target,
predict=predicted,
meta_matrix=meta_matrix,
meta_target=meta_target,
structure=structure,
meta_structure=meta_structure)
with open("{}/{}/RAVEN_{}_{}.xml".format(args.save_dir, key, k, set_name), "w") as f:
dom = dom_problem(context + list(candidates), rule_groups)
f.write(dom)
def fair_raven(modifiable_attr, answer_AoT, rule_groups, context):
candidates = [answer_AoT]
answers_imgs = [render_panel(answer_AoT)]
answer_score, _ = solve(rule_groups, context, [answer_AoT])
assert answer_score > 0
"""Create the negative choices for the balanced RAVEN-FAIR dataset"""
attrs = [modifiable_attr]
idxs = []
blacklist = [[]]
try:
while len(candidates) < 8:
while True:
indices = random.sample(range(len(candidates)), k=len(candidates))
timeout_flag = False
for idx in indices:
if len(attrs[idx]) > 0:
timeout_flag = True
break
if timeout_flag:
break
print 'No option to continue'
raise Exception('No option to continue')
attr_i = attrs[idx]
candidate_i = candidates[idx]
blacklist_i = blacklist[idx]
component_idx, attr_name, min_level, max_level = sample_attr(attr_i)
try:
with timeout(5):
new_answer = copy.deepcopy(candidate_i)
new_answer.sample_new(component_idx, attr_name, min_level, max_level, candidate_i)
new_attr = sample_attr_avail(rule_groups, new_answer)
except Exception as e:
print 'Attempt to sample failed - recovering'
print(e)
print(idxs)
print(component_idx, attr_name, min_level, max_level)
for attr in attr_i:
print(attr)
print(blacklist_i)
continue
new_blacklist = copy.deepcopy(blacklist_i) + [attr_name]
for i in reversed(range(len(new_attr))):
if new_attr[i][1] in new_blacklist:
new_attr.pop(i)
new_answer_img = render_panel(new_answer)
ok = True
new_answer_score, _ = solve(rule_groups, context, [new_answer])
if new_answer_score >= answer_score:
print 'Warning - Accidentally generated good answer - resampling'
ok = False
for i in range(0, len(answers_imgs)):
if (new_answer_img == answers_imgs[i]).all():
print 'Warning - New answer equals existing image - resampling'
ok = False
if ok:
idxs.append(idx)
candidates.append(new_answer)
attrs.append(new_attr)
blacklist.append(new_blacklist)
answers_imgs.append(new_answer_img)
except Exception as e:
print(e)
raise e
return candidates, answers_imgs
def separate(args, all_configs):
random.seed(args.seed)
np.random.seed(args.seed)
for key in all_configs.keys():
acc = 0
for k in trange(args.num_samples):
count_num = k % 10
if count_num < (10 - args.val - args.test):
set_name = "train"
elif count_num < (10 - args.test):
set_name = "val"
else:
set_name = "test"
root = all_configs[key]
while True:
rule_groups = sample_rules()
new_root = root.prune(rule_groups)
if new_root is not None:
break
start_node = new_root.sample()
row_1_1 = copy.deepcopy(start_node)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_1_2 = rule_num_pos.apply_rule(row_1_1)
row_1_3 = rule_num_pos.apply_rule(row_1_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_1_2 = rule.apply_rule(row_1_1, row_1_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_1_3 = rule.apply_rule(row_1_2, row_1_3)
if l == 0:
to_merge = [row_1_1, row_1_2, row_1_3]
else:
merge_component(to_merge[1], row_1_2, l)
merge_component(to_merge[2], row_1_3, l)
row_1_1, row_1_2, row_1_3 = to_merge
row_2_1 = copy.deepcopy(start_node)
row_2_1.resample(True)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_2_2 = rule_num_pos.apply_rule(row_2_1)
row_2_3 = rule_num_pos.apply_rule(row_2_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_2_2 = rule.apply_rule(row_2_1, row_2_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_2_3 = rule.apply_rule(row_2_2, row_2_3)
if l == 0:
to_merge = [row_2_1, row_2_2, row_2_3]
else:
merge_component(to_merge[1], row_2_2, l)
merge_component(to_merge[2], row_2_3, l)
row_2_1, row_2_2, row_2_3 = to_merge
row_3_1 = copy.deepcopy(start_node)
row_3_1.resample(True)
for l in range(len(rule_groups)):
rule_group = rule_groups[l]
rule_num_pos = rule_group[0]
row_3_2 = rule_num_pos.apply_rule(row_3_1)
row_3_3 = rule_num_pos.apply_rule(row_3_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_3_2 = rule.apply_rule(row_3_1, row_3_2)
for i in range(1, len(rule_group)):
rule = rule_group[i]
row_3_3 = rule.apply_rule(row_3_2, row_3_3)
if l == 0:
to_merge = [row_3_1, row_3_2, row_3_3]
else:
merge_component(to_merge[1], row_3_2, l)
merge_component(to_merge[2], row_3_3, l)
row_3_1, row_3_2, row_3_3 = to_merge
imgs = [render_panel(row_1_1),
render_panel(row_1_2),
render_panel(row_1_3),
render_panel(row_2_1),
render_panel(row_2_2),
render_panel(row_2_3),
render_panel(row_3_1),
render_panel(row_3_2),
np.zeros((IMAGE_SIZE, IMAGE_SIZE), np.uint8)]
context = [row_1_1, row_1_2, row_1_3, row_2_1, row_2_2, row_2_3, row_3_1, row_3_2]
modifiable_attr = sample_attr_avail(rule_groups, row_3_3)
answer_AoT = copy.deepcopy(row_3_3)
candidates = [answer_AoT]
attr_num = 3
if attr_num <= len(modifiable_attr):
idx = np.random.choice(len(modifiable_attr), attr_num, replace=False)
selected_attr = [modifiable_attr[i] for i in idx]
else:
selected_attr = modifiable_attr
mode = None
#switch attribute 'Number' for convenience
pos = [i for i in range(len(selected_attr)) if selected_attr[i][1]=='Number']
if pos:
pos = pos[0]
selected_attr[pos], selected_attr[-1] = selected_attr[-1], selected_attr[pos]
pos = [i for i in range(len(selected_attr)) if selected_attr[i][1]=='Position']
if pos:
mode = 'Position-Number'
values = []
if len(selected_attr) >= 3:
mode_3 = None
if mode == 'Position-Number':
mode_3 = '3-Position-Number'
for i in range(attr_num):
component_idx, attr_name, min_level, max_level, attr_uni = selected_attr[i][0], selected_attr[i][1], selected_attr[i][3], selected_attr[i][4], selected_attr[i][5]
value = answer_AoT.sample_new_value(component_idx, attr_name, min_level, max_level, attr_uni, mode_3)
values.append(value)
tmp = []
for j in candidates:
new_AoT = copy.deepcopy(j)
new_AoT.apply_new_value(component_idx, attr_name, value)
tmp.append(new_AoT)
candidates += tmp
elif len(selected_attr) == 2:
component_idx, attr_name, min_level, max_level, attr_uni = selected_attr[0][0], selected_attr[0][1], selected_attr[0][3], selected_attr[0][4], selected_attr[0][5]
value = answer_AoT.sample_new_value(component_idx, attr_name, min_level, max_level, attr_uni, None)
values.append(value)
new_AoT = copy.deepcopy(answer_AoT)
new_AoT.apply_new_value(component_idx, attr_name, value)
candidates.append(new_AoT)
component_idx, attr_name, min_level, max_level, attr_uni = selected_attr[1][0], selected_attr[1][1], selected_attr[1][3], selected_attr[1][4], selected_attr[1][5]
if mode == 'Position-Number':
ran,qu = 6, 1
else:
ran,qu = 3, 2
for i in range(ran):
value = answer_AoT.sample_new_value(component_idx, attr_name, min_level, max_level, attr_uni, None)
values.append(value)
for j in range(qu):
new_AoT = copy.deepcopy(candidates[j])
new_AoT.apply_new_value(component_idx, attr_name, value)
candidates.append(new_AoT)
elif len(selected_attr) == 1:
component_idx, attr_name, min_level, max_level, attr_uni = selected_attr[0][0], selected_attr[0][1], selected_attr[0][3], selected_attr[0][4], selected_attr[0][5]
for i in range(7):
value = answer_AoT.sample_new_value(component_idx, attr_name, min_level, max_level, attr_uni, None)
values.append(value)
new_AoT = copy.deepcopy(answer_AoT)
new_AoT.apply_new_value(component_idx, attr_name, value)
candidates.append(new_AoT)
random.shuffle(candidates)
answers = []
for candidate in candidates:
answers.append(render_panel(candidate))
#imsave(generate_matrix_answer(imgs + answers), "/media/dsg3/hs/RAVEN_image/experiments2/{}/{}.jpg".format(key, k))
image = imgs[0:8] + answers
target = candidates.index(answer_AoT)
predicted = solve(rule_groups, context, candidates)
meta_matrix, meta_target = serialize_rules(rule_groups)
structure, meta_structure = serialize_aot(start_node)
np.savez("{}/{}/RAVEN_{}_{}.npz".format(args.save_dir, key, k, set_name), image=image,
target=target,
predict=predicted,
meta_matrix=meta_matrix,
meta_target=meta_target,
structure=structure,
meta_structure=meta_structure)
with open("{}/{}/RAVEN_{}_{}.xml".format(args.save_dir, key, k, set_name), "wb") as f:
dom = dom_problem(context + candidates, rule_groups)
f.write(dom)
if target == predicted:
acc += 1
print("Accuracy of {}: {}".format(key, float(acc) / args.num_samples))