StatsForecastADIDA
StatsForecastADIDA
- class StatsForecastADIDA(prediction_intervals: object | None = None)[source]
StatsForecast ADIDA (Aggregate-Disaggregate Intermittent Demand Approach) model.
Direct interface to
statsforecast.models.ADIDAby Nixtla.This estimator directly interfaces
ADIDA, fromstatsforecast[1] by Nixtla.Aggregate-Disagregate Intermittent Demand Approach: Uses temporal aggregation to reduce the number of zero observations. Once the data has been aggregated, it uses the optimized SES to generate the forecasts at the new level. It then breaks down the forecast to the original level using equal weights.
ADIDA specializes on sparse or intermittent series are series with very few non-zero observations.They are notoriously hard to forecast, and so, different methods have been developed specifically for them.
- Parameters:
- prediction_intervalsConformalIntervals, optional
Information to compute conformal prediction intervals.
- 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 StatsForecastADIDA >>> y = load_airline() >>> model = StatsForecastADIDA() >>> fitted_model = model.fit(y) >>> y_pred = fitted_model.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.

