def GetConfig(path):
cfg = configparser.ConfigParser()
cfg.read(path)
name = cfg.get('Project', 'name')
death_setup = cfg.get('Project', 'death_setup')
unit_setup = cfg.get('Project', 'unit_setup')
scenario_count = cfg.get('Project', 'scenario_count') #테스트할 시나리오 갯수
scenarios = []
#각 테스트 시나리오는 Scenario 객체로 관리
for i in range(int(scenario_count)):
scen = Scenario('scenario_' + str(i))
scen.SetScenario(cfg)
scenarios.append(scen)
#데스 테스트와 유닛 테스트의 파일 열
with open(join(info_dir, death_setup), 'r') as setup:
death_setup_file = setup.read()
with open(join(info_dir, unit_setup), 'r') as setup:
unit_setup_file = setup.read()
#최종 설정들은 딕셔너리로 관리
config = {
'name': name,
'death_setup': death_setup_file,
'unit_setup': unit_setup_file,
'scenario_count': scenario_count,
'scenarios': scenarios
}
return config
def main(argv):
# read factory settings
factory_settings = FactorySettings('factory_settings.json')
# create synthetic scene
scene = {
'X' : FLAGS.X,
'Y' : FLAGS.Y,
'Z' : FLAGS.Z,
'SCALE' : FLAGS.SCALE,
'DISTANCE' : FLAGS.DISTANCE,
'ROT_X' : FLAGS.ROT_X,
'ROT_Y' : FLAGS.ROT_Y,
'ROT_Z' : FLAGS.ROT_Z,
'MIN' : FLAGS.MIN,
'MAX' : FLAGS.MAX,
'POINTS': FLAGS.POINTS
}
points = Scene(SceneType.cube, scene)
points.visualize()
logging.info('Create Scencario')
changes = []
changes += [Change(ChangeType.translation, 20, [10, 0, 0])]
changes += [Change(ChangeType.translation, 30, [0, 10, 0])]
changes += [Change(ChangeType.translation, 40, [0 , 0, 10])]
changes += [Change(ChangeType.rotation, 50, [3, 0, 0])]
changes += [Change(ChangeType.rotation, 60, [0, 3, 0])]
changes += [Change(ChangeType.rotation, 70, [0, 0, 3])]
# create scneario
scenario = Scenario(100, changes, points, factory_settings, (752, 480), FLAGS.NOISE)
scenario.generate_sequence()
def _compare_image_to_pickle(self, image, saved_picklable_image):
"""
Compare the image to the saved_picklable_image.
To do this, the image is loaded and prepared for pickling before
being compared to the saved_picklable_image.
We cant compare surfaces for equality directly so we have to use
the picklable representation.
"""
# Load the image
surface = pygame.image.load(image)
# Prepare the image for pickling
picklable_surface = Scenario.format_surface_for_pickle(surface)
# Compare the picklable given image with the saved picklable image
self.assertEqual(picklable_surface, saved_picklable_image)
def main():
"""Write a scibot file."""
# Initalises a new scenario object and sets the scenario name.
scenario = Scenario("Default")
# Tthe size of an individual square
scenario.set_board_step(150)
# Sets the width of the map in terms of squares
scenario.set_logical_width(5)
# Sets the height of the map in terms of squares
scenario.set_logical_height(8)
# Sets the bee bot starting square (x, y)
scenario.set_beebot_start_position(3, 1)
# Set the beebot sprite
scenario.set_beebot_sprite("./img/Default/robot.jpg")
# Sets the beebots starting direction, where "UP" is "Heading.NORTH",
# other options are Heading.East etc
scenario.set_beebot_heading(Heading.NORTH)
# Sets the image on the map
scenario.set_background("./img/Default/background.jpg")
# If the image has no grid, one can be added by choosing a (R,G,B) tuple
scenario.set_border_colour((0, 0, 0))
# This line addes an obstacle at square (2,1)
# with sprite "./img/Default/obstacle1.jpg".
# scenario.addObstacle(2,1) would add an obstacle at (2,1) with no sprite,
# ie it will show whatever is on the background
scenario.add_obstacle(2, 1, "./img/Default/obstacle1.jpg")
# Add another obstacle
scenario.add_obstacle(2, 3, "./img/Default/obstacle1.jpg")
# Adds a goal square at (1,2) with sprite "./img/Default/goal1.jpg"
scenario.add_goal(1, 2, "./img/Default/goal1.jpg")
# add another goal
scenario.add_goal(2, 0, "./img/Default/goal1.jpg")
# This method means the goals must be met in the order added (Default)
# scenario.set_ordered_goals(True)
# This method means the goals can be met in any order
scenario.set_ordered_goals(False)
# Sets the sprite to be displayed when the robot crashes
scenario.set_beebot_fail_sprite("./img/Default/robotx.jpg")
# Copy the LICENSE from below into the Scenario
scenario.set_license(LICENSE)
# Writes the scibot file
scenario.write_to_file()
def setUp(self):
"""
Create a minimal Scenario and use it to create a BeeBot.
The Scenario is 5x5 (logical and pixel size)
with the BeeBot in the centre, and no Obstacles or Goals.
"""
# Create the minimal Scenario
test_scenario = Scenario('Test')
test_scenario.set_board_step(1)
test_scenario.set_logical_width(5)
test_scenario.set_logical_height(5)
test_scenario.set_beebot_start_position(2, 2)
test_scenario.set_beebot_sprite('img/Default/robot.jpg')
# Create the test BeeBot
self.test_robot = BeeBot(test_scenario)
def setUp(self):
scenario = Scenario('Test')
scenario.set_board_step(150)
scenario.set_logical_width(5)
scenario.set_logical_height(8)
scenario.set_beebot_start_position(3, 1)
scenario.set_beebot_sprite('./img/Default/robot.jpg')
scenario.set_beebot_heading(Heading.NORTH)
scenario.set_background('./img/Default/background.jpg')
scenario.set_border_colour((0, 0, 0))
scenario.add_obstacle(2, 1)
scenario.add_obstacle(2, 3)
scenario.add_goal(1, 2)
scenario.add_goal(2, 0)
scenario.set_ordered_goals(False)
scenario.set_beebot_fail_sprite('./img/Default/robotx.jpg')
scenario.set_license('Test License')
# Writes the scibot file
scenario.write_to_file()
def main():
"""Write a scibot file."""
# Initalises a new scenario object and sets the scenario name.
scenario = Scenario("Default")
# Tthe size of an individual square
scenario.set_board_step(150)
# Sets the width of the map in terms of squares
scenario.set_logical_width(5)
# Sets the height of the map in terms of squares
scenario.set_logical_height(8)
# Sets the bee bot starting square (x, y)
scenario.set_beebot_start_position(3, 1)
# Set the beebot sprite
scenario.set_beebot_sprite("./img/Default/robot.jpg")
# Sets the beebots starting direction, where "UP" is "Heading.NORTH",
# other options are Heading.East etc
scenario.set_beebot_heading(Heading.NORTH)
# Sets the image on the map
scenario.set_background("./img/Default/background.jpg")
# If the image has no grid, one can be added by choosing a (R,G,B) tuple
scenario.set_border_colour((0, 0, 0))
# This line addes an obstacle at square (2,1)
# with sprite "./img/Default/obstacle1.jpg".
# scenario.addObstacle(2,1) would add an obstacle at (2,1) with no sprite,
# ie it will show whatever is on the background
scenario.add_obstacle(2, 1, "./img/Default/obstacle1.jpg")
# Add another obstacle
scenario.add_obstacle(2, 3, "./img/Default/obstacle1.jpg")
# Adds a goal square at (1,2) with sprite "./img/Default/goal1.jpg"
scenario.add_goal(1, 2, "./img/Default/goal1.jpg")
# add another goal
scenario.add_goal(2, 0, "./img/Default/goal1.jpg")
# This method means the goals must be met in the order added (Default)
# scenario.set_ordered_goals(True)
# This method means the goals can be met in any order
scenario.set_ordered_goals(False)
# Sets the sprite to be displayed when the robot crashes
scenario.set_beebot_fail_sprite("./img/Default/robotx.jpg")
# Copy the LICENSE from below into the Scenario
scenario.set_license(LICENSE)
# Writes the scibot file
scenario.write_to_file()
def setUp(self):
"""
Create a minimal Scenario and use it to create a Board.
The Scenario is 5x5 (logical size) with the no BeeBot,
but one Obstacle and Goal.
"""
# Create the minimal Scenario
test_scenario = Scenario('Test')
test_scenario.set_board_step(150)
test_scenario.set_logical_width(5)
test_scenario.set_logical_height(8)
test_scenario.set_background('img/Default/background.jpg')
test_scenario.add_goal(0, 0)
test_scenario.add_obstacle(1, 1)
# Create the test Board
self.test_board = Board(test_scenario)