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39 | 39 | #' indicating the number of replication to |
40 | 40 | #' use for each design condition per PBA iteration. By default the input is a |
41 | 41 | #' \code{list} with the arguments \code{burnin.iter = 15L}, specifying the number |
42 | | -#' of burn-in iterations to used, \code{burnin.reps = 100L} to indicate how many |
| 42 | +#' of burn-in iterations to used, \code{burnin.reps = 50L} to indicate how many |
43 | 43 | #' replications to use in each burn-in iteration, \code{max.reps = 500L} to |
44 | 44 | #' prevent the replications from increasing higher than this number, |
45 | 45 | #' \code{min.total.reps = 9000L} to avoid termination when very few replications |
46 | 46 | #' have been explored (lower bound of the replication budget), |
47 | 47 | #' and \code{increase.by = 10L} to indicate how many replications to increase |
48 | | -#' after the burn-in stage. Default can overwritten by explicit definition (e.g., |
| 48 | +#' per iteration after the burn-in stage. Default can overwritten by explicit definition (e.g., |
49 | 49 | #' \code{replications = list(increase.by = 25L)}). |
50 | 50 | #' |
51 | 51 | #' Vector inputs can specify the exact replications for each respective |
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463 | 463 | #' |
464 | 464 | #' } |
465 | 465 | SimSolve <- function(design, interval, b, generate, analyse, summarise, |
466 | | - replications = list(burnin.iter = 15L, burnin.reps = 100L, |
| 466 | + replications = list(burnin.iter = 15L, burnin.reps = 50L, |
467 | 467 | max.reps = 500L, min.total.reps = 9000L, |
468 | 468 | increase.by = 10L), |
469 | 469 | integer = TRUE, formula = y ~ poly(x, 2), family = 'binomial', |
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