def summarize_score(info: Dict, prediction_file_path: str,
f_handler: FormatHandler, combine_score: Callable,
score_type) -> Dict[Tuple[str, str], float]:
key_logit = "logits"
data: List[Dict] = join_prediction_with_info(prediction_file_path, info,
["data_id", key_logit])
def logit_to_score_softmax(logit):
return scipy.special.softmax(logit)[1]
def get_score(entry):
if score_type == "softmax":
return logit_to_score_softmax(entry['logits'])
elif score_type == "raw":
return entry[key_logit][0]
elif score_type == "scalar":
return entry[key_logit]
elif score_type == "tuple":
return entry[key_logit][1]
else:
assert False
grouped: Dict[Tuple[str, str],
List[Dict]] = group_by(data, f_handler.get_pair_id)
tprint("Group size:", len(grouped))
out_d = {}
for pair_id, items in grouped.items():
scores = lmap(get_score, items)
final_score = combine_score(scores)
out_d[pair_id] = final_score
num_items_per_group = average(lmap(len, grouped.values()))
tprint("Num items per group : ", num_items_per_group)
return out_d
def main():
tprint("loading counter dict")
counter_dict: Dict[str, Counter] = load_counter_dict()
def get_doc_lm(doc_id) -> Counter:
counter = counter_dict[doc_id]
n_tf = sum(counter.values())
out_counter = Counter()
for word, cnt in counter.items():
out_counter[word] = cnt / n_tf
return out_counter
qrel = load_robust_qrel()
def get_pos_docs(query_id):
if query_id not in qrel:
return
judgement = qrel[query_id]
for doc_id, score in judgement.items():
if score:
yield doc_id
tprint("build query lm dict")
query_lm_dict = {}
queries = list(qrel.keys())
for query_id in queries:
pos_docs_ids: Iterable[str] = get_pos_docs(query_id)
pos_doc_lms: List[Counter] = lmap(get_doc_lm, pos_docs_ids)
query_lm: Counter = average_counters(pos_doc_lms)
query_lm_dict[query_id] = query_lm
def generate_selected_training_data_ablation_only_pos(info, key, max_seq_length, save_dir, score_dir):
data_id_manager = DataIDManager(0, 1000000)
out_path = os.path.join(save_dir, str(key))
pred_path = os.path.join(score_dir, str(key))
tprint("data gen")
itr = enum_best_segments(pred_path, info)
insts = []
for selected_entry in itr:
selected = decompress_seg_ids_entry(selected_entry)
assert len(selected['input_ids']) == len(selected['seg_ids'])
selected['input_ids'] = pad0(selected['input_ids'], max_seq_length)
selected['seg_ids'] = pad0(selected['seg_ids'], max_seq_length)
# data_id = data_id_manager.assign(selected_segment.to_info_d())
data_id = 0
ci = InstAsInputIds(
selected['input_ids'],
selected['seg_ids'],
selected['label'],
data_id)
insts.append(ci)
def encode_fn(inst: InstAsInputIds) -> collections.OrderedDict:
return encode_inst_as_input_ids(max_seq_length, inst)
tprint("writing")
write_records_w_encode_fn(out_path, encode_fn, insts, len(insts))
save_info(save_dir, data_id_manager, str(key) + ".info")
def do_predict(
bert_hp,
train_config,
data,
lms_config,
modeling_option,
init_fn,
):
num_gpu = train_config.num_gpu
train_batches, dev_batches = data
lms_model = LMSModel(modeling_option, bert_hp, lms_config, num_gpu)
sess = init_session()
sess.run(tf.global_variables_initializer())
init_fn(sess)
step_size = 100
for i in range(100):
st = i * step_size
ed = st + step_size
# make explain train_op does not increase global step
tprint(st, ed)
output_d = predict_fn(sess, train_batches[st:ed], lms_model.logits,
lms_model.loss_tensor, lms_model.ex_score_tensor,
lms_model.per_layer_logit_tensor,
lms_model.batch2feed_dict)
save_path = at_output_dir("lms_scores", str(i))
save_to_pickle(output_d, save_path)
def summarize_score_wo_merge(info: Dict, prediction_file_path: str,
f_handler: FormatHandler,
score_type) -> Dict[Tuple[str, str], float]:
key_logit = "logits"
data: List[Dict] = join_prediction_with_info(prediction_file_path, info,
["data_id", key_logit])
def logit_to_score_softmax(logit):
return scipy.special.softmax(logit)[1]
def get_score(entry):
if score_type == "softmax":
return logit_to_score_softmax(entry['logits'])
elif score_type == "raw":
return entry[key_logit][0]
elif score_type == "scalar":
return entry[key_logit]
elif score_type == "tuple":
return entry[key_logit][1]
else:
assert False
grouped: Dict[Tuple[str, str],
List[Dict]] = group_by(data, f_handler.get_pair_id)
tprint("Group size:", len(grouped))
out_d = {}
for pair_id, items in grouped.items():
query_id, doc_id = pair_id
scores = lmap(get_score, items)
for idx, score in enumerate(scores):
new_doc_id = "{}_{}".format(doc_id, idx)
out_d[(query_id, new_doc_id)] = score
return out_d
def qk_candidate_gen(q_res_path: str, doc_score_path, split,
config) -> List[Tuple[QCKQuery, List[KDP]]]:
queries: List[QCKQuery] = get_qck_queries(split)
num_jobs = d_n_claims_per_split2[split]
score_d = load_doc_scores(doc_score_path, num_jobs)
tprint("loading ranked list")
ranked_list: Dict[
str, List[SimpleRankedListEntry]] = load_galago_ranked_list(q_res_path)
query_ids = list(ranked_list.keys())
query_ids.sort()
print("num queries", len(query_ids))
q_id_to_job_id = {q_id: job_id for job_id, q_id in enumerate(query_ids)}
print("Pre loading docs")
top_n = config['top_n']
out_qk: List[Tuple[QCKQuery, List[KnowledgeDocumentPart]]] = []
all_doc_parts = 0
ticker = TimeEstimator(len(queries))
for q in queries:
job_id: int = q_id_to_job_id[q.query_id]
entries: List = score_d[job_id]
entries.sort(key=get_second, reverse=True)
doc_ids = left(entries)
doc_ids = doc_ids[:top_n]
preload_man.preload(TokenizedCluewebDoc, doc_ids)
docs = iterate_docs(doc_ids)
doc_part_list: List[KDP] = iterate_document_parts(
docs, config['window_size'], config['step_size'], 20)
all_doc_parts += len(doc_part_list)
out_qk.append((q, doc_part_list))
ticker.tick()
return out_qk
def generate_instances(self, job_id, data_id_man):
q_id = self.job_id_to_q_id[job_id]
query_text = self.query_d[int(q_id)]
query_tokens = self.tokenizer.tokenize(query_text)
ranked_list = self.ranked_list[q_id][:1000]
doc_ids = list([e.doc_id for e in ranked_list])
tprint("Loading documents start")
docs_d: Dict[str, List[List[str]]] = load_multiple(BertTokenizedCluewebDoc, doc_ids, True)
tprint("Loading documents done")
avail_seq_length = self.max_seq_length - len(query_tokens) - 3
label_dummy = 0
not_found = 0
for doc_id in doc_ids:
try:
doc: List[List[str]] = docs_d[doc_id]
passages: Iterable[List[str]] = enum_passages(doc, avail_seq_length)
for passage_idx, p in enumerate(passages):
if passage_idx > 9:
break
data_id = data_id_man.assign({
'query_id': q_id,
'doc_id': doc_id,
'passage_idx': passage_idx
})
yield Instance(query_tokens, p, label_dummy, data_id)
except KeyError:
not_found += 1
print("{} of {} docs not found".format(not_found, len(doc_ids)))
def main():
args = parse_arg()
param = json.load(open(args.config_path, "r"))
model, train_processed, valid_processed = prepare_model_and_data(param)
hist_callback = mz.data_generator.callbacks.Histogram(embedding_matrix,
bin_size=30,
hist_mode='LCH')
tprint("defining generator")
train_generator = mz.DataGenerator(train_processed,
batch_size=param['batch_size'],
shuffle=True,
callbacks=[hist_callback])
valid_x, valid_y = valid_processed.unpack()
evaluate = mz.callbacks.EvaluateAllMetrics(model,
x=valid_x,
y=valid_y,
batch_size=len(valid_x))
early_stop = tf.keras.callbacks.EarlyStopping(monitor='loss',
patience=1,
verbose=1,
mode='min')
tprint("fitting")
callbacks = [evaluate]
if param['early_stop']:
callbacks.append(early_stop)
history = model.fit_generator(train_generator,
epochs=100,
callbacks=callbacks,
workers=5,
use_multiprocessing=False)
def main():
info_path = sys.argv[1]
# TODO remove
# sh_format_path = sys.argv[2]
# model_name = sys.argv[3]
# step = int(sys.argv[4])
# model_sub_path = "{}/model.ckpt-{}".format(model_name, step)
# TODO remove end
run_info = json.load(open(info_path, "r"))
job_info_list = run_info['job_info_list']
job_group_name = run_info['job_group_name']
save_dir = run_info['save_dir']
data_st = run_info['data_st']
data_ed = run_info['data_ed']
sh_format_path = run_info['sh_format_path']
model_sub_path = run_info['model_sub_path']
if 'rerun_jobs' in run_info and run_info['rerun_jobs']:
new_job_info_list = rerun_jobs(sh_format_path, model_sub_path,
save_dir, job_group_name, job_info_list)
job_info_list = new_job_info_list
print("len(job_info_list)", len(job_info_list))
tprint("Waiting files")
wait_files(job_info_list)
tprint("Make ranked list")
make_ranked_list_from_multiple_files(job_group_name, save_dir, data_st,
data_ed)
def label_predict(hparam, data, model_path) -> List[np.array]:
tprint("building model")
voca_size = 30522
task = transformer_logit(hparam, 2, voca_size, False)
enc_payload: List[Tuple[np.array, np.array, np.array]] = data
sout = tf.nn.softmax(task.logits, axis=-1)
sess = init_session()
sess.run(tf.global_variables_initializer())
tprint("loading model")
load_model(sess, model_path)
def forward_run(inputs):
batches = get_batches_ex(inputs, hparam.batch_size, 3)
logit_list = []
ticker = TimeEstimator(len(batches))
for batch in batches:
x0, x1, x2 = batch
soft_out, = sess.run([
sout,
],
feed_dict={
task.x_list[0]: x0,
task.x_list[1]: x1,
task.x_list[2]: x2,
})
logit_list.append(soft_out)
ticker.tick()
return np.concatenate(logit_list)
logits = forward_run(enc_payload)
return logits
def summarize(self):
topic = data_generator.argmining.ukp_header.all_topics[0]
data_loader = ukp.DataLoader(topic)
stopwords = load_stopwords()
def tokenize(x):
return tokenizer.tokenize(x, stopwords)
def sent_score(token_sent, bow_score):
score = 0
factor = 1
for t in token_sent:
score += bow_score[t] * factor
factor *= 0.5
return score
def is_argument(entry):
return entry['annotation'] == "Argument_for" or entry[
'annotation'] == "Argument_against"
for topic in data_generator.argmining.ukp_header.all_topics:
entries = data_loader.all_data[topic]
raw_sents = list(
[e['sentence'] for e in entries if e['set'] == 'train'])
token_sents = list(map(tokenize, raw_sents))
tprint("Runing TextRank")
text_rank = TextRank(token_sents)
tr_score = Counter(text_rank.run(flatten(token_sents)))
tprint("claim_gen.generate")
raw_sents.sort(key=lambda x: sent_score(tokenize(x), tr_score),
reverse=True)
for i in range(10):
print(raw_sents[i])
def check_wait_tasks(active_proc_list):
num_tas = active_proc_list.update_alive()
tprint("Number of active task : ", num_tas)
while num_tas > max_task:
tprint("Waiting for tasks to be done")
time.sleep(60)
num_tas = active_proc_list.update_alive()
def execute(job_id):
out = open(get_log_path(job_id), "w")
p = psutil.Popen(["/bin/bash", get_sh_path_for_job_id(job_id)],
stdout=out,
stderr=out,
preexec_fn=preexec_function)
tprint("Executed job {} . pid={}".format(job_id, p.pid))
return p
def main():
data_name = sys.argv[1]
tprint("Loading idf scores")
get_idf = load_idf_fn_for(data_name)
problems: List[QueryDoc] = load_as_tokens(data_name)
save_name = "{}_idf.txt".format(data_name)
save_path = os.path.join(get_genex_run_save_dir(), save_name)
scores_list: Iterable[Counter] = get_idf_keyword_score(problems, get_idf)
save_score_to_file(scores_list, save_path)
def load_info_from_compressed(pickle_path):
tprint("loading info pickle")
output_d = {}
data = load_pickle_from(pickle_path)
tprint("decompressing...")
for data_id, value_d in data.items():
new_entry = decompress_seg_ids_entry(value_d)
output_d[data_id] = new_entry
return output_d
def get_score_d(pred_file_path: str, info: Dict, f_handler: FormatHandler,
combine_strategy: str, score_type: str):
tprint("Reading from :", pred_file_path)
DOC_SEG_COMBINE = 0
DOC_PART_SEG_COMBINE = 1
NO_COMBINE = 2
combine_type = ""
if combine_strategy == "top_k":
print("using top k")
combine_score = top_k_average
combine_type = DOC_SEG_COMBINE
elif combine_strategy == "avg":
combine_score = average
combine_type = DOC_SEG_COMBINE
print("using avg")
elif combine_strategy == "max":
print("using max")
combine_type = DOC_SEG_COMBINE
combine_score = max
elif combine_strategy == "non_tail_max":
combine_type = DOC_SEG_COMBINE
combine_score = non_tail_max
elif combine_strategy == "first4_max":
combine_type = DOC_SEG_COMBINE
combine_score = first4_max
elif combine_strategy == "first":
combine_type = DOC_SEG_COMBINE
combine_score = select_first
elif combine_strategy == "avg_then_doc_max":
combine_type = DOC_PART_SEG_COMBINE
combine_score = average
print("using avg then max")
elif combine_strategy == "max_then_doc_max":
combine_type = DOC_PART_SEG_COMBINE
combine_score = max
print("using avg then max")
elif combine_strategy == "no_merge":
combine_type = NO_COMBINE
combine_score = None
else:
assert False
if combine_type == DOC_SEG_COMBINE:
score_d = summarize_score(info, pred_file_path, f_handler,
combine_score, score_type)
elif combine_type == DOC_PART_SEG_COMBINE:
score_d = summarize_score(info, pred_file_path, f_handler,
combine_score, score_type)
score_d = get_max_score_from_doc_parts(score_d)
elif combine_type == NO_COMBINE:
score_d = summarize_score_wo_merge(info, pred_file_path, f_handler,
score_type)
else:
assert False
return score_d
def main():
print("Process started")
for split in splits:
tprint("Loading pickles")
job_name = "argu_debate_qck_datagen_{}".format(split)
qk_candidate: List[QKUnit] = load_qk(split)
candidate_dict, correct_d = load_from_pickle(job_name +
"_base_resource")
tprint("Starting job")
start_job(job_name, split, candidate_dict, correct_d, qk_candidate)
def get_lm_for_claim(all_ranked_list, cid, unigrams):
ranked_list = all_ranked_list.get(str(cid))
doc_ids = [t[0] for t in ranked_list]
tprint("Loading document")
preload_docs(doc_ids)
preload_tf(doc_ids)
docs = lmap(load_and_format_doc, doc_ids)
tprint("building clm document")
lm_classifier = build_lm(docs, unigrams)
return lm_classifier
def baseline_predict(hparam, nli_setting, data, method_name,
model_path) -> List[np.array]:
tprint("building model")
voca_size = 30522
task = transformer_logit(hparam, 2, voca_size, False)
enc_payload: List[Tuple[np.array, np.array, np.array]] = data
sout = tf.nn.softmax(task.logits, axis=-1)
sess = init_session()
sess.run(tf.global_variables_initializer())
tprint("loading model")
load_model(sess, model_path)
def forward_run(inputs):
batches = get_batches_ex(inputs, hparam.batch_size, 3)
logit_list = []
ticker = TimeEstimator(len(batches))
for batch in batches:
x0, x1, x2 = batch
soft_out, = sess.run([
sout,
],
feed_dict={
task.x_list[0]: x0,
task.x_list[1]: x1,
task.x_list[2]: x2,
})
logit_list.append(soft_out)
ticker.tick()
return np.concatenate(logit_list)
# train_batches, dev_batches = self.load_nli_data(data_loader)
def idf_explain(enc_payload, explain_tag, forward_run):
train_batches, dev_batches = get_nli_data(hparam, nli_setting)
idf_scorer = IdfScorer(train_batches)
return idf_scorer.explain(enc_payload, explain_tag, forward_run)
todo_list = [
('deletion_seq', explain_by_seq_deletion),
('replace_token', explain_by_replace),
('term_deletion', explain_by_term_deletion),
('term_replace', explain_by_term_replace),
('random', explain_by_random),
('idf', idf_explain),
('deletion', explain_by_deletion),
('LIME', explain_by_lime),
]
method_dict = dict(todo_list)
method = method_dict[method_name]
explain_tag = "mismatch"
explains: List[np.array] = method(enc_payload, explain_tag, forward_run)
# pred_list = predict_translate(explains, data_loader, enc_payload, plain_payload)
return explains
def run_and_save():
texts: List[str] = list(enum_f5_data())
train_x, train_y, dev_x, dev_y = get_aawd_binary_train_dev()
tprint("training...")
svm = SVMWrap(train_x, train_y)
tprint("predicting...")
scores = svm.predict(texts)
output: List[Tuple[str, float]] = list(zip(texts, scores))
save_to_pickle(output, "f5_svm_aawd_prediction")
def run(args):
tprint("msmarco run")
hp = Hyperparam()
nli_setting = ExTrainConfig()
def worker_factory(out_dir):
worker = PredictWorker(args.input_dir, out_dir)
worker.load_model(hp, nli_setting, args.model_path, "co")
return worker
runner = JobRunner(args.save_dir, 696, "pc_tfrecord_ex", worker_factory)
runner.auto_runner()
def main():
train_x, train_y, dev_x, dev_y = get_argu_pointwise_data()
tprint("training and testing")
use_char_ngram = False
print("Use char ngram", use_char_ngram)
pred_svm_ngram = svm.train_svm_and_test(
svm.NGramFeature(use_char_ngram, 4), train_x, train_y, dev_x)
# pred_svm_ngram = list([random.randint(0,1) for _ in dev_y])
acc = accuracy(pred_svm_ngram, dev_y)
ap = get_ap(dev_y, pred_svm_ngram)
print("acc:", acc)
print("ap:", ap)
def load_robust_meta(docs_dir, only_one_seg=False):
collections = dict()
for (dirpath, dirnames, filenames) in os.walk(docs_dir):
for name in filenames:
filepath = os.path.join(dirpath, name)
tprint(filepath)
d = load_trec_meta(filepath)
print(len(d))
collections.update(d)
if only_one_seg:
break
return collections
def generate_selected_training_data_for_many_runs(
target_data_idx, info_dir, max_seq_length, score_and_save_dir: List,
generate_selected_training_data_fn):
interval_start_list = left(robust_query_intervals)
key = interval_start_list[target_data_idx]
info_path = os.path.join(info_dir, str(key))
tprint("loading info: " + info_path)
info = load_pickle_from(info_path)
for score_dir, save_dir in score_and_save_dir:
exist_or_mkdir(save_dir)
tprint(save_dir)
generate_selected_training_data_fn(info, key, max_seq_length, save_dir,
score_dir)
def demo_score(info, max_seq_length):
tprint("data gen")
df_d = load_from_pickle("subword_df_robust_train")
df_d = collections.Counter(df_d)
tokenizer = get_tokenizer()
sep_id = tokenizer.convert_tokens_to_ids(["[SEP]"])[0]
sbc = SubwordConvertor()
collection_size = 1139368311 + 10
avdl = 446
def get_score(input_ids):
sep_idx1 = input_ids.index(sep_id)
sep_idx2 = input_ids.index(sep_id, sep_idx1 + 1)
query = input_ids[1:sep_idx1]
doc_content = input_ids[sep_idx1 + 1:sep_idx2]
q_terms: List[Tuple[int]] = list(sbc.get_word_as_subtoken_tuple(query))
d_terms: List[Tuple[int]] = list(
sbc.get_word_as_subtoken_tuple(doc_content))
tf = collections.Counter()
for d_term in d_terms:
if d_term in q_terms:
tf[d_term] += 1
score = 0
for q_term in q_terms:
f = tf[q_term]
df = df_d[q_term]
N = collection_size
dl = len(d_terms)
score += BM25_2(f, df, N, dl, avdl)
def to_str(input_ids):
return " ".join(tokenizer.convert_ids_to_tokens(input_ids))
print("query", to_str(query))
print("doc", to_str(doc_content))
print('score:', score)
insts = collections.defaultdict(list)
grouped = group_by(info.values(), lambda e: (e['query_id'], e['doc_id']))
for qid, doc_id in grouped:
key = qid, doc_id
sub_entries = grouped[key]
for e in sub_entries:
get_score(e['input_ids'])
def encode_fn(inst: InstAsInputIds) -> collections.OrderedDict:
return encode_inst_as_input_ids(max_seq_length, inst)
def work(self, job_id):
qids = self.query_group[job_id]
data_bin = 100000
data_id_st = job_id * data_bin
data_id_ed = data_id_st + data_bin
data_id_manager = DataIDManager(data_id_st, data_id_ed)
tprint("generating instances")
insts = self.generator.generate(data_id_manager, qids)
# tprint("{} instances".format(len(insts)))
out_path = os.path.join(self.out_dir, str(job_id))
self.generator.write(insts, out_path)
info_path = os.path.join(self.info_dir, "{}.info".format(job_id))
json.dump(data_id_manager.id_to_info, open(info_path, "w"))
def generate_selected_training_data_loop(split_no, score_dir, info_dir,
max_seq_length, save_dir,
generate_selected_training_data_fn):
train_items, held_out = get_robust_splits(split_no)
print(train_items)
exist_or_mkdir(save_dir)
for key in train_items:
info_path = os.path.join(info_dir, str(key))
# info = load_combine_info_jsons(info_path, False, False)
tprint("loading info: " + info_path)
info = load_pickle_from(info_path)
# info = load_info_from_compressed(info_path)
generate_selected_training_data_fn(info, key, max_seq_length, save_dir,
score_dir)
def prepare_model_and_data(param):
tprint("Loading data")
preprocessor, train_processed, valid_processed = drmm_processed()
print(train_processed)
tprint("Defining task")
classification_task = mz.tasks.classification.Classification()
classification_task.metrics = ['accuracy']
output_dim = 300
tprint('output_dim : {}'.format(output_dim))
# Initialize the model, fine-tune the hyper-parameters.
tprint("building model")
#model = mz.models.KNRM()
#model = KNRMEx()
# model = AvgEmbedding()
# model.params.update(preprocessor.context)
# model.params['task'] = classification_task
# model.params['embedding_output_dim'] = output_dim
# model.params['embedding_trainable'] = False
# model.params['kernel_num'] = 11
# model.params['sigma'] = 0.1
# model.params['exact_sigma'] = 0.001
glove_embedding = mz.datasets.embeddings.load_glove_embedding(
dimension=output_dim)
model = get_drmm_model(preprocessor, classification_task, output_dim)
for key, v in param.items():
if key in model.params:
model.params[key] = v
model.guess_and_fill_missing_params(verbose=1)
step_per_epoch = 423 * 128
num_max_steps = 100 * step_per_epoch
if 'lr_decay' in param and param['lr_decay']:
lr = tf.keras.optimizers.schedules.ExponentialDecay(
initial_learning_rate=param['lr'],
decay_steps=num_max_steps / 20,
decay_rate=0.9)
else:
lr = param['lr']
model.params['optimizer'] = tf.keras.optimizers.Adam(learning_rate=lr)
model.build()
model.compile()
tprint("processing embedding")
term_index = preprocessor.context['vocab_unit'].state['term_index']
embedding_matrix = prepare_embedding(output_dim, term_index)
model.load_embedding_matrix(embedding_matrix)
return model, train_processed, valid_processed
def collect_doc_per_query(split, target_qid):
ms_reader = MSMarcoDataReader(split)
def pop(query_id, cur_doc_ids: Set):
num_candidate_doc = len(cur_doc_ids)
cur_doc_ids.update(ms_reader.qrel[query_id])
todo = []
for doc_id in cur_doc_ids:
offset = ms_reader.doc_offset[doc_id]
todo.append((doc_id, offset))
todo.sort(key=get_second)
num_all_docs = len(cur_doc_ids)
print("{} docs".format(num_all_docs))
exist_or_mkdir(per_query_root)
save_path = get_per_query_doc_path(query_id)
out_f = open(save_path, "w")
for doc_id, offset in todo:
content: str = ms_reader.get_content(doc_id)
out_f.write(content + "\n")
out_f.close()
###
total_line = 36701116
skip = True
with open_top100(split) as top100f:
last_topic_id = None
cur_doc_ids = set()
for line_no, line in enumerate(top100f):
if skip:
if not line.startswith(target_qid):
continue
else:
tprint("skip done")
remain_lines = total_line - line_no
ticker = TimeEstimator(remain_lines, "reading", 1000)
skip = False
[topic_id, _, doc_id, rank, _, _] = line.split()
if last_topic_id is None:
last_topic_id = topic_id
elif last_topic_id != topic_id:
pop(last_topic_id, cur_doc_ids)
break
last_topic_id = topic_id
cur_doc_ids = set()
ticker.tick()
cur_doc_ids.add(doc_id)
pop(last_topic_id, cur_doc_ids)
def load_scores(info_file_path, prediction_file_path):
input_type = "qc"
f_handler = get_format_handler(input_type)
tprint("Loading json info")
info: Dict = load_combine_info_jsons(info_file_path,
f_handler.get_mapping(),
f_handler.drop_kdp())
key_logit = "logits"
tprint("Reading predictions...")
data: List[Dict] = join_prediction_with_info(prediction_file_path, info,
["data_id", key_logit])
grouped: Dict[Tuple[str, str],
List[Dict]] = group_by(data, f_handler.get_pair_id)
print("number of groups:", len(grouped))
return grouped