StatsForecastAutoCES
StatsForecastAutoCES
- class StatsForecastAutoCES(season_length: int = 1, model: str = 'Z')[source]
StatsForecast Complex Exponential Smoothing model.
Direct interface to
statsforecast.models.AutoCES, fromstatsforecast[1] by Nixtla.Automatically selects the best Complex Exponential Smoothing model using an information criterion. Default is Akaike Information Criterion (AICc), while particular models are estimated using maximum likelihood. The state-space equations can be determined based on their $S$ simple, $P$ partial, $Z$ optimized or $N$ omitted components. The
modelstring parameter defines the kind of CES model: $N$ for simple CES (without seasonality), $S$ for simple seasonality (lagged CES), $P$ for partial seasonality (without complex part), $F$ for full seasonality (lagged CES with real and complex seasonal parts).If the component is selected as ‘Z’, it operates as a placeholder to ask the AutoCES model to figure out the best parameter.
- Parameters:
- season_lengthint, optional (default=1)
Number of observations per unit of time. Ex: 24 Hourly data.
- modelstr, optional (default=”Z”)
Controlling state-space-equations.
- Attributes:
cutoffCut-off = “present time” state of forecaster.
fhForecasting horizon that was passed.
is_fittedWhether
fithas been called.stateState of the estimator.
References
Examples
>>> from sktime.datasets import load_airline >>> from sktime.forecasting.statsforecast import StatsForecastAutoCES >>> y = load_airline() >>> forecaster = StatsForecastAutoCES(season_length=12) >>> forecaster.fit(y) StatsForecastAutoCES(...) >>> y_pred = forecaster.predict(fh=[1, 2, 3])
Methods
check_is_fitted([method_name])Check if the estimator has been fitted.
clone()Obtain a clone of the object with same hyper-parameters and config.
clone_tags(estimator[, tag_names])Clone tags from another object as dynamic override.
create_test_instance([parameter_set])Construct an instance of the class, using first test parameter set.
create_test_instances_and_names([parameter_set])Create list of all test instances and a list of names for them.
fit(y[, X, fh])Fit forecaster to training data.
fit_predict(y[, X, fh, X_pred])Fit and forecast time series at future horizon.
get_class_tag(tag_name[, tag_value_default])Get class tag value from class, with tag level inheritance from parents.
get_class_tags()Get class tags from class, with tag level inheritance from parent classes.
get_config()Get config flags for self.
get_fitted_params([deep])Get fitted parameters.
get_param_defaults()Get object's parameter defaults.
get_param_names([sort])Get object's parameter names.
get_params([deep])Get a dict of parameters values for this object.
get_pretrained_params([deep])Get pretrained parameters of this estimator.
get_tag(tag_name[, tag_value_default, ...])Get tag value from instance, with tag level inheritance and overrides.
get_tags()Get tags from instance, with tag level inheritance and overrides.
get_test_params([parameter_set])Return testing parameter settings for the estimator.
is_composite()Check if the object is composed of other BaseObjects.
load_from_path(serial)Load object from file location.
load_from_serial(serial)Load object from serialized memory container.
predict([fh, X])Forecast time series at future horizon.
predict_interval([fh, X, coverage])Compute/return prediction interval forecasts.
predict_proba([fh, X, marginal])Compute/return fully probabilistic forecasts.
predict_quantiles([fh, X, alpha])Compute/return quantile forecasts.
predict_residuals([y, X])Return residuals of time series forecasts.
predict_var([fh, X, cov])Compute/return variance forecasts.
pretrain(y[, X, fh])Pre-train forecaster on panel (global) data.
reset()Reset the object to a clean post-init state.
save([path, serialization_format])Save serialized self to bytes-like object or to (.zip) file.
score(y[, X, fh])Scores forecast against ground truth, using MAPE (non-symmetric).
set_config(**config_dict)Set config flags to given values.
set_params(**params)Set the parameters of this object.
set_random_state([random_state, deep, ...])Set random_state pseudo-random seed parameters for self.
set_tags(**tag_dict)Set instance level tag overrides to given values.
update(y[, X, update_params])Update cutoff value and, optionally, fitted parameters.
update_predict(y[, cv, X, update_params, ...])Make predictions and update model iteratively over the test set.
update_predict_single([y, fh, X, update_params])Update model with new data and make forecasts.

