def preprocess_data(self):
train_data = read_data(self.train_path)
test_data = read_data(self.test_path)
len_train = len(train_data)
len_test = len(test_data)
train_data = np.asarray(train_data)
test_data = np.asarray(test_data)
#print(train_data.shape,test_data.shape)
X_train,y_train = train_data[:,:-1],train_data[:,-1]
X_test,y_test = test_data[:,:-1],test_data[:,-1]
#print(X_train.shape,y_train.shape,X_test.shape,y_test.shape)
X_all = np.append(X_train,X_test,axis=0)
X_all_EPMNF = []
for row in X_all:
line = []
for p in row:
line = line + PMNF_exp(p)
X_all_EPMNF.append(line)
X_all_EPMNF = np.asarray(X_all_EPMNF)
#print(X_all_EPMNF.shape)
scaler = StandardScaler()
scaler.fit(X_all_EPMNF)
X_all_EPMNF = scaler.transform(X_all_EPMNF)
X_train_EPMNF = X_all_EPMNF[:len_train,:]
X_test_EPMNF = X_all_EPMNF[len_train:,:]
print(X_train_EPMNF.shape,X_test_EPMNF.shape)
return train_data,test_data,X_train_EPMNF,X_test_EPMNF,y_train,y_test
def preprocess_data(self):
# read data
data_train = np.asarray(read_data(self.train_path))
data_test = np.asarray(read_data(self.test_path))
#print(data_train.shape,data_test.shape)
# 1. split trainset to X,y
self.X_RF_train = data_train[:, :-1]
self.y_RF_train = data_train[:, -1]
# 2. split testset to X_RF,y_RF and X_Lasso,y_Lasso
#test data split by number of process(128)
split_at = data_test[:, -2].searchsorted([129])
test_data_split = np.split(data_test, split_at)
#print(test_data_split)
#test data split to X,y of Random Forest and Lasso
self.X_RF_test = test_data_split[0][:, :-1]
self.y_RF_test = test_data_split[0][:, -1]
self.X_lasso_test = test_data_split[1][:, :-1]
self.y_lasso_test = test_data_split[1][:, -1]
print(self.X_RF_test.shape, self.y_RF_test.shape,
self.X_lasso_test.shape, self.y_lasso_test.shape)
def read_raw_data(self):
calendar = cm.read_data(os.path.join(cm.raw_data_path, 'calendar.csv'))
sales_train = cm.read_data(
os.path.join(cm.raw_data_path, 'sales_train_validation.csv'))
sell_prices = cm.read_data(
os.path.join(cm.raw_data_path, 'sell_prices.csv'))
sample_submission = cm.read_data(
os.path.join(cm.raw_data_path, 'sample_submission.csv'))
return sample_submission, calendar, sales_train, sell_prices
def preprocess_data(self):
# read data
data_train = np.asarray(read_data(self.train_path))
data_test = np.asarray(read_data(self.test_path))
print(data_train.shape, data_test.shape)
# sort and split train data group by number of process
self.data_train_split = self.split_data(data_train,
self.split_train_len)
#print(self.data_train_split[0])
# sort and split test data group by number of process
self.data_test_split = self.split_data(data_test, self.split_test_len)
def all_answers(question_id):
answer_database = common.read_data('answer.csv')
question_database = common.read_data('question.csv')
answers = []
for data_line in answer_database:
if str(question_id) in data_line[3]:
answers.append(data_line)
print(answers)
for data_line in question_database:
if str(question_id) in data_line[0]:
question_line = data_line
return render_template('all_answers.html',
question_line=question_line,
answers=answers)
def main(model_dir, output_dir, redshift_table, subvols, obs_dir):
plt = common.load_matplotlib()
fields = {
'galaxies':
('type', 'mstars_disk', 'mstars_bulge', 'rstar_disk', 'm_bh',
'matom_disk', 'mmol_disk', 'mgas_disk', 'matom_bulge', 'mmol_bulge',
'mgas_bulge', 'mvir_hosthalo')
}
hdf5_data = common.read_data(model_dir, redshift_table[0], fields, subvols)
(mgas_relation, mgas_relation_cen, mgas_relation_sat, mh2_gals, mh1_gals,
mgas_gals, mh2_relation, mh1_relation, mhr_relation, mhr_relation_cen,
mhr_relation_sat, mgas_relation_ltg, mh2_relation_ltg, mh1_relation_ltg,
mgas_relation_etg, mh2_relation_etg, mh1_relation_etg,
mgas_ms_relation_ltg, mh2_ms_relation_ltg, mh1_ms_relation_ltg,
mgas_ms_relation_etg, mh2_ms_relation_etg, mh1_ms_relation_etg,
mh1_relation_satellites_halos) = prepare_data(hdf5_data)
plot_cold_gas_fraction(plt, output_dir, obs_dir, mgas_relation,
mgas_relation_cen, mgas_relation_sat)
plot_HI_stacking(plt, output_dir, obs_dir, mh1_relation_satellites_halos)
plot_molecular_gas_fraction(
plt, output_dir, obs_dir, mgas_gals, mgas_relation, mh1_gals,
mh1_relation, mh2_gals, mh2_relation, mgas_relation_ltg,
mh2_relation_ltg, mh1_relation_ltg, mgas_relation_etg,
mh2_relation_etg, mh1_relation_etg, mgas_ms_relation_ltg,
mh2_ms_relation_ltg, mh1_ms_relation_ltg, mgas_ms_relation_etg,
mh2_ms_relation_etg, mh1_ms_relation_etg)
plot_h1h2_gas_fraction(plt, output_dir, mhr_relation, mhr_relation_cen,
mhr_relation_sat)
def job(database, symbol):
today = date.today() # today
# Update to Today First
print("Updating Data for Symbol %s" % symbol)
download_symbol(stocks_collection, symbol)
print("Analizing Data for Symbol %s" % symbol)
stock = read_data(stocks_collection, symbol)
strategy = minimum_month_strategy.Strategy()
st = strategy.buy_at(stock, today)
results = {}
results["_date"] = today
results.update(st)
print(results)
r = requests.post(
"https://maker.ifttt.com/trigger/buyspy/with/key/lgZ2-PIbeA4ZzkBFem8M-u933GuzypBiSCim4JUesVH",
data={
"value1": str(results["price_today"]),
"value2": str(results["minimun_last_month"]),
"value3": "Buy" if results["buy"] else "DO NOT BUY"
})
print(r.content)
def main(modeldir, outdir, redshift_table, subvols, obsdir):
plt = common.load_matplotlib()
fields = {
'global':
('redshifts', 'm_hi', 'm_h2', 'mcold', 'mcold_metals', 'mhot_halo',
'mejected_halo', 'mstars', 'mstars_bursts_mergers',
'mstars_bursts_diskinstabilities', 'm_bh', 'sfr_quiescent',
'sfr_burst', 'm_dm', 'mcold_halo', 'number_major_mergers',
'number_minor_mergers', 'number_disk_instabilities', 'smbh_maximum')
}
# Read data from each subvolume at a time and add it up
# rather than appending it all together
for idx, subvol in enumerate(subvols):
subvol_data = common.read_data(modeldir, redshift_table[0], fields,
[subvol])
max_bhs_subvol = subvol_data[20].copy()
if idx == 0:
hdf5_data = subvol_data
max_smbh = max_bhs_subvol
else:
max_smbh = np.maximum(max_smbh, max_bhs_subvol)
for subvol_datum, hdf5_datum in zip(subvol_data[3:],
hdf5_data[3:]):
hdf5_datum += subvol_datum
#select the most massive black hole from the last list item
# Also make sure that the total volume takes into account the number of subvolumes read
hdf5_data[1] = hdf5_data[1] * len(subvols)
h0, redshifts = hdf5_data[0], hdf5_data[2]
#for z, m in zip(redshifts, max_smbh):
# print z,m/h0
(mstar_plot, mcold_plot, mhot_plot, meje_plot, mstar_dm_plot,
mcold_dm_plot, mhot_dm_plot, meje_dm_plot, mbar_dm_plot, sfr, sfrd, sfrb,
mstarden, mstarbden_mergers, mstarbden_diskins, sfre, sfreH2, mhrat,
mHI_plot, mH2_plot, mH2den, mdustden, omegaHI, mdustden_mol, mcoldden,
mhotden, mejeden, history_interactions,
mDMden) = prepare_data(hdf5_data, redshifts)
plot_mass_densities(plt, outdir, obsdir, h0, redshifts, mstar_plot,
mcold_plot, mhot_plot, meje_plot, mstarden, mcoldden,
mhotden, mejeden)
plot_baryon_fractions(plt, outdir, redshifts, mstar_dm_plot, mcold_dm_plot,
mhot_dm_plot, meje_dm_plot, mbar_dm_plot)
plot_cosmic_sfr(plt, outdir, obsdir, redshifts, h0, sfr, sfrd, sfrb,
history_interactions, mDMden)
plot_stellar_mass_cosmic_density(plt, outdir, obsdir, redshifts, h0,
mstarden, mstarbden_mergers,
mstarbden_diskins)
plot_sft_efficiency(plt, outdir, redshifts, sfre, sfreH2, mhrat)
plot_mass_cosmic_density(plt, outdir, redshifts, mcold_plot, mHI_plot,
mH2_plot)
plot_omega_h2(plt, outdir, obsdir, redshifts, h0, mH2den)
plot_cosmic_dust(plt, outdir, obsdir, redshifts, h0, mdustden,
mdustden_mol)
plot_omega_HI(plt, outdir, obsdir, redshifts, h0, omegaHI)
def main(model_dir, outdir, redshift_table, subvols, obsdir):
# Loop over redshift and subvolumes
plt = common.load_matplotlib()
fields = {'galaxies': ('mstars_disk', 'mstars_bulge', 'mvir_hosthalo',
'mvir_subhalo', 'type', 'mean_stellar_age',
'sfr_disk', 'sfr_burst', 'id_galaxy')}
z = (0, 0.25, 0.5, 1, 1.5, 2.0, 3.0, 4.0, 6.0)
snapshots = redshift_table[z]
# Create histogram
for index, snapshot in enumerate(snapshots):
hdf5_data = common.read_data(model_dir, snapshot, fields, subvols)
#sfh, delta_t, LBT = common.read_sfh(model_dir, snapshot, sfh_fields, subvols)
seds, ids, nbands = common.read_photometry_data(model_dir, snapshot, subvols)
if(index == 0):
CSED = np.zeros(shape = (len(z), 5, nbands))
prepare_data(hdf5_data, seds, ids, CSED, nbands, index)
h0, volh = hdf5_data[0], hdf5_data[1]
if(volh > 0.):
CSED[index,:] = CSED[index,:] / volh * pow(h0,3.0)
# Take logs
plot_csed(plt, outdir, obsdir, h0, CSED, nbands)
def main(experiment_name, model_name, data_path, max_depth, max_bins, describe,
log_as_mleap, log_as_onnx, spark_autolog):
print("Options:")
for k, v in locals().items():
print(f" {k}: {v}")
client = mlflow.tracking.MlflowClient()
if experiment_name:
mlflow.set_experiment(experiment_name)
if spark_autolog:
SparkSession.builder.config("spark.jars.packages",
"org.mlflow.mlflow-spark")
mlflow.spark.autolog()
data_path = data_path or common.default_data_path
data = common.read_data(spark, data_path)
if (describe):
print("==== Data")
data.describe().show()
with mlflow.start_run() as run:
print("MLflow:")
print(" run_id:", run.info.run_id)
print(" experiment_id:", run.info.experiment_id)
print(" experiment_name:",
client.get_experiment(run.info.experiment_id).name)
mlflow.set_tag("version.mlflow", mlflow.__version__)
mlflow.set_tag("version.spark", spark.version)
mlflow.set_tag("version.pyspark", pyspark.__version__)
mlflow.set_tag("version.os",
platform.system() + " - " + platform.release())
model_name = None if model_name is None or model_name == "None" else model_name
train(run.info.run_id, data, max_depth, max_bins, model_name,
log_as_mleap, log_as_onnx, spark_autolog)
def do(impute_params):
logging.info("In pipeline1.do")
data_raw, data_sub = read_data(DATA_TRAIN, SAMPLE_SUBMISSION)
dense_data = do_nmf(data_raw, impute_params)
preds = regress(dense_data)
np.savez_compressed("../results/imputed_preds.npz", preds)
logging.info('return from pipeline1.do')
def main(modeldir, outdir, redshift_table, subvols):
plt = common.load_matplotlib()
fields = {'galaxies': ('type', 'vvir_hosthalo', 'cooling_rate')}
hdf5_data = common.read_data(modeldir, redshift_table[0], fields, subvols, include_h0_volh=False)
med_tvir = prepare_data(hdf5_data)
plot_cooling_rate(plt, outdir, med_tvir)
def check_start(self, root_path, label_name, restart=False):
if restart is False:
try:
start_i = int(common.read_data(self.index_file, 'r'))
print('start_index: ' + str(start_i))
except Exception, e:
print e
start_i = 0
def main(modeldir, outdir, redshift_table, subvols, obsdir):
z = [0, 0.5, 1.0, 2.0, 3.0, 4.0]
snapshots = redshift_table[z]
plt = common.load_matplotlib()
mainseqsf = np.zeros(shape=(len(z), 3, len(xmf)))
sigmamainseqsf = np.zeros(shape=(len(z), 7, len(xmf)))
passive_fractions = np.zeros(shape=(len(z), 3, len(xmf2)))
passive_fractions_cens_sats = np.zeros(shape=(len(z), 2, len(xmflr),
len(xmf2)))
hist_ssfr = np.zeros(shape=(len(z), len(ssfrbins)))
fields = {
'galaxies':
('sfr_disk', 'sfr_burst', 'mstars_disk', 'mstars_bulge', 'rstar_disk',
'm_bh', 'matom_disk', 'mmol_disk', 'mgas_disk', 'matom_bulge',
'mmol_bulge', 'mgas_bulge', 'mgas_metals_disk', 'mgas_metals_bulge',
'mstars_metals_disk', 'mstars_metals_bulge', 'type', 'mvir_hosthalo',
'rstar_bulge')
}
for index, snapshot in enumerate(snapshots):
hdf5_data = common.read_data(modeldir, snapshot, fields, subvols)
(mass, slope, offset) = prepare_data(hdf5_data, index, z[index],
mainseqsf, passive_fractions,
hist_ssfr, sigmamainseqsf,
passive_fractions_cens_sats)
h0 = hdf5_data[0]
if index == 0:
(sfr_disk, sfr_burst, mdisk, mbulge) = hdf5_data[2:6]
sfr_seq = np.zeros(shape=(2, len(mdisk)))
ind = np.where((sfr_disk + sfr_burst > 0) & (mdisk + mbulge > 0))
sfr_seq[0, ind] = mass[ind]
sfr_seq[1, ind] = np.log10(
(sfr_disk[ind] + sfr_burst[ind]) / h0 / GyrToYr)
slope_ms_z0 = slope
offset_ms_z0 = offset
#print 'scatter MS'
#for m,a,b,c,d,e,f,g in zip(xmf[:], sigmamainseqsf[index,0,:], sigmamainseqsf[index,1,:], sigmamainseqsf[index,2,:], sigmamainseqsf[index,3,:], sigmamainseqsf[index,4,:], sigmamainseqsf[index,5,:], sigmamainseqsf[index,6,:]):
# print m,a,b,c,d,e,f,g
#print 'passive fractions centrals'
#for m,a,b,c,d,e,f in zip(xmf2[:], passive_fractions_cens_sats[0,0,0,:], passive_fractions_cens_sats[0,0,1,:], passive_fractions_cens_sats[0,0,2,:], passive_fractions_cens_sats[0,0,3,:], passive_fractions_cens_sats[0,0,4,:], passive_fractions_cens_sats[0,0,5,:],):
# print m,a,b,c,d,e,f
#print 'passive fractions satellites'
#for m,a,b,c,d,e,f in zip(xmf2[:], passive_fractions_cens_sats[0,1,0,:], passive_fractions_cens_sats[0,1,1,:], passive_fractions_cens_sats[0,1,2,:], passive_fractions_cens_sats[0,1,3,:], passive_fractions_cens_sats[0,1,4,:], passive_fractions_cens_sats[0,1,5,:],):
# print m,a,b,c,d,e,f
# This should be the same in all HDF5 files
plot_sfr_mstars_z0(plt, outdir, obsdir, h0, sfr_seq, mainseqsf,
sigmamainseqsf, slope_ms_z0, offset_ms_z0)
plot_passive_fraction(plt, outdir, obsdir, passive_fractions, hist_ssfr,
passive_fractions_cens_sats)
def all_answers(question_id):
answer_database = read_data('answer.csv')
question_database = read_data('question.csv')
decoded_data_answer = time_decode(answer_database)
decoded_data_question = time_decode(question_database)
answers = []
for data_line in decoded_data_answer:
if str(question_id) in data_line[3]:
answers.append(data_line)
for data_line in decoded_data_question:
if str(question_id) in data_line[0]:
question_line = data_line
return render_template('all_answers.html',
question_line=question_line,
answers=answers)
def train_data():
train_ = read_data('./tcdata/hy_round2_train_20200225/')
train_x = pd.DataFrame.from_dict(train_)
train_y = train_x.pop('type')
#测试得到结果需要id
#训练模型不需要
#train_id = train_x.pop('id')
#train_x = new_cols(train_x)
return train_x, train_y
def read_data(self):
if self.sample_size == 1:
data_path = os.path.join(cm.cleaned_data_path, 'regression',
'regression.csv')
else:
data_path = os.path.join(
cm.cleaned_data_path, 'regression', 'regression_sample_' +
str(self.sample_size).replace('.', '') + '.csv')
return cm.read_data(data_path)
def __get_data_to_predict(data_file, data_width, pca):
data_read = read_data(filename=data_file)
data_numpy = np.array(data_read["y"])
# make all the data the same size, clip the end of it. The end is not interesting anyway
data_numpy = data_numpy[:data_width]
data_pca = pca.transform(data_numpy.reshape(1, -1))
return data_pca.reshape((1, 1, -1))
def __init__(self, data, tr, maps=None, mask=None):
self.data = co.read_data(data)
self.tr = tr
self.spin = int(self.data['tracers'][tr]['spin'])
self.type = self.data['tracers'][tr]['type']
self._raw_maps = None
self._maps = maps
self._mask = mask
self.f = self.compute_field()
def get_valid_and_invalid_files(root_dir="YOMIRAN",
validate_hierarchy=True,
validate_filename_format=True,
validate_empty_file=True):
"""Return (valid_files, invalid_files)
Validation criteria:
- empty file
- format of file name
- identical files (same content)
- folder hierarchy of file"""
invalid_files = []
valid_files = []
data_of_all_files = [
] # in format of [Data1, Data2...] where Data is a named tuple
for root, dirs, files in os.walk(root_dir, topdown=True):
for file in files:
file_is_valid = True
full_path = os.path.join(root, file)
if validate_hierarchy and not __is_file_saved_in_correct_directory_hierarchy(
file_path=full_path, root_dir=root_dir):
invalid_files.append(
InvalidFile(file_path=full_path,
reason="Incorrect folder hierarchy"))
file_is_valid = False
# continue
if validate_filename_format and not __is_filename_correct_format(
filename=file):
invalid_files.append(
InvalidFile(file_path=full_path,
reason="Incorrect file name"))
file_is_valid = False
# continue
if validate_empty_file and __is_file_empty(filename=full_path):
invalid_files.append(
InvalidFile(file_path=full_path, reason="Empty file"))
file_is_valid = False
# continue
if file_is_valid:
valid_files.append(full_path)
# for future check if we have identical files
data = read_data(filename=full_path)
data_numpy = np.vstack((np.array(data["x"]), np.array(data["y"])))
data_of_all_files.append(Data(file_path=full_path,
data=data_numpy))
identical_files = __get_identical_files(data_of_all_files)
invalid_files.extend(identical_files)
# filtering the identical files from the valid files
identical_files_paths = [
identical_file.file_path for identical_file in identical_files
]
valid_files = list(
filter(lambda filename: filename not in identical_files_paths,
valid_files))
return valid_files, invalid_files
def run(self):
cm.create_all_directories([os.path.join(cm.checkpoint_path, 'eda')])
self.df = cm.read_data(os.path.join(cm.cleaned_data_path, 'regression', 'features_extractor'
+'_sample_rate_' + str(self.sample_size).replace('.', '')
+ '_version_' + str(self.version)
+'.csv'))
self.target_analysis(self.df)
self.calculate_weights(self.df)
def sign_start(self, restart=False):
times = 4 # 图片放大倍数
if restart is False:
try:
start_i = int(common.read_data(self.index_file, 'r'))
print('start_index: ' + str(start_i))
except Exception, e:
print e
start_i = 0
def main(uri, data_path, num_records, log_mod, output_file_base, num_iters):
records = read_data(data_path, num_records)
headers = {'Content-Type': 'application/json'}
durations = []
for iter in range(0, num_iters):
num_records = len(records)
print("Calls:")
for j, r in enumerate(records):
data = json.dumps(r)
start = time.time()
requests.post(uri, headers=headers, data=data)
dur = time.time() - start
if j % log_mod == 0:
print(f" {j}/{num_records}: {round(dur,3)}")
durations.append(dur)
total = sum(durations)
mean = statistics.mean(durations)
stdev = statistics.stdev(durations)
rsd = stdev / mean * 100 # relative stdev
calls = num_iters * len(records)
print("Results (seconds):")
print(" mean: ", round(mean, 3))
print(" max: ", round(max(durations), 3))
print(" min: ", round(min(durations), 3))
print(" std: ", round(stdev, 3))
print(" rsd: ", round(rsd, 2))
print(" total: ", round(total, 3))
print(" calls: ", calls)
print(" records: ", len(records))
print(" iterations:", num_iters)
if output_file_base:
now = time.time()
ts = time.strftime("%Y-%m-%d %H:%M:%S", time.gmtime(now))
dct = {
"timestamp": ts,
"uri": uri,
"mean": mean,
"max": max(durations),
"min": min(durations),
"std": stdev,
"rsd": rsd,
"total": total,
"calls": calls,
"records": len(records),
"iterations": num_iters
}
ts = time.strftime("%Y-%m-%d_%H%M%S", time.gmtime(now))
path = f"{output_file_base}_{ts}.csv"
print("Output file:", path)
with open(path, "w") as f:
f.write(json.dumps(dct, indent=2) + "\n")
def __init__(self, root_dir, label_file, img_size, transforms=None, is_train=False):
self.root_dir = root_dir
records_txt = common.read_data(label_file, 'r')
self.records = records_txt.split('\n')
self.img_size = img_size
self.is_train = is_train
# imgs = os.listdir(root)
# self.imgs = [os.path.join(root, img) for img in imgs]
# self.label_path = label_path
self.transforms = transforms
def main(modeldir, outdir, redshift_table, subvols, obsdir):
plt = common.load_matplotlib()
fields = {
'galaxies':
('mstars_disk', 'mstars_bulge', 'mstars_burst_mergers',
'mstars_burst_diskinstabilities', 'mstars_bulge_mergers_assembly',
'mstars_bulge_diskins_assembly', 'm_bh', 'rstar_disk', 'rstar_bulge',
'type', 'specific_angular_momentum_disk_star',
'specific_angular_momentum_bulge_star',
'specific_angular_momentum_disk_gas',
'specific_angular_momentum_bulge_gas',
'specific_angular_momentum_disk_gas_atom',
'specific_angular_momentum_disk_gas_mol', 'lambda_subhalo',
'mvir_subhalo', 'mgas_disk', 'mgas_bulge', 'matom_disk', 'mmol_disk',
'matom_bulge', 'mmol_bulge', 'bh_accretion_rate_hh',
'bh_accretion_rate_sb')
}
# Loop over redshift and subvolumes
rcomb = np.zeros(shape=(len(zlist), 3, len(xmf)))
disk_size = np.zeros(shape=(len(zlist), 3, len(xmf)))
bulge_size = np.zeros(shape=(len(zlist), 3, len(xmf)))
bulge_size_mergers = np.zeros(shape=(len(zlist), 3, len(xmf)))
bulge_size_diskins = np.zeros(shape=(len(zlist), 3, len(xmf)))
BH = np.zeros(shape=(len(zlist), 3, len(xmf)))
disk_size_sat = np.zeros(shape=(len(zlist), 3, len(xmf)))
disk_size_cen = np.zeros(shape=(len(zlist), 3, len(xmf)))
BT_fractions = np.zeros(shape=(len(zlist), len(xmf)))
BT_fractions_nodiskins = np.zeros(shape=(len(zlist), len(xmf)))
BT_fractions_centrals = np.zeros(shape=(len(zlist), len(xmf)))
BT_fractions_satellites = np.zeros(shape=(len(zlist), len(xmf)))
disk_vel = np.zeros(shape=(len(zlist), 3, len(xmf)))
bulge_vel = np.zeros(shape=(len(zlist), 3, len(xmf)))
baryonic_TF = np.zeros(shape=(len(zlist), 3, len(xv)))
for index, snapshot in enumerate(redshift_table[zlist]):
hdf5_data = common.read_data(modeldir, snapshot, fields, subvols)
prepare_data(hdf5_data, index, rcomb, disk_size, bulge_size,
bulge_size_mergers, bulge_size_diskins, BH, disk_size_sat,
disk_size_cen, BT_fractions, BT_fractions_nodiskins,
bulge_vel, disk_vel, BT_fractions_centrals,
BT_fractions_satellites, baryonic_TF)
plot_sizes(plt, outdir, obsdir, disk_size_cen, disk_size_sat, bulge_size,
bulge_size_mergers, bulge_size_diskins)
plot_velocities(plt, outdir, disk_vel, bulge_vel, baryonic_TF)
plot_sizes_combined(plt, outdir, rcomb)
plot_bulge_BH(plt, outdir, obsdir, BH)
plot_bt_fractions(plt, outdir, obsdir, BT_fractions,
BT_fractions_nodiskins, BT_fractions_centrals,
BT_fractions_satellites)
def main(model_dir, outdir, redshift_table, subvols, obsdir):
# Loop over redshift and subvolumes
plt = common.load_matplotlib()
fields = {
'galaxies':
('mstars_disk', 'mstars_bulge', 'mvir_hosthalo', 'mvir_subhalo',
'type', 'mean_stellar_age', 'sfr_disk', 'sfr_burst', 'id_galaxy')
}
sfh_fields = {
'bulges_diskins': ('star_formation_rate_histories'),
'bulges_mergers': ('star_formation_rate_histories'),
'disks': ('star_formation_rate_histories')
}
z = (0, 2) #0.5, 1, 1.5, 2, 3)
snapshots = redshift_table[z]
# Create histogram
for index, snapshot in enumerate(snapshots):
hdf5_data = common.read_data(model_dir, snapshot, fields, subvols)
sfh, delta_t, LBT = common.read_sfh(model_dir, snapshot, sfh_fields,
subvols)
seds, ids, nbands = common.read_photometry_data(
model_dir, snapshot, subvols)
(SEDs_dust, SEDs_nodust, total_sfh, sb_sfh, disk_sfh,
gal_props) = prepare_data(hdf5_data, sfh, seds, ids, index, nbands)
h0, volh = hdf5_data[0], hdf5_data[1]
if (index == 0):
SEDs_nodust_z0 = SEDs_nodust
SEDs_dust_z0 = SEDs_dust
total_sfh_z0 = total_sfh
gal_props_z0 = gal_props
LBT_z0 = LBT
plot_individual_seds(plt, outdir, obsdir, h0, SEDs_dust_z0,
SEDs_nodust, total_sfh_z0, gal_props_z0,
LBT_z0)
if (index == 1):
SEDs_dust_z2 = SEDs_dust
total_sfh_z2 = total_sfh
disk_sfh_z2 = disk_sfh
sb_sfh_z2 = sb_sfh
gal_props_z2 = gal_props
LBT_z2 = LBT
plot_individual_seds_z2(plt, outdir, obsdir, h0, SEDs_dust_z2,
total_sfh_z2, disk_sfh_z2, sb_sfh_z2,
gal_props_z2, LBT_z2)
def do(params, gen_submission, blending_model, validate=False):
logging.info("in pipeline2.do")
if (not validate):
data_raw, data_sub = common.read_data(DATA_TRAIN, SAMPLE_SUBMISSION)
else:
TRAIN = "../data/train.csv"
VAL = "../data/val.csv"
data_raw, data_sub = common.read_data(TRAIN, SAMPLE_SUBMISSION)
data_val, _ = common.read_data(VAL, SAMPLE_SUBMISSION)
preds_mat = np.load('../results/imputed_preds.npz',
allow_pickle=True)['arr_0']
preds = pd.DataFrame(preds_mat).reset_index().melt('index')
preds.rename(columns={
"index": "User",
"variable": "Movie",
"value": "Prediction"
},
inplace=True)
regressors_train = get_regressors(preds, data_raw)
U_red, V_red = get_u_v(data_raw, params)
user_clusters, item_clusters, data_raw = get_clusters(
U_red, V_red, data_raw, params)
user_df = user_factorization(data_raw, user_clusters, params)
item_df = item_factorization(data_raw, item_clusters, user_df, params)
merge2, data_raw = merge(data_raw, regressors_train, user_df, item_df)
model = train(data_raw, blending_model)
if validate:
regressors_val = get_regressors(preds, data_val)
rmse = validate_holdout(model, data_val, regressors_val, merge2)
else:
rmse = validate_full(model, data_raw)
if gen_submission:
regressors_test = get_regressors(preds, data_sub)
generate_submission(model, data_sub, regressors_test, merge2)
print("rmse: ", rmse)
return rmse
def sign_start(self, restart=False):
times = 2
cv2.namedWindow('sign_image')
cv2.setMouseCallback('sign_image', self.mouse_click_events) # 鼠标事件绑定
if restart is False:
try:
start_i = int(common.read_data(self.index_file, 'r'))
print('start_index: ' + str(start_i))
except Exception, e:
print e
start_i = 0
def new_answer(question_id):
question_database = read_data('question.csv')
for line in question_database:
if str(question_id) in line[0]:
question_line = line
file_name = "answer.csv"
button_name = "Post your answer"
all_data = read_data(file_name)
timestamp = int(time.time())
data_list = []
if request.method == "POST":
data_list.append(str(generate_data_id(file_name)))
data_list.append(str(timestamp))
data_list.append(' ') # view number
data_list.append(question_id)
data_list.append(request.form['message'])
data_list.append(' ') # for picture
all_data.append(data_list)
new_data_to_write = write_data(file_name, all_data)
return redirect(url_for('all_answers', question_id=question_id))
return render_template("add_answer.html", question_line=question_line)
def main(modeldir, outdir, redshift_table, subvols, obsdir):
plt = common.load_matplotlib()
fields = {
'galaxies':
('mstars_disk', 'mstars_bulge', 'mstars_burst_mergers',
'mstars_burst_diskinstabilities', 'mstars_bulge_mergers_assembly',
'mstars_bulge_diskins_assembly', 'm_bh', 'rstar_disk', 'rstar_bulge',
'type', 'specific_angular_momentum_disk_star',
'specific_angular_momentum_bulge_star',
'specific_angular_momentum_disk_gas',
'specific_angular_momentum_bulge_gas',
'specific_angular_momentum_disk_gas_atom',
'specific_angular_momentum_disk_gas_mol', 'lambda_subhalo',
'mvir_subhalo', 'mvir_hosthalo', 'matom_disk', 'mmol_disk',
'mgas_disk', 'matom_bulge', 'mmol_bulge', 'mgas_bulge', 'sfr_disk',
'sfr_burst', 'vvir_hosthalo', 'rgas_disk', 'rgas_bulge')
}
# Loop over redshift and subvolumes
sam_vs_sam_halo_disk = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
sam_vs_sam_halo_gal = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
sam_vs_sam_halo_disk_gas = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
sam_vs_sam_halo_bar = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
m_vs_m_halo_disk = np.zeros(shape=(len(zlist), 3, len(xmf), 2))
m_vs_m_halo_gal = np.zeros(shape=(len(zlist), 3, len(xmf), 2))
m_vs_m_halo_disk_gas = np.zeros(shape=(len(zlist), 3, len(xmf), 2))
m_vs_m_halo_bar = np.zeros(shape=(len(zlist), 3, len(xmf), 2))
r_vs_r_halo_disk = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
r_vs_r_halo_gal = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
r_vs_r_halo_disk_gas = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
r_vs_r_halo_bar = np.zeros(shape=(len(zlist), 3, len(xlf), 2))
for index, snapshot in enumerate(redshift_table[zlist]):
hdf5_data = common.read_data(modeldir, snapshot, fields, subvols)
(lh, lj, lm, bt, ms, ssfr) = prepare_data(
hdf5_data, index, sam_vs_sam_halo_disk, sam_vs_sam_halo_gal,
sam_vs_sam_halo_disk_gas, sam_vs_sam_halo_bar, m_vs_m_halo_disk,
m_vs_m_halo_gal, m_vs_m_halo_disk_gas, m_vs_m_halo_bar,
r_vs_r_halo_disk, r_vs_r_halo_gal, r_vs_r_halo_disk_gas,
r_vs_r_halo_bar)
plot_specific_am_ratio(plt, outdir, obsdir, sam_vs_sam_halo_disk,
sam_vs_sam_halo_gal, sam_vs_sam_halo_disk_gas,
sam_vs_sam_halo_bar, m_vs_m_halo_disk,
m_vs_m_halo_gal, m_vs_m_halo_disk_gas,
m_vs_m_halo_bar, r_vs_r_halo_disk, r_vs_r_halo_gal,
r_vs_r_halo_disk_gas, r_vs_r_halo_bar)
def fit_model(data):
x = np.linspace(0, len(get_x_values(data)), len(get_x_values(data)))
y = get_y_values(data)
# calculate polynomial
z = np.polyfit(x, y, 4)
f = np.poly1d(z)
return f
def predict(f, data):
x_new = np.linspace(0, len(get_x_values(data)), len(get_x_values(data)))
y_new = f(x_new)
return y_new
if __name__ == '__main__':
data = read_data(sys.argv[1])
training_data = get_training_data(data)
print("fitting to %d rows" % training_data.shape[0])
model_subset = fit_model(training_data)
fitted_subset_y_values = predict(model_subset, data)
model_all = fit_model(data)
fitted_all_y_values = predict(model_all, data)
plt.plot(range(len(get_x_values(data))), get_y_values(data), 'go',
range(len(get_x_values(training_data))), get_y_values(training_data), 'ro',
range(len(get_x_values(data))), fitted_all_y_values, 'b',
range(len(get_x_values(data))), fitted_subset_y_values, 'pink')
plt.show()