Examples: visualization, C++, networks, data cleaning, html widgets, ropensci.

Found 2966 packages in 0.01 seconds

ngboostForecast — by Resul Akay, 3 years ago

Probabilistic Time Series Forecasting

Probabilistic time series forecasting via Natural Gradient Boosting for Probabilistic Prediction.

htsr — by Pierre Chevallier, 8 months ago

Hydro-Meteorology Time-Series

Functions for the management and treatment of hydrology and meteorology time-series stored in a 'Sqlite' data base.

utsf — by Francisco Martinez, 4 months ago

Univariate Time Series Forecasting

An engine for univariate time series forecasting using different regression models in an autoregressive way. The engine provides an uniform interface for applying the different models. Furthermore, it is extensible so that users can easily apply their own regression models to univariate time series forecasting and benefit from all the features of the engine, such as preprocessings or estimation of forecast accuracy.

tsgui — by Martin Schlather, 5 years ago

A Gui for Simulating Time Series

This gui shows realisations of times series, currently ARMA and GARCH processes. It might be helpful for teaching and studying.

rtsVis — by Johannes Mast, 4 years ago

Raster Time Series Visualization

A lightweight 'R' package to visualize large raster time series, building on a fast temporal interpolation core.

TSCS — by Tianjian Yang, 8 years ago

Time Series Cointegrated System

A set of functions to implement Time Series Cointegrated System (TSCS) spatial interpolation and relevant data visualization.

nonstat — by Martin Hecht, 3 days ago

Detecting Nonstationarity in Time Series

Provides a nonvisual procedure for screening time series for nonstationarity in the context of intensive longitudinal designs, such as ecological momentary assessments. The method combines two diagnostics: one for detecting trends (based on the split R-hat statistic from Bayesian convergence diagnostics) and one for detecting changes in variance (a novel extension inspired by Levene's test). This approach allows researchers to efficiently and reproducibly detect violations of the stationarity assumption, especially when visual inspection of many individual time series is impractical. The procedure is suitable for use in all areas of research where time series analysis is central. For a detailed description of the method and its validation through simulations and empirical application, see Zitzmann, S., Lindner, C., Lohmann, J. F., & Hecht, M. (2024) "A Novel Nonvisual Procedure for Screening for Nonstationarity in Time Series as Obtained from Intensive Longitudinal Designs" < https://www.researchgate.net/publication/384354932_A_Novel_Nonvisual_Procedure_for_Screening_for_Nonstationarity_in_Time_Series_as_Obtained_from_Intensive_Longitudinal_Designs>.

tsintermittent — by Nikolaos Kourentzes, 3 years ago

Intermittent Time Series Forecasting

Time series methods for intermittent demand forecasting. Includes Croston's method and its variants (Moving Average, SBA), and the TSB method. Users can obtain optimal parameters on a variety of loss functions, or use fixed ones (Kourenztes (2014) ). Intermittent time series classification methods and iMAPA that uses multiple temporal aggregation levels are also provided (Petropoulos & Kourenztes (2015) ).

ctsfeatures — by Angel Lopez-Oriona, a year ago

Analyzing Categorical Time Series

An implementation of several functions for feature extraction in categorical time series datasets. Specifically, some features related to marginal distributions and serial dependence patterns can be computed. These features can be used to feed clustering and classification algorithms for categorical time series, among others. The package also includes some interesting datasets containing biological sequences. Practitioners from a broad variety of fields could benefit from the general framework provided by 'ctsfeatures'.

bdots — by Collin Nolte, 2 years ago

Bootstrapped Differences of Time Series

Analyze differences among time series curves with p-value adjustment for multiple comparisons introduced in Oleson et al (2015) .