tests/testthat/test-basic.r
In shabbychef/mazealls: Generate Recursive Mazes
# Copyright 2017 Steven E. Pav. All Rights Reserved.
# Author: Steven E. Pav
# This file is part of mazealls.
#
# mazealls is free software: you can redistribute it and/or modify
# it under the terms of the GNU Lesser General Public License as published by
# the Free Software Foundation, either version 3 of the License, or
# (at your option) any later version.
#
# mazealls is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU Lesser General Public License for more details.
#
# You should have received a copy of the GNU Lesser General Public License
# along with mazealls. If not, see <http://www.gnu.org/licenses/>.
# env var:
# nb:
# see also:
# todo:
# changelog:
#
# Created: 2017.07.03
# Copyright: Steven E. Pav, 2017-2017
# Author: Steven E. Pav
# Comments: Steven E. Pav
# helpers#FOLDUP
set.char.seed <- function(str) {
set.seed(as.integer(charToRaw(str)))
}
#UNFOLD
context("code runs at all")#FOLDUP
test_that("README code",{#FOLDUP
# travis only?
#skip_on_cran()
set.char.seed("569dd47d-f9e5-40e4-b2ac-e5dbb4771a53")
library(TurtleGraphics)
library(mazealls)
turtle_init(2000,2000,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=400)
turtle_right(90)
parallelogram_maze(angle=90,unit_len=10,width=25,height=25,method='uniform',
draw_boundary=TRUE)
})
turtle_init(2000,2000)
turtle_hide()
turtle_up()
turtle_do({
turtle_left(90)
turtle_forward(930)
turtle_right(90)
valseq <- seq(from=-1.5,to=1.5,length.out=7)
blines <- c(1,2,3,4)
bholes <- c(1,3)
set.seed(1234)
for (iii in seq_along(valseq)) {
parallelogram_maze(angle=90,unit_len=12,width=22,height=20,method='two_parallelograms',draw_boundary=TRUE,balance=valseq[iii],
end_side=3,boundary_lines=blines,boundary_holes=bholes)
turtle_right(180)
blines <- c(2,3,4)
bholes <- c(3)
}
})
# triangle
# uniform method
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='uniform',draw_boundary=TRUE)
})
# stacked trapezoids
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='stack_trapezoids',draw_boundary=TRUE)
})
# four triangles
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='triangles',draw_boundary=TRUE)
})
# two ears
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='two_ears',draw_boundary=TRUE)
})
# hex and three
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=log2(66),unit_len=12,method='hex_and_three',draw_boundary=TRUE)
})
# shave
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=log2(66),unit_len=12,method='shave',draw_boundary=TRUE)
})
# shave all
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=log2(66),unit_len=12,method='shave_all',draw_boundary=TRUE)
})
# hexagon maze
# two trapezoids
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
hexagon_maze(depth=4,unit_len=12,method='two_trapezoids',draw_boundary=TRUE)
})
# six triangles
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
hexagon_maze(depth=4,unit_len=12,method='six_triangles',draw_boundary=TRUE)
})
# six triangles
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
hexagon_maze(depth=4,unit_len=12,method='three_parallelograms',draw_boundary=TRUE)
})
# trapezoid maze
# four trapezoids
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
iso_trapezoid_maze(depth=5,unit_len=12,method='four_trapezoids',draw_boundary=TRUE)
})
# one ear
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
iso_trapezoid_maze(depth=4,unit_len=12,method='one_ear',draw_boundary=TRUE)
})
# Rhombic Dissections
# octagon
turtle_init(2000,2000,mode='clip')
turtle_hide()
turtle_up()
turtle_do({
turtle_setpos(75,1000)
turtle_setangle(0)
octagon_maze(log2(48),16,draw_boundary=TRUE,boundary_holes=c(1,5))
})
# decagon
turtle_init(2200,2200,mode='clip')
turtle_hide()
turtle_up()
turtle_do({
turtle_setpos(60,1100)
turtle_setangle(0)
decagon_maze(5,21,draw_boundary=TRUE,boundary_holes=c(1,6))
})
# dodecagon
turtle_init(2200,2200,mode='clip')
turtle_hide()
turtle_up()
turtle_do({
turtle_setpos(60,1100)
turtle_setangle(0)
dodecagon_maze(depth=log2(14),unit_len=10,draw_boundary=TRUE,boundary_holes=c(1,7))
})
# Koch snowflake maze
# koch
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=200)
turtle_right(90)
turtle_backward(distance=300)
koch_maze(depth=4,unit_len=8)
})
# Controls
## unit length
# stack some trapezoids with different unit_len
turtle_init(2500,2500)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=800)
turtle_right(90)
clockwise <- TRUE
for (iii in c(1:6)) {
iso_trapezoid_maze(depth=5,unit_len=2^(6-iii),method='four_trapezoids',draw_boundary=TRUE,clockwise=clockwise,end_side=3,start_from='midpoint',
boundary_lines=c(1,2,4),boundary_holes=c(1))
clockwise <- !clockwise
}
})
# side by side
turtle_init(1000,400)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=450)
turtle_right(90)
parallelogram_maze(unit_len=10,height=15,draw_boundary=FALSE,end_side=3)
turtle_left(90)
turtle_forward(distance=30)
turtle_left(90)
parallelogram_maze(unit_len=10,height=15,draw_boundary=TRUE,boundary_lines=c(1,3),boundary_holes=FALSE,end_side=3)
turtle_left(90)
turtle_forward(distance=30)
turtle_left(90)
parallelogram_maze(unit_len=10,height=15,draw_boundary=TRUE,boundary_lines=c(2,4),boundary_holes=c(2,4),boundary_hole_color=c('ignore','green','ignore','blue'))
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("2ngons",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("af46af42-adb8-4e0e-8aee-4aec6bda56d5")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
for (clockwise in c(TRUE,FALSE)) {
octagon_maze(unit_len=10,log2(48),clockwise=clockwise,draw_boundary=TRUE,boundary_holes=c(1,5),end_side=2)
decagon_maze(5,21,clockwise=clockwise,draw_boundary=TRUE,boundary_holes=c(1,6),end_side=3)
dodecagon_maze(depth=log2(14),unit_len=10,clockwise=clockwise,draw_boundary=TRUE,boundary_holes=c(1,7),end_side=4)
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("sierpinskis",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("56576014-8cc4-45ba-a839-f1ae6754662d")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
for (clockwise in c(TRUE,FALSE)) {
sierpinski_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,end_side=2)
sierpinski_maze(unit_len=5,depth=3,clockwise=clockwise,style='hexaflake',draw_boundary=TRUE)
sierpinski_maze(unit_len=5,depth=3,clockwise=clockwise,style='dragon_left',draw_boundary=TRUE)
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("fractallys",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("987dac1c-ae54-489a-80fb-c80380d246d9")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
clockwise <- TRUE
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=1)
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=2)
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=3)
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=4)
hexaflake_maze(depth=3,unit_len=10,draw_boundary=TRUE,color2='green')
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("hit etcs ",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("f8d2e53f-aae2-4595-bfcd-8f24da9aa7dd")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
for (clockwise in c(TRUE,FALSE)) {
for (angl in c(45,90,135)) {
parallelogram_maze(angle=angl,unit_len=10,width=25,height=25,
clockwise=clockwise,draw_boundary=TRUE)
sierpinski_carpet_maze(angle=angl,unit_len=10,width=27,height=27,
clockwise=clockwise,draw_boundary=TRUE)
}
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("test arrows ",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("d79492e7-6b4d-416e-8b98-b3bb58fdcc1d")
library(TurtleGraphics)
library(mazealls)
turtle_init(250,250,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(125,125)
turtle_setangle(0)
parallelogram_maze(unit_len=10,width=25,height=25,
clockwise=TRUE,draw_boundary=TRUE,boundary_hole_arrows=TRUE)
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("holey line ",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("9d2ab993-7a08-46ad-868c-08a2c138223c")
library(TurtleGraphics)
library(mazealls)
turtle_init(250,250,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(125,125)
turtle_setangle(0)
for (nnseg in c(1,5)) {
holey_line(unit_len=5,num_segs=nnseg,go_back=TRUE)
holey_line(unit_len=5,num_segs=nnseg,which_seg=1)
holey_line(unit_len=5,num_segs=nnseg,which_seg=-1)
holey_line(unit_len=5,num_segs=nnseg,hole_arrow=TRUE)
holey_line(unit_len=5,num_segs=nnseg,hole_color='green')
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
# 2FIX: check the effects of NA
#UNFOLD
#for vim modeline: (do not edit)
# vim:ts=2:sw=2:tw=79:fdm=marker:fmr=FOLDUP,UNFOLD:cms=#%s:syn=r:ft=r:ai:si:cin:nu:fo=croql:cino=p0t0c5(0:
shabbychef/mazealls documentation built on Oct. 18, 2023, 8:27 p.m.
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# Copyright 2017 Steven E. Pav. All Rights Reserved.
# Author: Steven E. Pav
# This file is part of mazealls.
#
# mazealls is free software: you can redistribute it and/or modify
# it under the terms of the GNU Lesser General Public License as published by
# the Free Software Foundation, either version 3 of the License, or
# (at your option) any later version.
#
# mazealls is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU Lesser General Public License for more details.
#
# You should have received a copy of the GNU Lesser General Public License
# along with mazealls. If not, see <http://www.gnu.org/licenses/>.
# env var:
# nb:
# see also:
# todo:
# changelog:
#
# Created: 2017.07.03
# Copyright: Steven E. Pav, 2017-2017
# Author: Steven E. Pav
# Comments: Steven E. Pav
# helpers#FOLDUP
set.char.seed <- function(str) {
set.seed(as.integer(charToRaw(str)))
}
#UNFOLD
context("code runs at all")#FOLDUP
test_that("README code",{#FOLDUP
# travis only?
#skip_on_cran()
set.char.seed("569dd47d-f9e5-40e4-b2ac-e5dbb4771a53")
library(TurtleGraphics)
library(mazealls)
turtle_init(2000,2000,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=400)
turtle_right(90)
parallelogram_maze(angle=90,unit_len=10,width=25,height=25,method='uniform',
draw_boundary=TRUE)
})
turtle_init(2000,2000)
turtle_hide()
turtle_up()
turtle_do({
turtle_left(90)
turtle_forward(930)
turtle_right(90)
valseq <- seq(from=-1.5,to=1.5,length.out=7)
blines <- c(1,2,3,4)
bholes <- c(1,3)
set.seed(1234)
for (iii in seq_along(valseq)) {
parallelogram_maze(angle=90,unit_len=12,width=22,height=20,method='two_parallelograms',draw_boundary=TRUE,balance=valseq[iii],
end_side=3,boundary_lines=blines,boundary_holes=bholes)
turtle_right(180)
blines <- c(2,3,4)
bholes <- c(3)
}
})
# triangle
# uniform method
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='uniform',draw_boundary=TRUE)
})
# stacked trapezoids
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='stack_trapezoids',draw_boundary=TRUE)
})
# four triangles
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='triangles',draw_boundary=TRUE)
})
# two ears
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=4,unit_len=12,method='two_ears',draw_boundary=TRUE)
})
# hex and three
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=log2(66),unit_len=12,method='hex_and_three',draw_boundary=TRUE)
})
# shave
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=log2(66),unit_len=12,method='shave',draw_boundary=TRUE)
})
# shave all
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
eq_triangle_maze(depth=log2(66),unit_len=12,method='shave_all',draw_boundary=TRUE)
})
# hexagon maze
# two trapezoids
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
hexagon_maze(depth=4,unit_len=12,method='two_trapezoids',draw_boundary=TRUE)
})
# six triangles
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
hexagon_maze(depth=4,unit_len=12,method='six_triangles',draw_boundary=TRUE)
})
# six triangles
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
hexagon_maze(depth=4,unit_len=12,method='three_parallelograms',draw_boundary=TRUE)
})
# trapezoid maze
# four trapezoids
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
iso_trapezoid_maze(depth=5,unit_len=12,method='four_trapezoids',draw_boundary=TRUE)
})
# one ear
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=300)
turtle_right(90)
iso_trapezoid_maze(depth=4,unit_len=12,method='one_ear',draw_boundary=TRUE)
})
# Rhombic Dissections
# octagon
turtle_init(2000,2000,mode='clip')
turtle_hide()
turtle_up()
turtle_do({
turtle_setpos(75,1000)
turtle_setangle(0)
octagon_maze(log2(48),16,draw_boundary=TRUE,boundary_holes=c(1,5))
})
# decagon
turtle_init(2200,2200,mode='clip')
turtle_hide()
turtle_up()
turtle_do({
turtle_setpos(60,1100)
turtle_setangle(0)
decagon_maze(5,21,draw_boundary=TRUE,boundary_holes=c(1,6))
})
# dodecagon
turtle_init(2200,2200,mode='clip')
turtle_hide()
turtle_up()
turtle_do({
turtle_setpos(60,1100)
turtle_setangle(0)
dodecagon_maze(depth=log2(14),unit_len=10,draw_boundary=TRUE,boundary_holes=c(1,7))
})
# Koch snowflake maze
# koch
turtle_init(1000,1000)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=200)
turtle_right(90)
turtle_backward(distance=300)
koch_maze(depth=4,unit_len=8)
})
# Controls
## unit length
# stack some trapezoids with different unit_len
turtle_init(2500,2500)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=800)
turtle_right(90)
clockwise <- TRUE
for (iii in c(1:6)) {
iso_trapezoid_maze(depth=5,unit_len=2^(6-iii),method='four_trapezoids',draw_boundary=TRUE,clockwise=clockwise,end_side=3,start_from='midpoint',
boundary_lines=c(1,2,4),boundary_holes=c(1))
clockwise <- !clockwise
}
})
# side by side
turtle_init(1000,400)
turtle_up()
turtle_hide()
turtle_do({
turtle_left(90)
turtle_forward(distance=450)
turtle_right(90)
parallelogram_maze(unit_len=10,height=15,draw_boundary=FALSE,end_side=3)
turtle_left(90)
turtle_forward(distance=30)
turtle_left(90)
parallelogram_maze(unit_len=10,height=15,draw_boundary=TRUE,boundary_lines=c(1,3),boundary_holes=FALSE,end_side=3)
turtle_left(90)
turtle_forward(distance=30)
turtle_left(90)
parallelogram_maze(unit_len=10,height=15,draw_boundary=TRUE,boundary_lines=c(2,4),boundary_holes=c(2,4),boundary_hole_color=c('ignore','green','ignore','blue'))
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("2ngons",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("af46af42-adb8-4e0e-8aee-4aec6bda56d5")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
for (clockwise in c(TRUE,FALSE)) {
octagon_maze(unit_len=10,log2(48),clockwise=clockwise,draw_boundary=TRUE,boundary_holes=c(1,5),end_side=2)
decagon_maze(5,21,clockwise=clockwise,draw_boundary=TRUE,boundary_holes=c(1,6),end_side=3)
dodecagon_maze(depth=log2(14),unit_len=10,clockwise=clockwise,draw_boundary=TRUE,boundary_holes=c(1,7),end_side=4)
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("sierpinskis",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("56576014-8cc4-45ba-a839-f1ae6754662d")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
for (clockwise in c(TRUE,FALSE)) {
sierpinski_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,end_side=2)
sierpinski_maze(unit_len=5,depth=3,clockwise=clockwise,style='hexaflake',draw_boundary=TRUE)
sierpinski_maze(unit_len=5,depth=3,clockwise=clockwise,style='dragon_left',draw_boundary=TRUE)
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("fractallys",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("987dac1c-ae54-489a-80fb-c80380d246d9")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
clockwise <- TRUE
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=1)
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=2)
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=3)
sierpinski_trapezoid_maze(unit_len=5,depth=3,clockwise=clockwise,draw_boundary=TRUE,flip_color_parts=4)
hexaflake_maze(depth=3,unit_len=10,draw_boundary=TRUE,color2='green')
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("hit etcs ",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("f8d2e53f-aae2-4595-bfcd-8f24da9aa7dd")
library(TurtleGraphics)
library(mazealls)
turtle_init(2500,2500,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(1250,1250)
turtle_setangle(0)
for (clockwise in c(TRUE,FALSE)) {
for (angl in c(45,90,135)) {
parallelogram_maze(angle=angl,unit_len=10,width=25,height=25,
clockwise=clockwise,draw_boundary=TRUE)
sierpinski_carpet_maze(angle=angl,unit_len=10,width=27,height=27,
clockwise=clockwise,draw_boundary=TRUE)
}
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("test arrows ",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("d79492e7-6b4d-416e-8b98-b3bb58fdcc1d")
library(TurtleGraphics)
library(mazealls)
turtle_init(250,250,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(125,125)
turtle_setangle(0)
parallelogram_maze(unit_len=10,width=25,height=25,
clockwise=TRUE,draw_boundary=TRUE,boundary_hole_arrows=TRUE)
})
# sentinel
expect_true(TRUE)
})#UNFOLD
test_that("holey line ",{#FOLDUP
# travis only?
skip_on_cran()
set.char.seed("9d2ab993-7a08-46ad-868c-08a2c138223c")
library(TurtleGraphics)
library(mazealls)
turtle_init(250,250,mode='clip')
turtle_up()
turtle_hide()
turtle_do({
turtle_setpos(125,125)
turtle_setangle(0)
for (nnseg in c(1,5)) {
holey_line(unit_len=5,num_segs=nnseg,go_back=TRUE)
holey_line(unit_len=5,num_segs=nnseg,which_seg=1)
holey_line(unit_len=5,num_segs=nnseg,which_seg=-1)
holey_line(unit_len=5,num_segs=nnseg,hole_arrow=TRUE)
holey_line(unit_len=5,num_segs=nnseg,hole_color='green')
}
})
# sentinel
expect_true(TRUE)
})#UNFOLD
# 2FIX: check the effects of NA
#UNFOLD
#for vim modeline: (do not edit)
# vim:ts=2:sw=2:tw=79:fdm=marker:fmr=FOLDUP,UNFOLD:cms=#%s:syn=r:ft=r:ai:si:cin:nu:fo=croql:cino=p0t0c5(0:
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