3 #' Forecaster (abstract class, implemented by all forecasters)
6 #' @importFrom R6 R6Class
8 #' @field .params List of computed parameters, for post-run analysis (dev)
9 #' @field .pjump Function: how to predict the jump at day interface ?
13 #' \item{\code{initialize(data, pjump)}}{
14 #' Initialize a Forecaster object with a Data object and a jump prediction function.}
15 #' \item{\code{predictSerie(today,memory,horizon,...)}}{
16 #' Predict a new serie of \code{horizon} values at day index \code{today}
17 #' using \code{memory} days in the past.}
18 #' \item{\code{predictShape(today,memory,horizon,...)}}{
19 #' Predict a new shape of \code{horizon} values at day index \code{today}
20 #' using \code{memory} days in the past.}
21 #' \item{\code{getParameters()}}{
22 #' Return (internal) parameters.}
25 Forecaster = R6::R6Class("Forecaster",
31 initialize = function(pjump)
33 private$.pjump <- pjump
36 predictSerie = function(data, today, memory, horizon, ...)
38 # Parameters (potentially) computed during shape prediction stage
39 predicted_shape = self$predictShape(data, today, memory, horizon, ...)
40 predicted_delta = private$.pjump(data,today,memory,horizon,private$.params,...)
41 # Predicted shape is aligned it on the end of current day + jump
42 predicted_shape+tail(data$getSerie(today),1)-predicted_shape[1]+predicted_delta
44 predictShape = function(data, today, memory, horizon, ...)
45 NULL #empty default implementation: to implement in inherited classes
47 getParameters = function()