Nothing
## ----setup, include = FALSE---------------------------------------------------
knitr::opts_chunk$set(
collapse = TRUE,
comment = "#>",
eval = TRUE
)
library(tourr)
## ----grand, eval = FALSE------------------------------------------------------
# # 2D projections — the default
# f <- flea[,1:6] # For convenience
# animate_xy(f)
#
# # 1D projections shown as a density
# animate_dist(f)
## ----guided, eval = FALSE-----------------------------------------------------
# # Find cluster structure without class labels
# animate_xy(f, tour_path = guided_tour(holes()))
#
# # Same search, colour by known species once structure is found
# animate_xy(f,
# tour_path = guided_tour(holes()),
# col = flea$species
# )
#
# # Use class labels directly to separate groups
# animate_xy(f,
# tour_path = guided_tour(lda_pp(flea$species)),
# col = flea$species
# )
## ----little, eval = FALSE-----------------------------------------------------
# animate_xy(f, tour_path = little_tour())
## ----planned, eval = FALSE----------------------------------------------------
# # Save a grand tour path
# set.seed(42)
# t1 <- save_history(f, max = 10)
#
# # Replay it in a scatterplot
# animate_xy(f, tour_path = planned_tour(t1))
#
# # Replay the same path with species colour added
# animate_xy(f,
# tour_path = planned_tour(t1),
# col = flea$species
# )
#
# # Cycle continuously through the saved bases
# animate_xy(f, tour_path = planned_tour(t1, cycle = TRUE))
## ----local, eval = FALSE------------------------------------------------------
# # Start from a specific projection (e.g. one saved from a guided tour)
# start <- basis_random(6, 2)
#
# # Explore a small neighbourhood of angle pi/4
# animate_xy(f,
# tour_path = local_tour(start, angle = pi / 4),
# col = flea$species
# )
## ----radial, eval = FALSE-----------------------------------------------------
# # Use a saved projection as the starting point — here we take the
# # end-point of a guided tour run with holes()
# set.seed(42)
# guided_path <- save_history(f, guided_tour(holes()), sphere = TRUE)
# start <- matrix(guided_path[, , dim(guided_path)[3]], nrow = 6)
#
# # Rotate variable 4 (elytra width) out and back in
# animate_xy(f,
# tour_path = radial_tour(start, mvar = 4),
# col = flea$species,
# rescale = TRUE
# )
#
# # Rotate two variables simultaneously to see their joint contribution
# animate_xy(f,
# tour_path = radial_tour(start, mvar = c(3, 4)),
# col = flea$species,
# rescale = TRUE
# )
## ----radial-1d, eval = FALSE--------------------------------------------------
# start1d <- basis_random(6, 1)
# animate_dist(f, radial_tour(start1d, mvar = 2), rescale = TRUE)
## ----frozen, eval = FALSE-----------------------------------------------------
# # Fix variable 3 to contribute equally to both axes
# frozen <- matrix(NA, nrow = 6, ncol = 2)
# frozen[3, ] <- 0.5
#
# animate_xy(f, tour_path = frozen_tour(2, frozen))
## ----gif, eval = FALSE--------------------------------------------------------
# render_gif(
# f,
# tour_path = guided_tour(holes()),
# display = display_xy(col = flea$species),
# gif_file = "guided_flea.gif",
# frames = 60
# )
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