added fall long case, script for plain xgb model

src/analysis/make_models_scaling.py

@@ -2,12 +2,8 @@
 import numpy as np
 import pandas as pd
 import config as cfg
-import xgboost as xgb
-from sklearn.metrics import accuracy_score
 from sklearn.preprocessing import StandardScaler, MinMaxScaler
 from sklearn.preprocessing import RobustScaler, MaxAbsScaler, QuantileTransformer
-from sklearn.metrics import roc_auc_score, precision_score, recall_score
-from sklearn.model_selection import train_test_split
 from tools import classifiers, data_loader
 from pathlib import Path
 from sklearn.base import BaseEstimator, TransformerMixin

src/config.py

@@ -30,25 +30,28 @@ CLUSTERS_DIR = Path.joinpath(ROOT_DIR, 'models/clusters')
 COMPLETE_DIR = Path.joinpath(ROOT_DIR, 'models/complete')
 COMPLETE_TF_DIR = Path.joinpath(ROOT_DIR, 'models/complete/tensorflow')
 COMPLETE_XGB_DIR = Path.joinpath(ROOT_DIR, 'models/complete/xgboost')
-COMPLETE_CAT_DIR = Path.joinpath(ROOT_DIR, 'models/complete/catboost')
 COMPLETE_RF_DIR = Path.joinpath(ROOT_DIR, 'models/complete/random_forest')
 COMPLETE_EMB_DIR = Path.joinpath(ROOT_DIR, 'models/complete/embeddings')
 COMPLETE_EMB_FULL_DIR = Path.joinpath(ROOT_DIR, 'models/complete/embeddings_full')
-FALL_DIR = Path.joinpath(ROOT_DIR, 'models/fall')
-FALL_TF_DIR = Path.joinpath(ROOT_DIR, 'models/fall/tensorflow')
-FALL_XGB_DIR = Path.joinpath(ROOT_DIR, 'models/fall/xgboost')
-FALL_CAT_DIR = Path.joinpath(ROOT_DIR, 'models/fall/catboost')
-FALL_RF_DIR = Path.joinpath(ROOT_DIR, 'models/fall/random_forest')
-FALL_EMB_DIR = Path.joinpath(ROOT_DIR, 'models/fall/embeddings')
-SUCCESS_DIR = Path.joinpath(ROOT_DIR, 'models/success')
-SUCCESS_TF_DIR = Path.joinpath(ROOT_DIR, 'models/success/tensorflow')
-SUCCESS_XGB_DIR = Path.joinpath(ROOT_DIR, 'models/success/xgboost')
-SUCCESS_CAT_DIR = Path.joinpath(ROOT_DIR, 'models/success/catboost')
-SUCCESS_RF_DIR = Path.joinpath(ROOT_DIR, 'models/success/random_forest')
-SUCCESS_EMB_DIR = Path.joinpath(ROOT_DIR, 'models/success/embeddings')
+COMPLIANCE_DIR = Path.joinpath(ROOT_DIR, 'models/compliance')
+COMPLIANCE_TF_DIR = Path.joinpath(ROOT_DIR, 'models/compliance/tensorflow')
+COMPLIANCE_XGB_DIR = Path.joinpath(ROOT_DIR, 'models/compliance/xgboost')
+COMPLIANCE_RF_DIR = Path.joinpath(ROOT_DIR, 'models/compliance/random_forest')
+COMPLIANCE_EMB_DIR = Path.joinpath(ROOT_DIR, 'models/compliance/embeddings')
+FALL_SHORT_DIR = Path.joinpath(ROOT_DIR, 'models/fall_short')
+FALL_SHORT_TF_DIR = Path.joinpath(ROOT_DIR, 'models/fall_short/tensorflow')
+FALL_SHORT_XGB_DIR = Path.joinpath(ROOT_DIR, 'models/fall_short/xgboost')
+FALL_SHORT_RF_DIR = Path.joinpath(ROOT_DIR, 'models/fall_short/random_forest')
+FALL_SHORT_EMB_DIR = Path.joinpath(ROOT_DIR, 'models/fall_short/embeddings')
+FALL_LONG_DIR = Path.joinpath(ROOT_DIR, 'models/fall_long')
+FALL_LONG_TF_DIR = Path.joinpath(ROOT_DIR, 'models/fall_long/tensorflow')
+FALL_LONG_XGB_DIR = Path.joinpath(ROOT_DIR, 'models/fall_long/xgboost')
+FALL_LONG_RF_DIR = Path.joinpath(ROOT_DIR, 'models/fall_long/random_forest')
+FALL_LONG_EMB_DIR = Path.joinpath(ROOT_DIR, 'models/fall_long/embeddings')
 
 GENERAL_FEATURES = ['Gender', 'Age', 'Cluster']
 ATS_RESOLUTION = 50
+EX_RESOLUTION = 9
 ATS_DELIMITER = 6
 THRESHOLD_WEEKS = 8
 THRESHOLD_TRAINING = 10

src/data/make_dataset.py

-#!/usr/bin/env python
-import config as cfg
-from tools import file_reader, file_writer, feature_maker
-from tools import preprocessor, neural_embedder
-from utility import embedder
-import pandas as pd
-import numpy as np
-from pathlib import Path
-from sklearn.decomposition import PCA
-
-CASES = ["Complete", "Success", "Fall"]
-USE_ATS_NAMES = True
-
-def main():
-    cl = file_reader.read_csv(cfg.INTERIM_DATA_DIR, 'cl.csv',
-                              converters={'CitizenId': str, 'Cluster': int})
-    df = file_reader.read_csv(cfg.INTERIM_DATA_DIR, 'screenings.csv',
-                              converters={'CitizenId': str})
-    fd = file_reader.read_pickle(cfg.INTERIM_DATA_DIR, 'fd.pkl')
-    
-    longterm_fall_df = make_longterm_fall(df, fd)
-    file_writer.write_csv(longterm_fall_df, cfg.PROCESSED_DATA_DIR, f'longterm_fall.csv')
-    
-    for case in CASES:
-        df_full = make_dataset_full(cl, df, case)
-        file_writer.write_csv(df_full, cfg.PROCESSED_DATA_DIR, f'{case.lower()}.csv')
-
-        df_count = make_dataset_count(case)
-        file_writer.write_csv(df_count, cfg.PROCESSED_DATA_DIR, f'{case.lower()}_count.csv')
-        
-        df_emb = make_dataset_emb(case)
-        file_writer.write_csv(df_emb, cfg.PROCESSED_DATA_DIR, f'{case.lower()}_emb.csv')
-
-def make_longterm_fall(df, fd):
-    fd = fd.drop_duplicates(["CitizenId", "Date"])
-    df = preprocessor.split_cat_columns(df, col='Ats', tag='Ats',
-                                    resolution=cfg.ATS_RESOLUTION)
-    
-    df = feature_maker.make_longterm_fall_feature(df, fd)
-    
-    return df
-
-def make_dataset_full(cl: pd.DataFrame, df: pd.DataFrame, case: str):
-    df['Cluster'] = cl['Cluster']
-    df = preprocessor.split_cat_columns(df, col='Ats', tag='Ats',
-                                        resolution=cfg.ATS_RESOLUTION)
-
-    if case == "Complete":
-        df = feature_maker.make_complete_feature(df)
-    elif case == "Success":
-        df = feature_maker.make_success_feature(df)
-    else:
-        df = feature_maker.make_fall_feature(df)
-
-    ats_cols = df.filter(regex='Ats', axis=1)
-    general_cols = df[['Gender', 'BirthYear', 'Cluster', 'LoanPeriod']]
-    df = pd.concat([general_cols, ats_cols, df[[case]]], axis=1)
-    
-    if USE_ATS_NAMES:
-        df = preprocessor.replace_ats_values(df)
-    
-    return df
-
-def make_dataset_count(case: str):
-    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
-    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
-                              f'{case.lower()}.csv',
-                              converters=ats)
-    
-    if USE_ATS_NAMES:
-        cols_ats = [str(i)+'Ats' for i in range(1, cfg.ATS_RESOLUTION+1)]
-        unique_ats = [df[f'{i}Ats'].unique() for i in range(1, cfg.ATS_RESOLUTION+1)]
-        unique_ats = list(set(np.concatenate(unique_ats)))
-        df_ats = preprocessor.extract_cat_count(df, unique_ats, cols_ats, '')
-        df = df.drop(cols_ats, axis=1)
-        df = pd.concat([df.drop(case, axis=1), df_ats, df[[case]]], axis=1)
-        df = df.drop('0', axis=1)
-    else:
-        num_cols = embedder.get_numerical_cols(df, case)
-        cols_ats = [str(i)+'Ats' for i in range(1, cfg.ATS_RESOLUTION+1)]
-        unique_ats = [df[f'{i}Ats'].unique() for i in range(1, cfg.ATS_RESOLUTION+1)]
-        unique_ats = list(set(np.concatenate(unique_ats)))
-        df_ats = preprocessor.extract_cat_count(df, unique_ats, cols_ats, 'Ats_')
-        df = pd.concat([df, df_ats], axis=1)
-        ats_columns = ['Ats_' + ats for ats in unique_ats]
-        df = df[num_cols + ats_columns + [case]]
-        df = df.drop(['Ats_0'], axis=1)
-    return df
-
-def make_dataset_emb(case: str):
-    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
-    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
-                              f'{case.lower()}.csv',
-                              converters=ats)
-
-    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
-    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
-    
-    df_to_enc = df.iloc[:,n_numerical_cols:]
-    target_name = case
-    train_ratio = 0.9
-    
-    X_train, X_val, y_train, y_val, labels = preprocessor.prepare_data_for_embedder(df_to_enc,
-                                                                                    target_name,
-                                                                                    train_ratio)
-    if case == "Complete":
-        artifacts_path = cfg.COMPLETE_EMB_DIR
-        epochs = 5
-    elif case == "Success":
-        artifacts_path = cfg.SUCCESS_EMB_DIR
-        epochs = 5
-    else:
-        artifacts_path = cfg.FALL_EMB_DIR
-        epochs = 20
-
-    params = {"df": df_to_enc,
-            "target_name": target_name,
-            "train_ratio": train_ratio,
-            "network_layers": ([128]),
-            "epochs": epochs,
-            "batch_size": 128,
-            "verbose": False,
-            "artifacts_path": artifacts_path}
-
-    network = neural_embedder.NeuralEmbedder(**params)
-    network.fit(X_train, y_train, X_val, y_val)
-    network.save_model()
-    embedded_weights = network.get_embedded_weights()
-    network.save_weights(embedded_weights)
-    network.save_labels(labels)
-    network.make_visualizations_from_network(extension='png')
-    
-    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
-    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
-    
-    embedded_df = df.iloc[:, n_numerical_cols:df.shape[1]-1]
-    for index in range(embedded_df.shape[1]):
-        column = embedded_df.columns[index]
-        labels_column = labels[index]
-        embeddings_column = embedded_weights[index]
-        pca = PCA(n_components=1)
-        Y = pca.fit_transform(embeddings_column)
-        y_array = np.concatenate(Y)
-        mapping = dict(zip(labels_column.classes_, y_array))
-        file_writer.write_mapping(mapping,
-                                  Path.joinpath(cfg.PROCESSED_DATA_DIR, 'embeddings'),
-                                  f'{case.lower()}_{column}.csv')
-        df[column] = df[column].replace(to_replace=mapping)
-
-    return df
-
-if __name__ == "__main__":
-    main()
\ No newline at end of file

src/data/make_dataset_count.py

+#!/usr/bin/env python
+import config as cfg
+from tools import file_reader, file_writer
+from tools import preprocessor
+from utility import embedder
+import pandas as pd
+import numpy as np
+
+USE_CAT_NAMES = True
+
+def main():
+    make_complete_count()
+    make_compliance_count()
+    make_fall_short_count()
+    make_fall_long_count()
+    
+def make_complete_count():
+    case = 'Complete'
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              f'complete.csv',
+                              converters=ats)
+    
+    cols_ats = [str(i)+'Ats' for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = [df[f'{i}Ats'].unique() for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = list(set(np.concatenate(unique_ats)))
+    df_ats = preprocessor.extract_cat_count(df, unique_ats, cols_ats, '')
+    
+    if USE_CAT_NAMES:
+        df = df.drop(cols_ats, axis=1)
+        df = pd.concat([df.drop(case, axis=1), df_ats, df[[case]]], axis=1)
+        df = df.drop('0', axis=1)
+    else:
+        num_cols = embedder.get_numerical_cols(df, case)
+        df = pd.concat([df, df_ats], axis=1)
+        ats_columns = ['Ats_' + ats for ats in unique_ats]
+        df = df[num_cols + ats_columns + df[[case]]]
+        df = df.drop(['Ats_0'], axis=1)
+
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'complete_count.csv')
+    
+def make_compliance_count():
+    case = 'Compliance'
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              f'compliance.csv',
+                              converters=ats)
+    
+    cols_ats = [str(i)+'Ats' for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = [df[f'{i}Ats'].unique() for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = list(set(np.concatenate(unique_ats)))
+    df_ats = preprocessor.extract_cat_count(df, unique_ats, cols_ats, '')
+    
+    if USE_CAT_NAMES:
+        df = df.drop(cols_ats, axis=1)
+        df = pd.concat([df.drop(case, axis=1), df_ats, df[[case]]], axis=1)
+        df = df.drop('0', axis=1)
+    else:
+        num_cols = embedder.get_numerical_cols(df, case)
+        df = pd.concat([df, df_ats], axis=1)
+        ats_columns = ['Ats_' + ats for ats in unique_ats]
+        df = df[num_cols + ats_columns + df[[case]]]
+        df = df.drop(['Ats_0'], axis=1)
+        
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'compliance_count.csv')
+
+def make_fall_short_count():
+    case = 'FallShort'
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              f'fall_short.csv',
+                              converters=ats)
+    
+    cols_ats = [str(i)+'Ats' for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = [df[f'{i}Ats'].unique() for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = list(set(np.concatenate(unique_ats)))
+    df_ats = preprocessor.extract_cat_count(df, unique_ats, cols_ats, '')
+    
+    if USE_CAT_NAMES:
+        df = df.drop(cols_ats, axis=1)
+        df = pd.concat([df.drop(case, axis=1), df_ats, df[[case]]], axis=1)
+        df = df.drop('0', axis=1)
+    else:
+        num_cols = embedder.get_numerical_cols(df, case)
+        df = pd.concat([df, df_ats], axis=1)
+        ats_columns = ['Ats_' + ats for ats in unique_ats]
+        df = df[num_cols + ats_columns + df[[case]]]
+        df = df.drop(['Ats_0'], axis=1)
+        
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'fall_short_count.csv')
+
+def make_fall_long_count():
+    case = 'FallLong'
+    ex = {str(i)+'Ex':str for i in range(1, cfg.EX_RESOLUTION+1)}
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    converters = {**ex, **ats}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              f'fall_long.csv',
+                              converters=converters)
+    
+    num_cols = embedder.get_numerical_cols(df, case)
+    
+    # Extract exercises
+    cols_ex = [str(i)+'Ex' for i in range(1, cfg.EX_RESOLUTION+1)]
+    unique_ex = [df[f'{i}Ex'].unique() for i in range(1, cfg.EX_RESOLUTION+1)]
+    unique_ex = list(set(np.concatenate(unique_ex)))
+    df_ex = preprocessor.extract_cat_count(df, unique_ex, cols_ex, 'Ex_')
+    
+    # Extract ats
+    cols_ats = [str(i)+'Ats' for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = [df[f'{i}Ats'].unique() for i in range(1, cfg.ATS_RESOLUTION+1)]
+    unique_ats = list(set(np.concatenate(unique_ats)))
+    df_ats = preprocessor.extract_cat_count(df, unique_ats, cols_ats, 'Ats_')
+
+    # Merge dataframes
+    df = pd.concat([df, df_ex, df_ats], axis=1)
+    ex_columns = ['Ex_' + ex for ex in unique_ex]
+    ats_columns = ['Ats_' + ats for ats in unique_ats]
+    df = df[num_cols + ex_columns + ats_columns + [case]]
+    df = df.drop(['Ex_0', 'Ats_0'], axis=1)
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'fall_long_count.csv')
+
+if __name__ == "__main__":
+    main()
\ No newline at end of file

src/data/make_dataset_emb.py

+#!/usr/bin/env python
+import config as cfg
+from tools import file_reader, file_writer, feature_maker
+from tools import preprocessor, neural_embedder
+from utility import embedder
+import pandas as pd
+import numpy as np
+from pathlib import Path
+from sklearn.decomposition import PCA
+
+def main():
+    make_complete_emb()
+    make_compliance_emb()
+    make_fall_short_emb()
+    make_fall_long_emb()
+    
+def make_complete_emb():
+    case = 'Complete'
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              'complete.csv',
+                              converters=ats)
+    
+    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    df_to_enc = df.iloc[:,n_numerical_cols:]
+    target_name = case
+    train_ratio = 0.9
+    
+    X_train, X_val, y_train, y_val, labels = preprocessor.prepare_data_for_embedder(df_to_enc,
+                                                                                    target_name,
+                                                                                    train_ratio)
+    
+    artifacts_path = cfg.COMPLETE_EMB_DIR
+    epochs = 5
+
+    params = {"df": df_to_enc,
+        "target_name": target_name,
+        "train_ratio": train_ratio,
+        "network_layers": ([128]),
+        "epochs": epochs,
+        "batch_size": 128,
+        "verbose": False,
+        "artifacts_path": artifacts_path}
+
+    network = neural_embedder.NeuralEmbedder(**params)
+    network.fit(X_train, y_train, X_val, y_val)
+    network.save_model()
+    embedded_weights = network.get_embedded_weights()
+    network.save_weights(embedded_weights)
+    network.save_labels(labels)
+    network.make_visualizations_from_network(extension='png')
+    
+    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    embedded_df = df.iloc[:, n_numerical_cols:df.shape[1]-1]
+    for index in range(embedded_df.shape[1]):
+        column = embedded_df.columns[index]
+        labels_column = labels[index]
+        embeddings_column = embedded_weights[index]
+        pca = PCA(n_components=1)
+        Y = pca.fit_transform(embeddings_column)
+        y_array = np.concatenate(Y)
+        mapping = dict(zip(labels_column.classes_, y_array))
+        file_writer.write_mapping(mapping,
+                                  Path.joinpath(cfg.PROCESSED_DATA_DIR, 'embeddings'),
+                                  f'complete_{column}.csv')
+        df[column] = df[column].replace(to_replace=mapping)
+
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'complete_emb.csv')
+
+def make_compliance_emb():
+    case = 'Compliance'
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              f'compliance.csv',
+                              converters=ats)
+    
+    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    df_to_enc = df.iloc[:,n_numerical_cols:]
+    target_name = case
+    train_ratio = 0.9
+    
+    X_train, X_val, y_train, y_val, labels = preprocessor.prepare_data_for_embedder(df_to_enc,
+                                                                                    target_name,
+                                                                                    train_ratio)
+    
+    artifacts_path = cfg.COMPLIANCE_EMB_DIR
+    epochs = 5
+
+    params = {"df": df_to_enc,
+        "target_name": target_name,
+        "train_ratio": train_ratio,
+        "network_layers": ([128]),
+        "epochs": epochs,
+        "batch_size": 128,
+        "verbose": False,
+        "artifacts_path": artifacts_path}
+
+    network = neural_embedder.NeuralEmbedder(**params)
+    network.fit(X_train, y_train, X_val, y_val)
+    network.save_model()
+    embedded_weights = network.get_embedded_weights()
+    network.save_weights(embedded_weights)
+    network.save_labels(labels)
+    network.make_visualizations_from_network(extension='png')
+    
+    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    embedded_df = df.iloc[:, n_numerical_cols:df.shape[1]-1]
+    for index in range(embedded_df.shape[1]):
+        column = embedded_df.columns[index]
+        labels_column = labels[index]
+        embeddings_column = embedded_weights[index]
+        pca = PCA(n_components=1)
+        Y = pca.fit_transform(embeddings_column)
+        y_array = np.concatenate(Y)
+        mapping = dict(zip(labels_column.classes_, y_array))
+        file_writer.write_mapping(mapping,
+                                  Path.joinpath(cfg.PROCESSED_DATA_DIR, 'embeddings'),
+                                  f'compliance_{column}.csv')
+        df[column] = df[column].replace(to_replace=mapping)
+
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'compliance_emb.csv')
+
+def make_fall_short_emb():
+    case = 'FallShort'
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              f'fall_short.csv',
+                              converters=ats)
+    
+    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    df_to_enc = df.iloc[:,n_numerical_cols:]
+    target_name = case
+    train_ratio = 0.9
+    
+    X_train, X_val, y_train, y_val, labels = preprocessor.prepare_data_for_embedder(df_to_enc,
+                                                                                    target_name,
+                                                                                    train_ratio)
+    
+    artifacts_path = cfg.FALL_SHORT_EMB_DIR
+    epochs = 5
+
+    params = {"df": df_to_enc,
+        "target_name": target_name,
+        "train_ratio": train_ratio,
+        "network_layers": ([128]),
+        "epochs": epochs,
+        "batch_size": 128,
+        "verbose": False,
+        "artifacts_path": artifacts_path}
+
+    network = neural_embedder.NeuralEmbedder(**params)
+    network.fit(X_train, y_train, X_val, y_val)
+    network.save_model()
+    embedded_weights = network.get_embedded_weights()
+    network.save_weights(embedded_weights)
+    network.save_labels(labels)
+    network.make_visualizations_from_network(extension='png')
+    
+    emb_cols = df.filter(regex='((\d+)[Ats])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    embedded_df = df.iloc[:, n_numerical_cols:df.shape[1]-1]
+    for index in range(embedded_df.shape[1]):
+        column = embedded_df.columns[index]
+        labels_column = labels[index]
+        embeddings_column = embedded_weights[index]
+        pca = PCA(n_components=1)
+        Y = pca.fit_transform(embeddings_column)
+        y_array = np.concatenate(Y)
+        mapping = dict(zip(labels_column.classes_, y_array))
+        file_writer.write_mapping(mapping,
+                                  Path.joinpath(cfg.PROCESSED_DATA_DIR, 'embeddings'),
+                                  f'fall_short_{column}.csv')
+        df[column] = df[column].replace(to_replace=mapping)
+
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'fall_short_emb.csv')
+
+def make_fall_long_emb():
+    case = 'FallLong'
+    ex = {str(i)+'Ex':str for i in range(1, cfg.EX_RESOLUTION+1)}
+    ats = {str(i)+'Ats':str for i in range(1, cfg.ATS_RESOLUTION+1)}
+    converters = {**ex, **ats}
+    df = file_reader.read_csv(cfg.PROCESSED_DATA_DIR,
+                              f'fall_long.csv',
+                              converters=converters)
+    
+    emb_cols = df.filter(regex='((\d+)[Ats|Ex])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    df_to_enc = df.iloc[:,n_numerical_cols:]
+    target_name = case
+    train_ratio = 0.9
+    
+    X_train, X_val, y_train, y_val, labels = preprocessor.prepare_data_for_embedder(df_to_enc,
+                                                                                    target_name,
+                                                                                    train_ratio)
+    
+    artifacts_path = cfg.FALL_LONG_EMB_DIR
+    epochs = 5
+
+    params = {"df": df_to_enc,
+        "target_name": target_name,
+        "train_ratio": train_ratio,
+        "network_layers": ([128]),
+        "epochs": epochs,
+        "batch_size": 128,
+        "verbose": False,
+        "artifacts_path": artifacts_path}
+
+    network = neural_embedder.NeuralEmbedder(**params)
+    network.fit(X_train, y_train, X_val, y_val)
+    network.save_model()
+    embedded_weights = network.get_embedded_weights()
+    network.save_weights(embedded_weights)
+    network.save_labels(labels)
+    network.make_visualizations_from_network(extension='png')
+    
+    emb_cols = df.filter(regex='((\d+)[Ats|Ex])\w+', axis=1)
+    n_numerical_cols = df.shape[1] - emb_cols.shape[1] - 1
+    
+    embedded_df = df.iloc[:, n_numerical_cols:df.shape[1]-1]
+    for index in range(embedded_df.shape[1]):
+        column = embedded_df.columns[index]
+        labels_column = labels[index]
+        embeddings_column = embedded_weights[index]
+        pca = PCA(n_components=1)
+        Y = pca.fit_transform(embeddings_column)
+        y_array = np.concatenate(Y)
+        mapping = dict(zip(labels_column.classes_, y_array))
+        file_writer.write_mapping(mapping,
+                                  Path.joinpath(cfg.PROCESSED_DATA_DIR, 'embeddings'),
+                                  f'fall_long_{column}.csv')
+        df[column] = df[column].replace(to_replace=mapping)
+
+    file_writer.write_csv(df, cfg.PROCESSED_DATA_DIR, 'fall_long_emb.csv')