Tools for time series analysis and forecasting
Last updated Jun 20, 2026
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README
TSstudio 
The TSstudio package provides a set of tools descriptive and predictive analysis of time series data. That includes utility functions for preprocessing time series data, interactive visualization functions based on the plotly package engine, and set of tools for training and evaluating time series forecasting models from the forecast, forecastHybrid, and bsts packages.
More information available on the package vignettes.
Installation
Install the stable version from CRAN:
r
install.packages("TSstudio")
or install the development version from Github:
r
install.packages("devtools")
devtools::install_github("RamiKrispin/TSstudio")
Usage
Plotting time series data
r
library(TSstudio)
data(USgas)
Ploting time series object
ts_plot(USgas,
title = "US Monthly Natural Gas Consumption",
Ytitle = "Billion Cubic Feet")
Seasonality analysis
r
Seasonal plot
ts_seasonal(USgas, type = "all")
r
Heatmap plot
ts_heatmap(USgas)
Correlation analysis
r
ACF and PACF plots
ts_cor(USgas, lag.max = 60)
r
Lags plot
ts_lags(USgas, lags = 1:12)

r
Seasonal lags plot
ts_lags(USgas, lags = c(12, 24, 36, 48))
Training forecasting models
r
Forecasting applications
Setting training and testing partitions
USgass <- tssplit(ts.obj = USgas, sample.out = 12)
train <- USgas_s$train
test <- USgas_s$test
Forecasting with auto.arima
library(forecast)
md <- auto.arima(train)
fc <- forecast(md, h = 12)
Plotting actual vs. fitted and forecasted
test_forecast(actual = USgas, forecast.obj = fc, test = test)
r
Plotting the forecast
plot_forecast(fc)
rRun horse race between multiple models
methods <- list(ets1 = list(method = "ets", method_arg = list(opt.crit = "lik"), notes = "ETS model with opt.crit = lik"), ets2 = list(method = "ets", method_arg = list(opt.crit = "amse"), notes = "ETS model with opt.crit = amse"), arima1 = list(method = "arima", method_arg = list(order = c(2,1,0)), notes = "ARIMA(2,1,0)"), arima2 = list(method = "arima", method_arg = list(order = c(2,1,2), seasonal = list(order = c(1,1,1))), notes = "SARIMA(2,1,2)(1,1,1)"), hw = list(method = "HoltWinters", method_arg = NULL, notes = "HoltWinters Model"), tslm = list(method = "tslm", method_arg = list(formula = input ~ trend + season), notes = "tslm model with trend and seasonal components"))Training the models with backtesting
md <- train_model(input = USgas, methods = methods, train_method = list(partitions = 6, sample.out = 12, space = 3), horizon = 12, error = "MAPE")A tibble: 6 x 7
modelid model notes avgmape avgrmseavgcoverage80%avgcoverage_95%<chr> <chr> <chr> <dbl> <dbl> <dbl> <dbl> 1 arima2 arima SARIMA(2,1,2)(1,1,1) 0.0557 167. 0.583 0.806 2 hw HoltWinters HoltWinters Model 0.0563 163. 0.736 0.889 3 ets1 ets ETS model with opt.crit = lik 0.0611 172. 0.681 0.903 4 ets2 ets ETS model with opt.crit = amse 0.0666 186. 0.458 0.833 5 tslm tslm tslm model with trend and seasonal components 0.0767 220. 0.417 0.667 6 arima1 arima ARIMA(2,1,0) 0.188 598. 0.875 0.958
r
Plot the performance of the different models on the testing partitions
plot_model(md)

r
Holt-Winters tunning parameters with grid search
hwgrid <- tsgrid(USgas,
model = "HoltWinters",
periods = 6,
window_space = 6,
window_test = 12,
hyper_params = list(alpha = seq(0,1,0.1),
beta = seq(0,1,0.1),
gamma = seq(0,1,0.1)))
plotgrid(hwgrid, type = "3D")

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