chore(Linter): reformatted code with black (#211)

* chore(Linter): reformatted code with black

* Create black.yaml
This commit is contained in:
Mark Aron Szulyovszky
2022-02-17 19:22:17 +01:00
committed by GitHub
parent f3fee4a4e1
commit 8dd2d88740
101 changed files with 2595 additions and 2319 deletions
+63 -46
View File
@@ -13,75 +13,92 @@ from transformations.scaler import get_scaler
from transformations.rfe import RFETransformation
from transformations.pca import PCATransformation
def bet_sizing_with_meta_model(
X: XDataFrame,
input_predictions: pd.Series,
y: ySeries,
forward_returns: ForwardReturnSeries,
model: Model,
config: Config,
model_suffix: str,
from_index: Optional[pd.Timestamp],
transformations_over_time: Optional[TransformationsOverTime] = None,
preloaded_models: Optional[ModelOverTime] = None
) -> BetSizingWithMetaOutcome:
X: XDataFrame,
input_predictions: pd.Series,
y: ySeries,
forward_returns: ForwardReturnSeries,
model: Model,
config: Config,
model_suffix: str,
from_index: Optional[pd.Timestamp],
transformations_over_time: Optional[TransformationsOverTime] = None,
preloaded_models: Optional[ModelOverTime] = None,
) -> BetSizingWithMetaOutcome:
input_predictions.name = "model_predictions"
discretized_predictions = input_predictions.apply(discretize_threeway_threshold(0.33))
discretized_predictions = input_predictions.apply(
discretize_threeway_threshold(0.33)
)
discretized_predictions.name = "model_discretized_predictions"
meta_y: pd.Series = pd.concat([discretized_predictions, y], axis=1).apply(equal_except_nan, axis = 1)
meta_X = pd.concat([X, input_predictions, discretized_predictions], axis = 1)
meta_y: pd.Series = pd.concat([discretized_predictions, y], axis=1).apply(
equal_except_nan, axis=1
)
meta_X = pd.concat([X, input_predictions, discretized_predictions], axis=1)
if transformations_over_time is None:
print("Preprocess transformations")
transformations_over_time = walk_forward_process_transformations(
X = meta_X,
y = meta_y,
forward_returns = forward_returns,
expanding_window = config.expanding_window_meta,
window_size = config.sliding_window_size_meta,
retrain_every = config.retrain_every,
from_index = from_index,
transformations= [
X=meta_X,
y=meta_y,
forward_returns=forward_returns,
expanding_window=config.expanding_window_meta,
window_size=config.sliding_window_size_meta,
retrain_every=config.retrain_every,
from_index=from_index,
transformations=[
get_scaler(config.scaler),
PCATransformation(ratio_components_to_keep=0.5, sliding_window_size=config.sliding_window_size_meta),
RFETransformation(n_feature_to_select=40, model=default_feature_selector_classification)
PCATransformation(
ratio_components_to_keep=0.5,
sliding_window_size=config.sliding_window_size_meta,
),
RFETransformation(
n_feature_to_select=40,
model=default_feature_selector_classification,
),
],
)
meta_outcome = train_model(
ticker_to_predict = "prediction_correct",
X = meta_X,
y = meta_y,
forward_returns = forward_returns,
model = model,
expanding_window = config.expanding_window_meta,
sliding_window_size = config.sliding_window_size_meta,
retrain_every = config.retrain_every,
from_index = from_index,
no_of_classes = 'two',
level = 'meta',
output_stats = config.mode == 'training',
transformations_over_time = transformations_over_time,
model_over_time = preloaded_models,
ticker_to_predict="prediction_correct",
X=meta_X,
y=meta_y,
forward_returns=forward_returns,
model=model,
expanding_window=config.expanding_window_meta,
sliding_window_size=config.sliding_window_size_meta,
retrain_every=config.retrain_every,
from_index=from_index,
no_of_classes="two",
level="meta",
output_stats=config.mode == "training",
transformations_over_time=transformations_over_time,
model_over_time=preloaded_models,
)
meta_predictions = meta_outcome.predictions
bet_size = meta_outcome.probabilities.iloc[:,1]
bet_size = meta_outcome.probabilities.iloc[:, 1]
avg_predictions_with_sizing = input_predictions * meta_predictions * bet_size
if config.mode == 'training':
if config.mode == "training":
stats = evaluate_predictions(
forward_returns = forward_returns,
y_pred = avg_predictions_with_sizing,
y_true = y,
no_of_classes = 'three-balanced',
discretize=False
forward_returns=forward_returns,
y_pred=avg_predictions_with_sizing,
y_true=y,
no_of_classes="three-balanced",
discretize=False,
)
print(stats)
else:
stats = None
model_id = "model_" + config.target_asset[1] + "_" + model_suffix
return BetSizingWithMetaOutcome(model_id, meta_outcome, transformations_over_time, avg_predictions_with_sizing, stats)
return BetSizingWithMetaOutcome(
model_id,
meta_outcome,
transformations_over_time,
avg_predictions_with_sizing,
stats,
)