def visualizeBackgroundIncrementAnalaysis():
input_folder = '/data/HYCOM/DA_HYCOM_TSIS/preproc'
output_folder = '/data/HYCOM/DA_HYCOM_TSIS/SUMMARY/AssimilatedData'
years = [2009]
fields = ['srfhgt']
all_files = os.listdir(input_folder)
model_files = [
join(input_folder, x) for x in all_files if x.find('model') != -1
]
obs_files = [
join(input_folder, x) for x in all_files if x.find('obs') != -1
]
inc_files = [
join(input_folder, x) for x in all_files if x.find('increment') != -1
]
# Sort all of them or they won't match
inc_files.sort()
model_files.sort()
obs_files.sort()
mvar = "temp" #"srfhgt"
ovar = "sst" #"ssh"
var_file = "/data/HYCOM/DA_HYCOM_TSIS/preproc/cov_mat/tops_ias_std.nc"
data_lat_lon = read_netcdf(var_file, ['xc', 'yc'])
lat = data_lat_lon['yc'][:]
lon = data_lat_lon['xc'][:]
for i in range(len(model_files)):
model_data = read_netcdf(model_files[i], [mvar])
obs_data_m = read_netcdf(obs_files[i], [ovar])
inc_data = read_netcdf(inc_files[i], [mvar])
obs_data = model_data[mvar][:].copy()
no_mask_at = np.logical_not(obs_data_m[ovar][:].mask)
obs_data[no_mask_at] = obs_data_m[ovar][:][no_mask_at]
data = np.array([model_data[mvar][:], obs_data, inc_data[mvar][:]])
plotMaps1(data, ["Background", "Observation", "Increment"], "Title",
lat, lon)
plt.savefig(join(output_folder, F"{i:004d}.png"), bbox_inches='tight')
def ComputeMinMaxSTDFields(file_name, fields_names, output_file):
data = read_netcdf(file_name, [], [0])
out_fields = []
out_mins = []
out_maxs = []
out_vars = []
out_means = []
for field_name in fields_names:
if len(data[field_name].shape) == 2:
field = data[field_name][:]
elif len(data[field_name].shape) == 3:
field = data[field_name][0, :]
# im = plt.imshow(np.flip(field, axis=0), cmap='gist_earth')
# plt.colorbar(im)
# plt.title(field_name)
# plt.show()
out_fields.append(field_name)
out_mins.append(np.amin(field))
out_maxs.append(np.amax(field))
out_means.append(np.mean(field))
out_vars.append(np.var(field))
out_dic = {
"Name": ["STD" for x in range(len(out_fields))],
"Field": out_fields,
"MIN": out_mins,
"MAX": out_maxs,
"MEAN": out_means,
"VAR": out_vars,
}
df = pd.DataFrame.from_dict(out_dic)
df.to_csv(output_file)
def data_gen_from_preproc(input_folder_preproc, config, ids, field_names, obs_field_names, output_fields, z_layers=[0]):
"""
This generator should generate X and Y for a CNN
:param path:
:param file_names:
:return:
"""
ex_id = -1
np.random.shuffle(ids)
batch_size = config[TrainingParams.batch_size]
all_files = os.listdir(input_folder_preproc)
obs_files = np.array([join(input_folder_preproc, x) for x in all_files if x.startswith('obs')])
increment_files = np.array([join(input_folder_preproc, x) for x in all_files if x.startswith('increment')])
model_files = np.array([join(input_folder_preproc, x) for x in all_files if x.startswith('model')])
var_file = join(input_folder_preproc, "cov_mat", "tops_ias_std.nc")
obs_files.sort()
increment_files.sort()
model_files.sort()
rows = config[ProjTrainingParams.rows]
cols = config[ProjTrainingParams.cols]
norm_type = config[ProjTrainingParams.norm_type]
# Read the variance of selected
var_field_names = config[ProjTrainingParams.fields_names_var]
if len(var_field_names) > 0:
input_fields_var = read_netcdf(var_file, var_field_names, z_layers)
else:
input_fields_var = []
while True:
# These lines are for sequential selection
if ex_id < (len(ids) - 1): # We are not supporting batch processing right now
ex_id += 1
else:
ex_id = 0
np.random.shuffle(ids) # We shuffle the folders every time we have tested all the examples
c_id = ids[ex_id]
try:
output_file_name = increment_files[c_id]
obs_file_name = obs_files[c_id]
model_file_name = model_files[c_id]
# Needs to validate that all the files are from the same date
model_file_year, model_file_day = get_date_from_preproc_filename(model_file_name)
obs_file_year, obs_file_day = get_date_from_preproc_filename(obs_file_name)
output_file_year, output_file_day = get_date_from_preproc_filename(output_file_name)
if (model_file_day != obs_file_day) or (model_file_day != output_file_day) or\
(model_file_year != obs_file_year) or (model_file_year != output_file_year):
print(F"The year and day do not correspond between the files: {output_file_name}, {model_file_name}, {obs_file_name}")
exit()
# If any file doesn't exist, jump to the next example
if not(exists(output_file_name)):
print(F"File doesn't exist: {output_file_name}")
continue
# *********************** Reading files **************************
input_fields_model = read_netcdf(model_file_name, field_names, z_layers)
input_fields_obs = read_netcdf(obs_file_name, obs_field_names, z_layers)
output_field_increment = read_netcdf(output_file_name, output_fields, z_layers)
succ_attempts = 0
while succ_attempts < batch_size:
start_row = np.random.randint(0, 891 - rows) # These hardcoded numbers come from the specific size of these files
start_col = np.random.randint(0, 1401 - cols)
try:
perc_ocean = 0.99 #0.99
if config[ModelParams.MODEL] == AiModels.UNET_2D_MULTISTREAMS:
input_data, y_data = generateXandYMulti(input_fields_model, input_fields_obs, input_fields_var, output_field_increment,
field_names, obs_field_names, var_field_names, output_fields,
start_row, start_col, rows, cols, norm_type=norm_type)
else:
input_data, y_data = generateXandY(input_fields_model, input_fields_obs, input_fields_var, output_field_increment,
field_names, obs_field_names, var_field_names, output_fields,
start_row, start_col, rows, cols, norm_type=norm_type, perc_ocean=perc_ocean)
except Exception as e:
# print(F"Failed for {model_file_name} row:{start_row} col:{start_col}: {e}")
continue
succ_attempts += 1
# We set a value of 0.5 on the land. Trying a new loss function that do not takes into account land
input_data = np.nan_to_num(input_data, nan=0)
y_data = np.nan_to_num(y_data, nan=-0.5)
# input_data = np.nan_to_num(input_data, nan=-1000)
# y_data = np.nan_to_num(y_data, nan=-1000)
# input_data = np.nan_to_num(input_data, nan=0)
# y_data = np.nan_to_num(y_data, nan=0)
if config[ModelParams.MODEL] == AiModels.UNET_2D_MULTISTREAMS:
X = [np.expand_dims(x, axis=0) for x in input_data]
else:
X = np.expand_dims(input_data, axis=0)
Y = np.expand_dims(y_data, axis=0)
# --------------- Just for debugging Plotting input and output---------------------------
# import matplotlib.pyplot as plt
# import pylab
# # mincbar = np.nanmin(input_data)
# # maxcbar = np.nanmax(input_data)
#
# # viz_obj = EOAImageVisualizer(output_folder=join(input_folder_preproc, "training_imgs"), disp_images=False, mincbar=mincbar, maxcbar=maxcbar)
# viz_obj = EOAImageVisualizer(output_folder=join(input_folder_preproc, "training_imgs"), disp_images=False)
# #
# # viz_obj.plot_2d_data_np_raw(np.concatenate((input_data.swapaxes(0,2), y_data.swapaxes(0,2))),
# viz_obj.plot_2d_data_np_raw(np.concatenate((X[0,:,:,:].swapaxes(0,2), Y[0,:,:,:].swapaxes(0,2))),
# var_names=[F"in_model_{x}" for x in field_names] +
# [F"in_obs_{x}" for x in obs_field_names]+
# [F"out_inc_{x}" for x in output_fields],
# rot_90=True,
# file_name=F"{model_file_year}_{model_file_day}_{start_col}_{start_row}",
# title=F"Input data: {field_names} and {obs_field_names}, output {output_fields}")
yield X, Y
# yield [np.zeros((1,160,160,1)) for x in range(7)], Y
except Exception as e:
print(F"----- Not able to generate for file number (from batch): {succ_attempts} ERROR: ", str(e))
def test_model(config):
input_folder = config[PredictionParams.input_folder]
output_folder = config[PredictionParams.output_folder]
output_fields = config[ProjTrainingParams.output_fields]
model_weights_file = config[PredictionParams.model_weights_file]
output_imgs_folder = config[PredictionParams.output_imgs_folder]
field_names_model = config[ProjTrainingParams.fields_names]
field_names_obs = config[ProjTrainingParams.fields_names_obs]
rows = config[ProjTrainingParams.rows]
cols = config[ProjTrainingParams.cols]
run_name = config[TrainingParams.config_name]
norm_type = config[ProjTrainingParams.norm_type]
output_imgs_folder = join(output_imgs_folder, run_name)
create_folder(output_imgs_folder)
# *********** Chooses the proper model ***********
print('Reading model ....')
net_type = config[ProjTrainingParams.network_type]
if net_type == NetworkTypes.UNET or net_type == NetworkTypes.UNET_MultiStream:
model = select_2d_model(config, last_activation=None)
if net_type == NetworkTypes.SimpleCNN_2:
model = simpleCNN(config, nn_type="2d", hid_lay=2, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_4:
model = simpleCNN(config, nn_type="2d", hid_lay=4, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_8:
model = simpleCNN(config, nn_type="2d", hid_lay=8, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_16:
model = simpleCNN(config, nn_type="2d", hid_lay=16, out_lay=2)
plot_model(model,
to_file=join(output_folder, F'running.png'),
show_shapes=True)
# *********** Reads the weights***********
print('Reading weights ....')
model.load_weights(model_weights_file)
# *********** Read files to predict***********
all_files = os.listdir(input_folder)
all_files.sort()
model_files = np.array([x for x in all_files if x.startswith('model')])
z_layers = [0]
var_file = join(input_folder, "cov_mat", "tops_ias_std.nc")
field_names_std = config[ProjTrainingParams.fields_names_var]
if len(field_names_std) > 0:
input_fields_std = read_netcdf(var_file, field_names_std, z_layers)
else:
input_fields_std = []
cmap_out = chooseCMAP(output_fields)
cmap_model = chooseCMAP(field_names_model)
cmap_obs = chooseCMAP(field_names_obs)
cmap_std = chooseCMAP(field_names_std)
tot_rows = 891
tot_cols = 1401
all_whole_mean_times = []
all_whole_sum_times = []
all_whole_rmse = []
# np.random.shuffle(model_files) # TODO this is only for testing
for id_file, c_file in enumerate(model_files):
# Find current and next date
year = int(c_file.split('_')[1])
day_of_year = int(c_file.split('_')[2].split('.')[0])
if day_of_year != 5:
continue
model_file = join(input_folder, F'model_{year}_{day_of_year:03d}.nc')
inc_file = join(input_folder, F'increment_{year}_{day_of_year:03d}.nc')
obs_file = join(input_folder, F'obs_{year}_{day_of_year:03d}.nc')
# *********************** Reading files **************************
input_fields_model = read_netcdf(model_file, field_names_model,
z_layers)
input_fields_obs = read_netcdf(obs_file, field_names_obs, z_layers)
output_field_increment = read_netcdf(inc_file, output_fields, z_layers)
# ******************* Normalizing and Cropping Data *******************
whole_cnn = np.zeros((891, 1401))
whole_y = np.zeros((891, 1401))
this_file_times = []
start_row = 0
donerow = False
while not (donerow):
donecol = False
start_col = 0
while not (donecol):
# print(F"{start_row}-{start_row+rows} {start_col}-{start_col+cols}")
# Generate the proper inputs for the NN
try:
perc_ocean = .05
input_data, y_data = generateXandY(input_fields_model,
input_fields_obs,
input_fields_std,
output_field_increment,
field_names_model,
field_names_obs,
field_names_std,
output_fields,
start_row,
start_col,
rows,
cols,
norm_type=norm_type,
perc_ocean=perc_ocean)
except Exception as e:
print(F"Land for {c_file} row:{start_row} col:{start_col}")
start_col, donecol = verifyBoundaries(
start_col, cols, tot_cols)
continue
# ******************* Replacing nan values *********
# We set a value of 0.5 on the land. Trying a new loss function that do not takes into account land
input_data_nans = np.isnan(input_data)
input_data = np.nan_to_num(input_data, nan=0)
y_data = np.nan_to_num(y_data, nan=-0.5)
X = np.expand_dims(input_data, axis=0)
Y = np.expand_dims(y_data, axis=0)
# Make the prediction of the network
start = time.time()
output_nn_original = model.predict(X, verbose=1)
toc = time.time() - start
this_file_times.append(toc)
# print(F"Time to get prediction {toc:0.3f} seconds")
# PLOT RAW DATA
# import matplotlib.pyplot as plt
# plt.imshow(np.flip(output_nn_original[0,:,:,0], axis=0))
# plt.imshow(np.flip(Y[0,:,:,0], axis=0))
# plt.show()
# Original MSE
# print(F"MSE: {mean_squared_error(Y[0,:,:,0], output_nn_original[0,:,:,0])}")
# Make nan all values inside the land
land_indexes = Y == -0.5
output_nn_original[land_indexes] = np.nan
# ====================== PLOTS RAW DATA NOT NECESSARY =============================
# viz_obj = EOAImageVisualizer(output_folder=output_imgs_folder, disp_images=False)
# viz_obj.plot_2d_data_np_raw(np.concatenate((input_data.swapaxes(0,2), Y[0,:,:,:].swapaxes(0,2), output_nn_original[0,:,:,:].swapaxes(0,2))),
# var_names=[F"in_model_{x}" for x in field_names_model] +
# [F"in_obs_{x}" for x in field_names_obs] +
# [F"in_var_{x}" for x in field_names_std] +
# [F"out_inc_{x}" for x in output_fields] +
# [F"cnn_{x}" for x in output_fields],
# file_name=F"RAW_Input_and_CNN_{c_file}_{start_row:03d}_{start_col:03d}",
# rot_90=True,
# cols_per_row=len(field_names_model),
# title=F"Input data: {field_names_model} and obs {field_names_obs}, increment {output_fields}, cnn {output_fields}")
# Denormalize the data to the proper units in each field
denorm_cnn_output = np.zeros(output_nn_original.shape)
denorm_y = np.zeros(Y.shape)
# ==== Denormalizingallinput and outputs
denorm_cnn_output = denormalizeData(output_nn_original,
output_fields,
PreprocParams.type_inc,
norm_type)
denorm_y = denormalizeData(Y, output_fields,
PreprocParams.type_inc, norm_type)
input_types = [
PreprocParams.type_model for i in input_fields_model
] + [PreprocParams.type_obs for i in input_fields_obs
] + [PreprocParams.type_std for i in input_fields_std]
denorm_input = denormalizeData(
input_data,
field_names_model + field_names_obs + field_names_std,
input_types, norm_type)
# Recover the original land areas, they are lost after denormalization
denorm_input[input_data_nans] = np.nan
denorm_y[land_indexes] = np.nan
# Remove the 'extra dimension'
denorm_cnn_output = np.squeeze(denorm_cnn_output)
denorm_y = np.squeeze(denorm_y)
whole_cnn[
start_row:start_row + rows, start_col:start_col +
cols] = denorm_cnn_output # Add the the 'whole prediction'
whole_y[start_row:start_row + rows, start_col:start_col +
cols] = denorm_y # Add the the 'whole prediction'
# if np.random.random() > .99: # Plot 1% of the times
if True: # Plot 1% of the times
if len(
denorm_cnn_output.shape
) == 2: # In this case we only had one output and we need to make it 'array' to plot
denorm_cnn_output = np.expand_dims(denorm_cnn_output,
axis=2)
denorm_y = np.expand_dims(denorm_y, axis=2)
# Compute RMSE
rmse_cnn = np.zeros(len(output_fields))
for i in range(len(output_fields)):
ocean_indexes = np.logical_not(
np.isnan(denorm_y[:, :, i]))
rmse_cnn[i] = np.sqrt(
mean_squared_error(
denorm_cnn_output[:, :, i][ocean_indexes],
denorm_y[:, :, i][ocean_indexes]))
# viz_obj = EOAImageVisualizer(output_folder=output_imgs_folder, disp_images=False, mincbar=mincbar, maxcbar=maxcbar)
viz_obj = EOAImageVisualizer(
output_folder=output_imgs_folder, disp_images=False)
# ================== DISPLAYS ALL INPUTS AND OUTPUTS DENORMALIZED ===================
# viz_obj.plot_2d_data_np_raw(np.concatenate((input_data.swapaxes(0,2), Y[0,:,:,:].swapaxes(0,2), output_nn_original[0,:,:,:].swapaxes(0,2))),
viz_obj.plot_2d_data_np_raw(
np.concatenate(
(denorm_input.swapaxes(0,
2), denorm_y.swapaxes(0, 2),
denorm_cnn_output.swapaxes(0, 2))),
var_names=[F"in_model_{x}"
for x in field_names_model] +
[F"in_obs_{x}" for x in field_names_obs] +
[F"in_var_{x}" for x in field_names_std] +
[F"out_inc_{x}" for x in output_fields] +
[F"cnn_{x}" for x in output_fields],
file_name=
F"Input_and_CNN_{c_file}_{start_row:03d}_{start_col:03d}",
cmap=cmap_model + cmap_obs + cmap_std + cmap_out +
cmap_out,
rot_90=True,
cols_per_row=len(field_names_model),
title=
F"Input data: {field_names_model} and obs {field_names_obs}, increment {output_fields}, cnn {output_fields}"
)
# =========== Making the same color bar for desired output and the NN =====================
mincbar = [
np.nanmin(denorm_y[:, :, x])
for x in range(denorm_cnn_output.shape[-1])
]
maxcbar = [
np.nanmax(denorm_y[:, :, x])
for x in range(denorm_cnn_output.shape[-1])
]
error = (denorm_y - denorm_cnn_output).swapaxes(0, 2)
mincbarerror = [
np.nanmin(error[i, :, :])
for i in range(len(output_fields))
]
maxcbarerror = [
np.nanmax(error[i, :, :])
for i in range(len(output_fields))
]
viz_obj = EOAImageVisualizer(
output_folder=output_imgs_folder,
disp_images=False,
mincbar=mincbar + mincbar + mincbarerror,
maxcbar=maxcbar + maxcbar + maxcbarerror)
# ================== Displays CNN and TSIS with RMSE ================
viz_obj.output_folder = join(output_imgs_folder,
'JoinedErrrorCNN')
cmap = chooseCMAP(output_fields)
error_cmap = cmocean.cm.diff
viz_obj.plot_2d_data_np_raw(
np.concatenate((denorm_cnn_output.swapaxes(
0, 2), denorm_y.swapaxes(0, 2), error),
axis=0),
var_names=[F"CNN INC {x}" for x in output_fields] +
[F"TSIS INC {x}" for x in output_fields] +
[F'RMSE {c_rmse_cnn:0.4f}' for c_rmse_cnn in rmse_cnn],
file_name=
F"AllError_{c_file}_{start_row:03d}_{start_col:03d}",
rot_90=True,
cmap=cmap + cmap + [error_cmap],
cols_per_row=len(output_fields),
title=F"{output_fields} RMSE: {np.mean(rmse_cnn):0.5f}"
)
start_col, donecol = verifyBoundaries(start_col, cols,
tot_cols)
# Column for
start_row, donerow = verifyBoundaries(start_row, rows, tot_rows)
# Row for
# ======= Plots whole output with RMSE
mincbar = np.nanmin(whole_y) / 2
maxcbar = np.nanmax(whole_y) / 2
error = whole_y - whole_cnn
mincbarerror = np.nanmin(error) / 2
maxcbarerror = np.nanmax(error) / 2
no_zero_ids = np.count_nonzero(whole_cnn)
rmse_cnn = np.sqrt(np.nansum((whole_y - whole_cnn)**2) / no_zero_ids)
all_whole_rmse.append(rmse_cnn)
all_whole_mean_times.append(np.mean(np.array(this_file_times)))
all_whole_sum_times.append(np.sum(np.array(this_file_times)))
if np.random.random(
) > .9 or day_of_year == 353: # Plot 10% of the times
viz_obj = EOAImageVisualizer(
output_folder=output_imgs_folder,
disp_images=False,
mincbar=mincbar + mincbar + mincbarerror,
maxcbar=maxcbar + maxcbar + maxcbarerror)
# mincbar=[-5, -5, -1],
# maxcbar=[10, 10, 1])
# ================== Displays CNN and TSIS with RMSE ================
viz_obj.output_folder = join(output_imgs_folder,
'WholeOutput_CNN_TSIS')
viz_obj.plot_2d_data_np_raw(
[
np.flip(whole_cnn, axis=0),
np.flip(whole_y, axis=0),
np.flip(error, axis=0)
],
var_names=[F"CNN INC {x}" for x in output_fields] +
[F"TSIS INC {x}"
for x in output_fields] + [F'RMSE {rmse_cnn:0.4f}'],
file_name=F"WholeOutput_CNN_TSIS_{c_file}",
rot_90=False,
cols_per_row=3,
cmap=cmocean.cm.algae,
title=F"{output_fields} RMSE: {np.mean(rmse_cnn):0.5f}")
def singleModel(config):
input_folder = config[PredictionParams.input_folder]
rows = config[ProjTrainingParams.rows]
cols = config[ProjTrainingParams.cols]
model_field_names = config[ProjTrainingParams.fields_names]
obs_field_names = config[ProjTrainingParams.fields_names_obs]
output_fields = config[ProjTrainingParams.output_fields]
run_name = config[TrainingParams.config_name]
output_folder = join(config[PredictionParams.output_imgs_folder],
'MODEL_VISUALIZATION', run_name)
norm_type = config[ProjTrainingParams.norm_type]
model_weights_file = config[PredictionParams.model_weights_file]
net_type = config[ProjTrainingParams.network_type]
if net_type == NetworkTypes.UNET or net_type == NetworkTypes.UNET_MultiStream:
model = select_2d_model(config, last_activation=None)
if net_type == NetworkTypes.SimpleCNN_2:
model = simpleCNN(config, nn_type="2d", hid_lay=2, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_4:
model = simpleCNN(config, nn_type="2d", hid_lay=4, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_8:
model = simpleCNN(config, nn_type="2d", hid_lay=8, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_16:
model = simpleCNN(config, nn_type="2d", hid_lay=16, out_lay=2)
create_folder(output_folder)
plot_model(model,
to_file=join(output_folder, F'running.png'),
show_shapes=True)
print('Reading weights ....')
model.load_weights(model_weights_file)
# # All Number of parameters
print(F' Number of parameters: {model.count_params()}')
# Number of parameters by layer
print(F' Number of parameters first CNN: {model.layers[1].count_params()}')
# Example of plotting the filters of a single layer
print("Printing layer names:")
print_layer_names(model)
# plot_cnn_filters_by_layer(model.layers[1], 'First set of filters') # The harcoded 1 should change by project
# *********** Read files to predict***********
# # ========= Here you need to build your test input different in each project ====
all_files = os.listdir(input_folder)
all_files.sort()
# ========= Here you need to build your test input different in each project ====
all_files = os.listdir(input_folder)
all_files.sort()
model_files = np.array([x for x in all_files if x.startswith('model')])
z_layers = [0]
var_file = join(input_folder, "cov_mat", "tops_ias_std.nc")
var_field_names = config[ProjTrainingParams.fields_names_var]
if len(var_field_names) > 0:
input_fields_var = read_netcdf(var_file, var_field_names, z_layers)
else:
input_fields_var = []
np.random.shuffle(model_files) # TODO this is only for testing
for id_file, c_file in enumerate(model_files):
# Find current and next date
year = int(c_file.split('_')[1])
day_of_year = int(c_file.split('_')[2].split('.')[0])
model_file = join(input_folder, F'model_{year}_{day_of_year:03d}.nc')
inc_file = join(input_folder, F'increment_{year}_{day_of_year:03d}.nc')
obs_file = join(input_folder, F'obs_{year}_{day_of_year:03d}.nc')
# *********************** Reading files **************************
z_layers = [0]
input_fields_model = read_netcdf(model_file, model_field_names,
z_layers)
input_fields_obs = read_netcdf(obs_file, obs_field_names, z_layers)
output_field_increment = read_netcdf(inc_file, output_fields, z_layers)
# ******************* Normalizing and Cropping Data *******************
for start_row in np.arange(0, 891 - rows, rows):
for start_col in np.arange(0, 1401 - cols, cols):
try:
input_data, y_data = generateXandY(input_fields_model,
input_fields_obs,
input_fields_var,
output_field_increment,
model_field_names,
obs_field_names,
var_field_names,
output_fields,
start_row,
start_col,
rows,
cols,
norm_type=norm_type)
except Exception as e:
print(
F"Failed for {c_file} row:{start_row} col:{start_col}")
continue
X_nan = np.expand_dims(input_data, axis=0)
Y_nan = np.expand_dims(y_data, axis=0)
# ******************* Replacing nan values *********
# We set a value of 0.5 on the land. Trying a new loss function that do not takes into account land
X = np.nan_to_num(X_nan, nan=0)
Y = np.nan_to_num(Y_nan, nan=-0.5)
output_nn = model.predict(X, verbose=1)
output_nn[np.isnan(Y_nan)] = np.nan
# =========== Output from the last layer (should be the same as output_NN
print("Evaluating all intermediate layers")
inp = model.input # input placeholder
outputs = [
layer.output for layer in model.layers[1:]
if layer.name.find("conv") != -1
] # Displaying only conv layers
# All evaluation functions (used to call the model up to each layer)
functors = [K.function([inp], [out]) for out in outputs]
# Outputs for every intermediate layer
layer_outs = [func([X]) for func in functors]
for layer_to_plot in range(0, len(outputs)):
title = F'Layer {layer_to_plot}_{outputs[layer_to_plot].name}. {c_file}_{start_row:03d}_{start_col:03d}'
file_name = F'{c_file}_{start_row:03d}_{start_col:03d}_lay_{layer_to_plot}'
plot_intermediate_2dcnn_feature_map(
layer_outs[layer_to_plot][0],
input_data=X_nan,
desired_output_data=Y_nan,
nn_output_data=output_nn,
input_fields=model_field_names + obs_field_names +
var_field_names,
title=title,
output_folder=output_folder,
file_name=file_name,
disp_images=False)
def plot_raw_data_new(proc_id):
"""
This code makes two plots: 1) model and increment 2) model, increment and observations
Depending on which plot you want to make, it reads field_names and fields_names_obs from the PreprocConfig file
:param proc_id:
:return:
"""
config = get_preproc_config()
input_folder_tsis = config[PreprocParams.input_folder_tsis]
input_folder_forecast = config[PreprocParams.input_folder_hycom]
input_folder_obs = config[PreprocParams.input_folder_obs]
output_folder = config[PreprocParams.imgs_output_folder]
YEARS = config[PreprocParams.YEARS]
MONTHS = config[PreprocParams.MONTHS]
fields = config[PreprocParams.fields_names]
fields_obs = config[PreprocParams.fields_names_obs]
plot_modes = config[PreprocParams.plot_modes_per_field]
layers = config[PreprocParams.layers_to_plot]
img_viz = EOAImageVisualizer(output_folder=output_folder,
disp_images=False)
# Iterate current year
for c_year in YEARS:
# Iterate current month
for c_month in MONTHS:
try:
days_of_month, days_of_year = get_days_from_month(c_month)
# Reads the data (DA, Free run, and observations)
increment_files, increment_paths = get_hycom_file_name(
input_folder_tsis, c_year, c_month)
hycom_files, hycom_paths = get_hycom_file_name(
input_folder_forecast, c_year, c_month, day_idx=2)
obs_files, obs_paths = get_obs_file_names(
input_folder_obs, c_year, c_month)
except Exception as e:
print(F"Failed to find any file for date {c_year}-{c_month}")
continue
# This for is fixed to be able to run in parallel
for c_day_of_month, c_day_of_year in enumerate(days_of_year):
if (c_day_of_month % NUM_PROC) == proc_id:
# Makes regular expression of the current desired file
re_tsis = F'incupd.{c_year}_{c_day_of_year:03d}\S*.a'
re_hycom = F'020_archv.{c_year}_{c_day_of_year:03d}\S*.a'
# re_hycom = F'archv.{c_year}_{c_day_of_year:03d}\S*.a'
# re_obs = F'tsis_obs_ias_{c_year}{c_month:02d}{c_day_of_month+1:02d}\S*.nc'
re_obs = F'tsis_obs_gomb4_{c_year}{c_month:02d}{c_day_of_month+1:02d}\S*.nc'
try:
# Gets the proper index of the file for the three cases
increment_file_idx = [
i for i, file in enumerate(increment_files)
if re.search(re_tsis, file) != None
][0]
hycom_file_idx = [
i for i, file in enumerate(hycom_files)
if re.search(re_hycom, file) != None
][0]
obs_file_idx = [
i for i, file in enumerate(obs_files)
if re.search(re_obs, file) != None
][0]
except Exception as e:
print(
F"ERROR: The file for date {c_year} - {c_month} - {(c_day_of_month+1)} doesn't exist: {e}"
)
continue
print(
F" =============== Working with: {increment_files[increment_file_idx]} ============= "
)
print(
F"Available fields on increment: {read_field_names(increment_paths[increment_file_idx])}"
)
print(
F"Available fields on model: {read_field_names(hycom_paths[hycom_file_idx])}"
)
ds = xr.open_dataset(obs_paths[obs_file_idx])
print(
F"Available fields on observations: {print(list(ds.keys()))}"
)
model_state_np_fields = read_hycom_fields(
hycom_paths[hycom_file_idx], fields, layers=layers)
increment_np_fields = read_hycom_fields(
increment_paths[increment_file_idx],
fields,
layers=layers)
# obs_np_fields = read_netcdf(obs_paths[obs_file_idx], fields_obs, rename_fields=fields)
obs_np_fields = read_netcdf(obs_paths[obs_file_idx],
fields_obs)
# Iterate over the fields defined in PreprocConfig and plot them
for idx_field, c_field_name in enumerate(fields):
increment_np_c_field = increment_np_fields[
c_field_name]
nan_indx = increment_np_c_field == 0
increment_np_c_field[nan_indx] = np.nan
model_state_np_c_field = model_state_np_fields[
c_field_name]
# diff_increment_vs_fo = increment_np_c_field - model_state_np_c_field
# In these 2 cases, we only compute it for the surface layer
# diff_obs_vs_hycom = obs_np_c_field - model_state_np_c_field[0]
# obs_np_c_field[502,609] - model_state_np_c_field[0][502,609]
# diff_obs_vs_da = obs_np_c_field - increment_np_c_field[0]
# mse_hycom_vs_da = mse(increment_np_c_field, model_state_np_c_field)
# mse_obs_vs_hycom = mse(obs_np_c_field, model_state_np_c_field[0])
# mse_obs_vs_da = mse(obs_np_c_field, increment_np_c_field[0])
if c_field_name == "thknss":
divide = 9806
model_state_np_c_field = model_state_np_c_field / divide
increment_np_c_field = increment_np_c_field / divide
if c_field_name == "srfhgt":
inc = increment_np_c_field
else:
inc = (model_state_np_c_field -
increment_np_c_field)
# ======================= Only Background state and TSIS increment ==================
try:
title = F"{c_field_name} {c_year}_{c_month:02d}_{(c_day_of_month+1):02d}"
img_viz.plot_3d_data_np(
[model_state_np_c_field, inc],
# img_viz.plot_3d_data_np([model_state_np_c_field, increment_np_c_field],
var_names=['HYCOM', 'Increment (TSIS)'],
title=title,
file_name_prefix=
F'ModelAndIncrement_{c_field_name}_{c_year}_{c_month:02d}_{(c_day_of_month+1):02d}',
z_lavels_names=layers,
flip_data=True,
plot_mode=plot_modes[idx_field])
except Exception as e:
print(F"Failed for field: {c_field_name}: {e}")
def plot_raw_data(proc_id):
"""
Makes images of the available data (Free run, DA and Observations)
:param proc_id:
:return:
"""
config = get_preproc_config()
input_folder_tsis = config[PreprocParams.input_folder_tsis]
input_folder_forecast = config[PreprocParams.input_folder_hycom]
input_folder_obs = config[PreprocParams.input_folder_obs]
output_folder = config[PreprocParams.imgs_output_folder]
YEARS = config[PreprocParams.YEARS]
MONTHS = config[PreprocParams.MONTHS]
fields = config[PreprocParams.fields_names]
fields_obs = config[PreprocParams.fields_names_obs]
plot_modes = config[PreprocParams.plot_modes_per_field]
layers = config[PreprocParams.layers_to_plot]
img_viz = EOAImageVisualizer(output_folder=output_folder,
disp_images=False)
# Iterate current year
for c_year in YEARS:
# Iterate current month
for c_month in MONTHS:
try:
days_of_month, days_of_year = get_days_from_month(c_month)
# Reads the data (DA, Free run, and observations)
increment_files, increment_paths = get_hycom_file_name(
input_folder_tsis, c_year, c_month)
hycom_files, hycom_paths = get_hycom_file_name(
input_folder_forecast, c_year, c_month)
obs_files, obs_paths = get_obs_file_names(
input_folder_obs, c_year, c_month)
except Exception as e:
print(F"Failed to find any file for date {c_year}-{c_month}")
continue
# This for is fixed to be able to run in parallel
for c_day_of_month, c_day_of_year in enumerate(days_of_year):
if (c_day_of_month % NUM_PROC) == proc_id:
# Makes regular expression of the current desired file
re_tsis = F'incupd.{c_year}_{c_day_of_year:03d}\S*.a'
re_hycom = F'archv.{c_year}_{c_day_of_year:03d}\S*.a'
re_obs = F'tsis_obs_ias_{c_year}{c_month:02d}{c_day_of_month+1:02d}\S*.nc'
try:
# Gets the proper index of the file for the three cases
increment_file_idx = [
i for i, file in enumerate(increment_files)
if re.search(re_tsis, file) != None
][0]
hycom_file_idx = [
i for i, file in enumerate(hycom_files)
if re.search(re_hycom, file) != None
][0]
obs_file_idx = [
i for i, file in enumerate(obs_files)
if re.search(re_obs, file) != None
][0]
except Exception as e:
print(
F"ERROR: The file for date {c_year} - {c_month} - {(c_day_of_month+1)} doesn't exist: {e}"
)
continue
print(
F" =============== Working with: {increment_files[increment_file_idx]} ============= "
)
print(
F"Available fields on increment: {read_field_names(increment_paths[increment_file_idx])}"
)
increment_np_fields = read_hycom_fields(
increment_paths[increment_file_idx],
fields,
layers=layers)
model_state_np_fields = read_hycom_fields(
hycom_paths[hycom_file_idx], fields, layers=layers)
obs_np_fields = read_netcdf(obs_paths[obs_file_idx],
fields_obs,
layers=[0],
rename_fields=fields)
for idx_field, c_field_name in enumerate(fields):
increment_np_c_field = increment_np_fields[
c_field_name]
nan_indx = increment_np_c_field == 0
increment_np_c_field[nan_indx] = np.nan
model_state_np_c_field = model_state_np_fields[
c_field_name]
obs_np_c_field = obs_np_fields[c_field_name]
# diff_increment_vs_fo = increment_np_c_field - model_state_np_c_field
# In these 2 cases, we only compute it for the surface layer
# diff_obs_vs_hycom = obs_np_c_field - model_state_np_c_field[0]
obs_np_c_field[502,
609] - model_state_np_c_field[0][502,
609]
# diff_obs_vs_da = obs_np_c_field - increment_np_c_field[0]
# mse_hycom_vs_da = mse(increment_np_c_field, model_state_np_c_field)
# mse_obs_vs_hycom = mse(obs_np_c_field, model_state_np_c_field[0])
# mse_obs_vs_da = mse(obs_np_c_field, increment_np_c_field[0])
title = F"{c_field_name} {c_year}_{c_month:02d}_{(c_day_of_month+1):02d}"
# ======================= Only Fredatae HYCOM, TSIS, Observations ==================
img_viz.plot_3d_data_np(
[
np.expand_dims(obs_np_c_field, 0),
model_state_np_c_field, increment_np_c_field
],
var_names=[
F'Observations', 'HYCOM', 'Increment (TSIS)'
],
title=title,
file_name_prefix=
F'Summary_{c_field_name}_{c_year}_{c_month:02d}_{(c_day_of_month+1):02d}',
z_lavels_names=layers,
flip_data=True,
plot_mode=plot_modes[idx_field])
import matplotlib.pyplot as plt
from inout.io_netcdf import read_netcdf
import numpy as np
import matplotlib.patches as patches
from os.path import join
import os
input_folder = "/home/olmozavala/Dropbox/MyProjects/EOAS/COAPS/MURI_AI_Ocean/Data_Assimilation/HYCOM-TSIS/testdata"
input_file = "model_2009_205.nc"
data = read_netcdf(join(input_folder, input_file), ["temp"])
fig, ax = plt.subplots()
ax.imshow(np.flip(data["temp"], axis=0))
print(data["temp"].shape)
found = 0
while found < 20:
row = np.random.randint(0, 891)
col = np.random.randint(0, 1401)
ldata = data["temp"][row:row + 160, col:col + 160]
if len(ldata[ldata.mask]) == 0:
# Create a Rectangle patch
print(F"Adding at: row:{row}-{row+160} and col:{col}-{col+160}")
if row > 445:
rect = patches.Rectangle((col, int(np.abs(445 - row))),
160,
160,
linewidth=1,
edgecolor='r',
def test_model(config):
input_folder = config[PredictionParams.input_folder]
output_folder = config[PredictionParams.output_folder]
output_fields = config[ProjTrainingParams.output_fields]
model_weights_file = config[PredictionParams.model_weights_file]
output_imgs_folder = config[PredictionParams.output_imgs_folder]
field_names_model = config[ProjTrainingParams.fields_names]
field_names_obs = config[ProjTrainingParams.fields_names_obs]
rows = config[ProjTrainingParams.rows]
cols = config[ProjTrainingParams.cols]
run_name = config[TrainingParams.config_name]
norm_type = config[ProjTrainingParams.norm_type]
output_imgs_folder = join(output_imgs_folder, run_name)
create_folder(output_imgs_folder)
# *********** Chooses the proper model ***********
print('Reading model ....')
net_type = config[ProjTrainingParams.network_type]
if net_type == NetworkTypes.UNET or net_type == NetworkTypes.UNET_MultiStream:
model = select_2d_model(config, last_activation=None)
if net_type == NetworkTypes.SimpleCNN_2:
model = simpleCNN(config, nn_type="2d", hid_lay=2, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_4:
model = simpleCNN(config, nn_type="2d", hid_lay=4, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_8:
model = simpleCNN(config, nn_type="2d", hid_lay=8, out_lay=2)
if net_type == NetworkTypes.SimpleCNN_16:
model = simpleCNN(config, nn_type="2d", hid_lay=16, out_lay=2)
plot_model(model,
to_file=join(output_folder, F'running.png'),
show_shapes=True)
# *********** Reads the weights***********
print('Reading weights ....')
model.load_weights(model_weights_file)
# *********** Read files to predict***********
all_files = os.listdir(input_folder)
all_files.sort()
model_files = np.array([x for x in all_files if x.startswith('model')])
z_layers = [0]
var_file = join(input_folder, "cov_mat", "tops_ias_std.nc")
field_names_std = config[ProjTrainingParams.fields_names_var]
if len(field_names_std) > 0:
input_fields_std = read_netcdf(var_file, field_names_std, z_layers)
else:
input_fields_std = []
cmap_out = chooseCMAP(output_fields)
cmap_model = chooseCMAP(field_names_model)
cmap_obs = chooseCMAP(field_names_obs)
cmap_std = chooseCMAP(field_names_std)
tot_rows = 891
tot_cols = 1401
all_whole_mean_times = []
all_whole_sum_times = []
all_whole_rmse = []
# np.random.shuffle(model_files) # TODO this is only for testing
for id_file, c_file in enumerate(model_files):
# Find current and next date
year = int(c_file.split('_')[1])
day_of_year = int(c_file.split('_')[2].split('.')[0])
model_file = join(input_folder, F'model_{year}_{day_of_year:03d}.nc')
inc_file = join(input_folder, F'increment_{year}_{day_of_year:03d}.nc')
obs_file = join(input_folder, F'obs_{year}_{day_of_year:03d}.nc')
# *********************** Reading files **************************
input_fields_model = read_netcdf(model_file, field_names_model,
z_layers)
input_fields_obs = read_netcdf(obs_file, field_names_obs, z_layers)
output_field_increment = read_netcdf(inc_file, output_fields, z_layers)
# ******************* Normalizing and Cropping Data *******************
this_file_times = []
try:
perc_ocean = .01
input_data, y_data = generateXandY(input_fields_model,
input_fields_obs,
input_fields_std,
output_field_increment,
field_names_model,
field_names_obs,
field_names_std,
output_fields,
0,
0,
grows,
gcols,
norm_type=norm_type,
perc_ocean=perc_ocean)
except Exception as e:
print(F"Exception {e}")
# ******************* Replacing nan values *********
# We set a value of 0.5 on the land. Trying a new loss function that do not takes into account land
input_data_nans = np.isnan(input_data)
input_data = np.nan_to_num(input_data, nan=0)
y_data = np.nan_to_num(y_data, nan=-0.5)
X = np.expand_dims(input_data, axis=0)
Y = np.expand_dims(y_data, axis=0)
# Make the prediction of the network
start = time.time()
output_nn_original = model.predict(X, verbose=1)
toc = time.time() - start
this_file_times.append(toc)
# Make nan all values inside the land
land_indexes = Y == -0.5
output_nn_original[land_indexes] = np.nan
# ==== Denormalizingallinput and outputs
denorm_cnn_output = denormalizeData(output_nn_original, output_fields,
PreprocParams.type_inc, norm_type)
denorm_y = denormalizeData(Y, output_fields, PreprocParams.type_inc,
norm_type)
input_types = [PreprocParams.type_model
for i in input_fields_model] + [
PreprocParams.type_obs for i in input_fields_obs
] + [PreprocParams.type_std for i in input_fields_std]
denorm_input = denormalizeData(
input_data, field_names_model + field_names_obs + field_names_std,
input_types, norm_type)
# Recover the original land areas, they are lost after denormalization
denorm_y[land_indexes] = np.nan
# Remove the 'extra dimension'
denorm_cnn_output = np.squeeze(denorm_cnn_output)
denorm_y = np.squeeze(denorm_y)
whole_cnn = denorm_cnn_output # Add the the 'whole prediction'
whole_y = denorm_y # Add the the 'whole prediction'
if len(
denorm_cnn_output.shape
) == 2: # In this case we only had one output and we need to make it 'array' to plot
denorm_cnn_output = np.expand_dims(denorm_cnn_output, axis=2)
denorm_y = np.expand_dims(denorm_y, axis=2)
# Compute RMSE
# rmse_cnn = np.zeros(len(output_fields))
# for i in range(len(output_fields)):
# ocean_indexes = np.logical_not(np.isnan(denorm_y[:,:,i]))
# rmse_cnn[i] = np.sqrt(mean_squared_error(denorm_cnn_output[:,:,i][ocean_indexes], denorm_y[:,:,i][ocean_indexes]))
# ================== DISPLAYS ALL INPUTS AND OUTPUTS DENORMALIZED ===================
# Adding back mask to all the input variables
denorm_input[input_data_nans] = np.nan
# ======= Plots whole output with RMSE
mincbar = np.nanmin(whole_y)
maxcbar = np.nanmax(whole_y)
error = whole_y - whole_cnn
mincbarerror = np.nanmin(error)
maxcbarerror = np.nanmax(error)
no_zero_ids = np.count_nonzero(whole_cnn)
if output_fields[
0] == 'srfhgt': # This should only be for SSH to adjust the units
whole_cnn /= 9.81
whole_y = np.array(whole_y) / 9.81
rmse_cnn = np.sqrt(np.nansum((whole_y - whole_cnn)**2) / no_zero_ids)
all_whole_rmse.append(rmse_cnn)
all_whole_mean_times.append(np.mean(np.array(this_file_times)))
all_whole_sum_times.append(np.sum(np.array(this_file_times)))
# if day_of_year == 353: # Plot 10% of the times
if True: # Plot 10% of the times
# viz_obj = EOAImageVisualizer(output_folder=output_imgs_folder, disp_images=False, mincbar=mincbar, maxcbar=maxcbar)
viz_obj = EOAImageVisualizer(output_folder=output_imgs_folder,
disp_images=False)
# viz_obj.plot_2d_data_np_raw(np.concatenate((input_data.swapaxes(0,2), Y[0,:,:,:].swapaxes(0,2), output_nn_original[0,:,:,:].swapaxes(0,2))),
viz_obj.plot_2d_data_np_raw(
np.concatenate(
(denorm_input.swapaxes(0, 2), denorm_y.swapaxes(0, 2),
denorm_cnn_output.swapaxes(0, 2))),
var_names=[F"in_model_{x}" for x in field_names_model] +
[F"in_obs_{x}" for x in field_names_obs] +
[F"in_var_{x}" for x in field_names_std] +
[F"out_inc_{x}"
for x in output_fields] + [F"cnn_{x}" for x in output_fields],
file_name=F"Global_Input_and_CNN_{c_file}",
rot_90=True,
cmap=cmap_model + cmap_obs + cmap_std + cmap_out + cmap_out,
cols_per_row=len(field_names_model),
title=
F"Input data: {field_names_model} and obs {field_names_obs}, increment {output_fields}, cnn {output_fields}"
)
minmax = getMinMaxPlot(output_fields)[0]
viz_obj = EOAImageVisualizer(
output_folder=output_imgs_folder,
disp_images=False,
# mincbar=mincbar + mincbar + mincbarerror,
# maxcbar=maxcbar + maxcbar + maxcbarerror)
# mincbar=[minmax[0], minmax[0], max(minmax[0],-1)],
# maxcbar=[minmax[1], minmax[1], min(minmax[1],1)])
mincbar=[minmax[0], minmax[0], -1],
maxcbar=[minmax[1], minmax[1], 1])
# ================== Displays CNN and TSIS with RMSE ================
error_cmap = cmocean.cm.diff
viz_obj.output_folder = join(output_imgs_folder,
'WholeOutput_CNN_TSIS')
viz_obj.plot_2d_data_np_raw(
[
np.flip(whole_cnn, axis=0),
np.flip(whole_y, axis=0),
np.flip(error, axis=0)
],
# var_names=[F"CNN INC {x}" for x in output_fields] + [F"TSIS INC {x}" for x in output_fields] + [F'TSIS - CNN (Mean RMSE {rmse_cnn:0.4f} m)'],
var_names=[F"CNN increment SSH" for x in output_fields] +
[F"TSIS increment SSH" for x in output_fields] +
[F'TSIS - CNN \n (Mean RMSE {rmse_cnn:0.4f} m)'],
file_name=F"Global_WholeOutput_CNN_TSIS_{c_file}",
rot_90=False,
cmap=cmap_out + cmap_out + [error_cmap],
cols_per_row=3,
# title=F"{output_fields[0]} RMSE: {np.mean(rmse_cnn):0.5f} m.")
title=F"SSH RMSE: {np.mean(rmse_cnn):0.5f} m.")
print("DONE ALL FILES!!!!!!!!!!!!!")
dic_summary = {
"File": model_files,
"rmse": all_whole_rmse,
"times mean": all_whole_mean_times,
"times sum": all_whole_sum_times,
}
df = pd.DataFrame.from_dict(dic_summary)
df.to_csv(join(output_imgs_folder, "Global_RMSE_and_times.csv"))
def data_gen_hycomtsis(paths,
file_names,
obs_path,
field_names,
obs_field_names,
output_field,
days_separation=1,
z_layers=[0]):
"""
This generator should generate X and Y for a CNN
:param path:
:param file_names:
:return:
"""
ex_id = -1
ids = np.arange(len(file_names))
while True:
# These lines are for sequential selection
if ex_id < (len(ids) - 1):
ex_id += 1
else:
ex_id = 0
np.random.shuffle(
ids
) # We shuffle the folders every time we have tested all the examples
file_name = join(paths[ex_id], file_names[ex_id])
date_str = file_names[ex_id].split('.')[1] # This should be the date
date_array = date_str.split('_')
year = int(date_array[0])
day_of_year = int(date_array[1])
month, day_month = get_month_and_day_of_month_from_day_of_year(
day_of_year, year)
# Verify next time exist
cur_date = date(year, month, day_month)
desired_date = date(year, month,
day_month) + timedelta(days=days_separation)
desired_file_name = F'archv.{desired_date.year}_{get_day_of_year_from_month_and_day(desired_date.month, desired_date.day):03d}_00.a'
if not (exists(join(paths[ex_id], desired_file_name))):
print(F"Warning! File {desired_file_name} doesn't exist")
continue
# try:
# *********************** Reading DA files **************************
input_fields_da = read_hycom_output(file_name,
field_names,
layers=z_layers)
output_field_da = read_hycom_output(join(paths[ex_id],
desired_file_name),
[output_field],
layers=z_layers)
# *********************** Reading Obs file **************************
# TODO Hardcoded text "WITH_PIES"
obs_file_name = join(
obs_path, "WITH_PIES",
F"tsis_obs_ias_{desired_date.year}{desired_date.month:02d}{desired_date.day:02d}00.nc"
)
if not (exists(obs_file_name)):
print(F"Warning! Observation file doesn't exist {obs_file_name}")
continue
# ******************* Normalizing and Cropping Data *******************
# TODO hardcoded dimensions and cropping code
input_fields_obs = read_netcdf(obs_file_name, obs_field_names,
z_layers)
# dims = input_fields_da[field_names[0]].shape
rows = 888
cols = 1400
num_fields = 8
data_cube = np.zeros((rows, cols, num_fields))
id_field = 0
for c_field in field_names:
# data_cube[id_field, :, :] = input_fields_da[c_field][0, :, :]
data_cube[:, :,
id_field] = (input_fields_da[c_field][0, :rows, :cols] -
MIN_DA[c_field]) / MAX_DA[c_field]
id_field += 1
for c_field in obs_field_names:
# if len(input_fields_obs[c_field].shape) == 3:
# data_cube[id_field, :, :] = input_fields_obs[c_field][0, :, :]
# data_cube[:, :, id_field] = input_fields_obs[c_field][0, :rows, :cols]
if len(input_fields_obs[c_field].shape) == 2:
# data_cube[id_field, :, :] = input_fields_obs[c_field][:, :]
data_cube[:, :,
id_field] = (input_fields_obs[c_field][:rows, :cols]
- MIN_OBS[c_field]) / MAX_OBS[c_field]
id_field += 1
# ******************* Replacing nan values *********
# Only use slices that have data (lesion inside)
X = np.expand_dims(data_cube, axis=0)
Y = np.expand_dims(np.expand_dims(
output_field_da[output_field][0, :rows, :cols], axis=2),
axis=0)
X = np.nan_to_num(X, nan=-1)
Y = np.nan_to_num(Y, nan=-1)
# img_viz.plot_3d_data_singlevar_np(np.swapaxes(np.swapaxes(X[0],0,2), 1,2),
# z_levels=range(len(field_names+obs_field_names)),
# title='Input NN',
# file_name_prefix=F'{year}_{month:02d}_{day_month:02d}',
# flip_data=True)
#
# img_viz.plot_3d_data_singlevar_np(np.swapaxes(np.swapaxes(Y[0],0,2), 1,2),
# z_levels=[0],
# title='Input NN',
# file_name_prefix=F'output_{year}_{month:02d}_{day_month:02d}',
# flip_data=True)
yield X, Y
def ComputeOverallMinMaxVar():
"""
Computes the mean, max and variance for all the fields in the files
:return:
"""
config = get_training_2d()
input_folder = config[ProjTrainingParams.input_folder_preproc]
fields = config[ProjTrainingParams.fields_names]
fields_obs = config[ProjTrainingParams.fields_names_obs]
max_values_model = {field: 0 for field in fields}
min_values_model = {field: 10**5 for field in fields}
max_values_obs = {field: 0 for field in fields_obs}
min_values_obs = {field: 10**5 for field in fields_obs}
max_values_inc = {field: 0 for field in fields}
min_values_inc = {field: 10**5 for field in fields}
mean_values_model = {field: 0 for field in fields}
mean_values_obs = {field: 0 for field in fields_obs}
mean_values_inc = {field: 0 for field in fields}
var_values_model = {field: 0 for field in fields}
var_values_obs = {field: 0 for field in fields_obs}
var_values_inc = {field: 0 for field in fields}
# These are the data assimilated files
all_files = os.listdir(input_folder)
all_files.sort()
model_files = np.array([x for x in all_files if x.startswith('model')])
model_files.sort()
# model_files = model_files[55:58]
tot_files = len(model_files)
# Iterate over all the model files
for id_file, c_file in enumerate(model_files):
print(F"Working with {c_file}")
# Find current and next date
year = int(c_file.split('_')[1])
day_of_year = int(c_file.split('_')[2].split('.')[0])
model_file = join(input_folder, F'model_{year}_{day_of_year:03d}.nc')
inc_file = join(input_folder, F'increment_{year}_{day_of_year:03d}.nc')
obs_file = join(input_folder, F'obs_{year}_{day_of_year:03d}.nc')
# *********************** Reading files **************************
z_layers = [0]
input_fields_model = read_netcdf(model_file, fields, z_layers)
input_fields_obs = read_netcdf(obs_file, fields_obs, z_layers)
output_field_increment = read_netcdf(inc_file, fields, z_layers)
# =============== Computing max values for the model
for idx_field, c_field_name in enumerate(fields):
da_np_c_field = input_fields_model[c_field_name]
# Computing mean also
mean_values_model[c_field_name] += np.nanmean(
da_np_c_field) / tot_files
c_max = np.nanmax(da_np_c_field)
c_min = np.nanmin(da_np_c_field)
if c_max >= max_values_model[c_field_name]:
max_values_model[c_field_name] = c_max
if c_min <= min_values_model[c_field_name]:
min_values_model[c_field_name] = c_min
# print(F"Cur max for model: {max_values_model}")
# print(F"Cur max for model: {min_values_model}")
# =============== Computing max values for the observations
for idx_field, c_field_name in enumerate(fields_obs):
da_np_c_field = input_fields_obs[c_field_name]
# We needed to add this try because in some cases there are none observations, like in day 245
try:
mean_values_obs[c_field_name] += np.nanmean(
da_np_c_field) / tot_files
except Exception as e:
mean_values_obs[c_field_name] += 0
print(F' {c_file}:{c_field_name}: {mean_values_obs[c_field_name]}')
c_max = np.nanmax(da_np_c_field)
c_min = np.nanmin(da_np_c_field)
if c_max >= max_values_obs[c_field_name]:
max_values_obs[c_field_name] = c_max
if c_min <= min_values_obs[c_field_name]:
min_values_obs[c_field_name] = c_min
# print(F"Cur max for obs: {max_values_obs}")
# print(F"Cur min for obs: {min_values_obs}")
# =============== Computing max values for the increment
for idx_field, c_field_name in enumerate(fields):
da_np_c_field = output_field_increment[c_field_name]
# Computing mean also
mean_values_inc[c_field_name] += np.nanmean(
da_np_c_field) / tot_files
c_max = np.nanmax(da_np_c_field)
c_min = np.nanmin(da_np_c_field)
if c_max >= max_values_inc[c_field_name]:
max_values_inc[c_field_name] = c_max
if c_min <= min_values_inc[c_field_name]:
min_values_inc[c_field_name] = c_min
# print(F"Cur max for inc: {max_values_inc}")
# print(F"Cur min for inc: {min_values_inc}")
# Computing STD
print("=============================== Computing Variance....")
for id_file, c_file in enumerate(model_files):
print(F"Working with {c_file}")
# Find current and next date
year = int(c_file.split('_')[1])
day_of_year = int(c_file.split('_')[2].split('.')[0])
model_file = join(input_folder, F'model_{year}_{day_of_year:03d}.nc')
inc_file = join(input_folder, F'increment_{year}_{day_of_year:03d}.nc')
obs_file = join(input_folder, F'obs_{year}_{day_of_year:03d}.nc')
# *********************** Reading files **************************
z_layers = [0]
input_fields_model = read_netcdf(model_file, fields, z_layers)
input_fields_obs = read_netcdf(obs_file, fields_obs, z_layers)
output_field_increment = read_netcdf(inc_file, fields, z_layers)
# =============== Computing max values for the model
for idx_field, c_field_name in enumerate(fields):
da_np_c_field = input_fields_model[c_field_name]
var_values_model[c_field_name] += np.nanmean(
(da_np_c_field - mean_values_model[c_field_name])**
2) / tot_files
# =============== Computing max values for the observations
for idx_field, c_field_name in enumerate(fields_obs):
da_np_c_field = input_fields_obs[c_field_name]
data = (da_np_c_field[:].filled(np.nan) -
mean_values_obs[c_field_name])**2
if (np.logical_not(np.isnan(data)).any()):
var_values_obs[c_field_name] += np.nanmean(data) / tot_files
# print(F' {c_file}:{c_field_name}: {var_values_obs[c_field_name]}')
# =============== Computing max values for the increment
for idx_field, c_field_name in enumerate(fields):
da_np_c_field = output_field_increment[c_field_name]
var_values_inc[c_field_name] += np.nanmean(
(da_np_c_field - mean_values_inc[c_field_name])**2) / tot_files
print("----------------- Model --------------------")
f = open("MIN_MAX_MEAN_STD.csv", 'w')
text = F"TYPE,Field,MIN,MAX,MEAN,VARIANCE,STD\n"
f.write(text)
for c_field_name in fields:
text = F"MODEL,{c_field_name}, {min_values_model[c_field_name]:0.6f}, {max_values_model[c_field_name]:0.6f}, " \
F" {mean_values_model[c_field_name]:0.6f}, {var_values_model[c_field_name]: 0.6f}, {np.sqrt(var_values_model[c_field_name]): 0.6f}\n"
f.write(text)
print(text)
print("----------------- Observations --------------------")
for c_field_name in fields_obs:
text = F"OBS,{c_field_name}, {min_values_obs[c_field_name]:0.6f}, {max_values_obs[c_field_name]:0.6f}, " \
F" {mean_values_obs[c_field_name]:0.6f}, {var_values_obs[c_field_name]: 0.6f}, {np.sqrt(var_values_obs[c_field_name]): 0.6f}\n"
f.write(text)
print(text)
print("----------------- Increment --------------------")
for c_field_name in fields:
text = F"INC,{c_field_name}, {min_values_inc[c_field_name]:0.6f}, {max_values_inc[c_field_name]:0.6f}," \
F" {mean_values_inc[c_field_name]:0.6f}, {var_values_inc[c_field_name]: 0.6f}, {np.sqrt(var_values_inc[c_field_name]): 0.6f}\n"
f.write(text)
print(text)
f.close()
