class ExamplePlayer():
def __init__(self, colour):
self.pos = Position(initial, 0, True, colour == colour)
def action(self):
print("\n" + "The following actions are available:" + "\n")
available_actions = []
for i, move in enumerate(self.pos.gen_moves()):
formatted_move = format_move(move)
if i > 0 and i % 3 == 0:
print()
print("{:3d}: {:32s}".format(i + 1, format(formatted_move)),
end='')
available_actions.append(formatted_move)
print("\n")
move_index = int(
input("Please choose an action to take (enter the index): "))
return available_actions[move_index - 1]
# update method to keep internal representation of the state-of-play current
def update(self, colour, action):
# interpret and decode formatted 'action'
move = parse_formatted_move(action)
self.pos = self.pos.move(move) # update!
def test_position_hash(self):
self.assertEqual(
hash(Position("MYSec", "Münster", "Other Person", "2019-12-12")),
hash(Position("MYSec", "Münster", "Other Person", "2019-12-12")))
self.assertNotEqual(
hash(Position("MYSec", "Münster", "Other Person", "2019-12-12")),
hash(Position("MYSec", "Thüringen", "Other Person", "2019-12-12")))
def test_position_factory_methods(self):
self.assertEqual(len(Position.create_all(title="MYSec")), 2)
self.assertEqual(
len(
Position.create_all_fitting_data(
[["start_date", ">", "2020-12-12"]], title="MYSec")), 1)
self.assertEqual(
len(Position.create_all_held_positions("Test Person")), 1)
def test_update_db(self):
pos = Position.create_all_held_positions("Test Person")[0]
original_end_date = pos.end_date
pos.end_date = "2021-01-18"
pos.update_in_db()
pos = Position.create_all_held_positions("Test Person")[0]
new_end_date = pos.end_date
self.assertNotEqual(original_end_date, new_end_date)
def get_robot_position_from_vision(self):
if self.__connected:
if self.last_robot_info_from_vision:
return Position(self.last_robot_info_from_vision['x'],
self.last_robot_info_from_vision['y'])
else:
return Position(0, 0)
else:
raise NoConnectionException('Cannot connect to base station')
def relative_position(self, position):
robot_current_position = self.get_robot_position()
matrix = rotate_vector(
self.get_robot_angle(),
np.array(position.to_tuple()) -
np.array(robot_current_position.to_tuple()))
return Position(matrix[0], matrix[1])
def __init__(self, width, height, worldmap_service,
table_calibration_service):
self._width = width
self._height = height
self._robot_position = Position(width / 2, height / 2)
self._robot_angle = 0
self.worldmap_service = worldmap_service
self.table_calibration_service = table_calibration_service
def robot_move_to():
destination = Position(request.json['x'], request.json['y'])
try:
robot.move_to(destination, None)
except Exception as any_error:
print(any_error)
raise any_error
return "OK"
def test_position_accessibility(self):
pos = Position(title="MYSec",
region="Münster",
held_by="Other Person",
start_date="2019-12-12")
self.assertEqual(pos.title, "MYSec")
self.assertEqual(pos.region, "Münster")
self.assertEqual(pos.held_by, "Other Person")
self.assertEqual(pos.start_date, "2019-12-12")
self.assertEqual(pos.end_date, "")
def test_post_position(self):
printed_statements = []
self.monkeypatch.setattr("builtins.print",
lambda x: printed_statements.append(x))
UserInteraction.post_position_details(
Position("MYSec", "Sachsen", "M Q", "2019-03-30"))
self.assertEqual(printed_statements, [
"Title: MYSec", "Held by: M Q", "Region: Sachsen",
"Start date: 2019-03-30", "End date: "
])
def __calculate_islands_risk(self, treasure_position):
islands = self.__worldmap.get_islands()
islands_positions = list(
map(lambda island: Position(island["x"], island["y"]), islands))
islands_remoteness = list(
map(
lambda island_position: island_position.distance(
treasure_position), islands_positions))
closest_island_distance = min(islands_remoteness)
path_ponderation = PONDERATION_FACTOR / closest_island_distance
return path_ponderation
def __init__(self,
actual_map,
initial_position,
initial_angle,
distance_threshold=50):
time_init = time()
self.__robot_position = (time_init, initial_position)
self.__robot_angle = (time_init, initial_angle)
self.__velocity = Position(0, 0)
self.__map = actual_map
self.__distance_threshold = distance_threshold
def test_contains_point_should_return_false_if_point_is_not_inside_cell_boundaries(
self):
# Given
height = 10
width = 10
cell = Cell(width, height, 5, 5)
point = Position(15, 15)
# When
is_contained = cell.contains_point(point)
# Then
assert_false(is_contained)
def __init__(self, wheels, world_map, pathfinder, manchester_antenna,
movement, battery, magnet, camera_rotation):
self.__wheels = wheels
self.__world_map = world_map
self.__pathfinder = pathfinder
self.__movement = movement
self.__manchester_antenna = manchester_antenna
self.__battery = battery
self.__magnet = magnet
self.__manchester_code = ''
self.__island_clue = ''
self.__camera_rotation_control = camera_rotation
self.__position = Position(0, 0)
def find_easiest_treasure_from(self, position, target_island_position):
treasures = self.__worldmap.get_treasures()
treasures_positions = list(
map(lambda treasure: Position(treasure['x'], treasure['y']),
treasures))
paths = list(
map(
lambda treasure_position: {
'length':
self.__find_path_length(position, treasure_position,
target_island_position),
'treasure':
treasure_position
}, treasures_positions))
return min(paths, key=lambda x: x['length'])['treasure']
def test_position_mutability(self):
pos = Position(title="MYSec",
region="Münster",
held_by="Other Person",
start_date="2019-12-12")
pos.end_date = "2019-12-13"
self.assertEqual(pos.end_date, "2019-12-13")
with self.assertRaises(AttributeError):
pos.title = "New"
with self.assertRaises(AttributeError):
pos.region = "New"
with self.assertRaises(AttributeError):
pos.held_by = "New"
with self.assertRaises(AttributeError):
pos.start_date = "0001-01-01"
def start(self):
self.running = True
print('Moving to Treasure')
self.treasure_position = self._context.robot.get_target_treasure_position(
)
self.facing_angle = self.__find_facing_angle_when_upfront(
self.treasure_position,
self._context.worldmap.table_calibration_service.get_table_corners(
))
wall_distance = 180
position_ajustment = Position(
-cos(2 * pi * self.facing_angle / 360.0),
sin(2 * pi * self.facing_angle / 360.0)) * wall_distance
print(self.facing_angle, position_ajustment)
try:
self._context.robot.move_to(
self.treasure_position + position_ajustment, self.path_done)
except Exception as error:
print(error)
def find_path(self, from_point, to_point):
from_cell = self.find_closest_node_to(from_point)
to_cell = self.find_closest_node_to_neighbors(
networkx.node_connected_component(self.__graph, from_cell),
to_point)
try:
cell_path = networkx.astar_path(self.__graph, from_cell, to_cell)
except:
raise Exception('No Path found!')
path = list()
for cell in cell_path:
path.append(Position(cell.x, cell.y))
if len(path) == 1:
path.pop()
path.append(to_point)
else:
path.pop(0)
path.pop()
path.insert(0, from_point)
path.append(to_point)
return path
def move_robot(self, delta_x, delta_y):
delta = rotate_vector(-self._robot_angle, Position(delta_x, delta_y))
self.set_robot_position(self._robot_position.x + delta[0],
self._robot_position.y + delta[1])
from nose import with_setup
from nose.tools import *
from utils.position import Position
from unittest.mock import *
from robot.simulation.simulation_map import SimulationMap
WIDTH = 300.0
HEIGHT = 100.0
A_POSITION = Position(20.0, 50.0)
A_POSITION_OUTSIDE_BOUNDARIES = Position(500.0, 200.0)
AN_ANGLE = 142
A_MOVE_OUTSIDE = Position(A_POSITION.x + WIDTH, 0.0)
PRECISION = 1e-6
world_map = SimulationMap(WIDTH, HEIGHT, Mock(), Mock())
def setup():
world_map.__init__(WIDTH, HEIGHT, Mock(), Mock())
@with_setup(setup)
def test_when_init_map_then_width_is_set():
assert_equal(WIDTH, world_map._width)
@with_setup(setup)
def test_when_init_map_then_height_is_set():
assert_equal(HEIGHT, world_map._height)
def find_island_with_clue(self, clue):
islands = self.worldmap_service.get_islands()
target_islands = list(
filter(lambda island: self.filter_by_clue(island, clue), islands))
target_island = target_islands.pop()
return Position(target_island['x'], target_island['y'])
def get_treasure_closest_to(self, position):
#TODO
return Position(500, 600)
def get_recharge_station_position(self):
position = self.worldmap_service.get_charging_station_position()
charging_station_position = Position(position["x"], position["y"])
return charging_station_position
def set_robot_position(self, x, y):
self._robot_position = Position(x, y)
def test_when_set_robot_position_then_position_is_set():
a_position_x = 3
a_position_y = 4
a_position = Position(a_position_x, a_position_y)
world_map.set_robot_position(a_position_x, a_position_y)
assert_equal(a_position, world_map.get_robot_position())
def test_get_details_fitting_data(self):
self.assertEqual(
Position.get_details_fitting_data([["end_date", "=", ""]],
title="MYSec"),
[(1, "Test Person", "Münster", "2020-03-02", "")])
manchester_antenna = ManchesterAntennaSimulation()
battery = BatterySimulation()
magnet = MagnetSimulation()
robot_service = RobotServiceSimulation()
camera_rotation = Mock()
elif wheels_config == "usb-arduino":
assembler = RobotInfoAssembler()
vision_daemon = VisionDaemon(base_station_address, assembler)
camera_position_x = config.getint('robot', 'camera-position-x')
camera_position_y = config.getint('robot', 'camera-position-y')
camera_height = config.getfloat('robot', 'camera-height')
robot_height = config.getfloat('robot', 'robot-height')
vision_perspective_corrected = VisionPerspectiveCorrection(
vision_daemon, Position(camera_position_x, camera_position_y),
camera_height, robot_height)
world_map = Map(vision_perspective_corrected, world_map_service,
table_calibration_service)
arduino_pid = config.getint('robot', 'arduino-pid')
arduino_vid = config.getint('robot', 'arduino-vid')
polulu_pid = config.getint('robot', 'polulu-pid')
polulu_vid = config.getint('robot', 'polulu-vid')
arduino_baudrate = config.getint('robot', 'arduino-baudrate')
ports = lp.comports()
arduino_port = list(
filter(
lambda port: port.pid == arduino_pid and port.vid ==
arduino_vid, ports))
polulu_port = list(
def __init__(self, colour):
self.pos = Position(initial, 0, True, colour == colour)
def _relative_position(self, position):
matrix = rotate_vector(self.__actual_robot_angle,
position - self.__actual_position)
return Position(matrix[0], matrix[1])
def test_Vector():
origin = Position(0, 1)
vector = Vector(-1, 2)
points = [(-1, 3), (-2, 5)]
for i, point in enumerate(vector.iter(origin, 2)):
assert point == points[i]