def draw(self, screen):
if self.data[TILE_TYPE] == TILE_GOLD:
self.image = pg.image.load('gold_get.png')
elif self.data[TILE_TYPE] == TILE_MONSTER:
try:
self.image = pg.image.load(
# show image of the first monster in the list as tile image
os.path.join(MONSTER_IMG_FILE_PATH, self.data[TILE_MONSTER_DATA][0][0][MONSTER_IMG_FILE]))
except RuntimeError as e:
DEBUG.log(e, level=1)
self.image = pg.image.load('smile.png')
elif self.data[TILE_TYPE] == TILE_WEAPON_SHOP:
self.image = pg.image.load('weapon_shop.png')
elif self.data[TILE_TYPE] == TILE_ARMOR_SHOP:
self.image = pg.image.load('armor_shop.png')
elif self.data[TILE_TYPE] == TILE_RESPAWN:
self.image = pg.image.load('respawn.png')
elif self.data[TILE_TYPE] == TILE_HEAL:
self.image = pg.image.load('heal.png')
elif self.data[TILE_TYPE] == TILE_OTHER_EVENT:
self.image = pg.image.load('smile.png')
self.image = pg.transform.scale(self.image, (self.width, self.height))
DEBUG.log("received image, image={}".format(self.image), level=3)
screen.blit(self.image, (self.x_pos, self.y_pos))
def win(self, fight_scene_surface, data):
DEBUG.log("Fight won", level=1)
msg = "{} has gained {} exp and {} gold!"\
.format(self.player_name, 10*data[MONSTER_LEVEL], 10*data[MONSTER_LEVEL])
self.show_textbox_at_centre(fight_scene_surface, msg, 2000)
# For now, loot is 10*(monster's level)
self.exp += 10*data[MONSTER_LEVEL]
self.gold += 10*data[MONSTER_LEVEL]
if self.exp >= EXP_REQUIRED[self.level]:
DEBUG.log("Level up", level=1)
if self.level >= 15:
raise NotImplementedError("Level higher than 15 not implemented yet.")
self.level += 1
self.full_health += 15
self.current_health += 15
self.base_attack += 2
self.current_attack += 2
levelup_msg = "{} level up! Lv.{}".format(self.player_name, self.level)
self.show_textbox_at_centre(fight_scene_surface, levelup_msg, 2000)
self.action_result = ACTION_RESULT_WIN
def on_init(self):
pygame.init()
if gc.GUI["Debugger"]:
width = self.width + self.height
else:
width = self.width
self._display_surf = pygame.display.set_mode((width, self.height),
pygame.DOUBLEBUF)
self._game_display = pygame.Surface(self.size)
self.ppcm = 3 #TODO: variable window size
self.center = [
self._game_display.get_height() / (2 * self.ppcm),
self._game_display.get_width() / (2 * self.ppcm)
]
self._display_surf.set_alpha(None)
self._running = True
game_display_data = {
"display": self._game_display,
"ppcm": self.ppcm,
"center": self.center
}
self.game = Game(game_display_data)
if gc.GUI["Debugger"]:
self.debugger = Debugger(self._display_surf,
self.game.robotProgramHandlers)
self.debugger.setFocusedRobot(self.focusedrobot)
if gc.GUI["Logger"]:
self.logger = Logger(self.game)
self.logger.startLogging()
pygame.mixer.quit()
def main():
debug = Debugger()
chrono = Chrono()
universe = Universe(debug)
source = Source(debug).get_source()
bucket_chain = BucketChain(debug, chrono, universe, source)
clusters = Clusters(debug, chrono, universe)
algorithm = OnlineClustering(debug, universe, bucket_chain, clusters)
while True:
operation_time = time.time()
if bucket_chain.is_updated():
universe.compute_log_n_df()
bucket_chain.compute_universal_counts()
bucket_chain.compute_universal_tfidf()
clusters.update_centroid_counts()
clusters.update_centroid_tfidf()
algorithm.pre_clustering_work()
algorithm.online_clustering()
clusters.remove_old_clusters()
universe.prune_terms(clusters)
debug.log("BUCKET FINISHED IN: " +
str(time.time() - operation_time))
clusters.debug_active_clusters()
clusters.save_active_clusters()
class Emu(object):
def __init__(self, debug, graphicsScale):
self.rom = Rom()
self.gpu = Gpu(graphicsScale)
self.cpu = Cpu(self.gpu)
self.gpu.setCpu(self.cpu)
self.debugger = None
self.debugger = Debugger(self.cpu)
if True == debug:
self.debugger.activate()
def run(self, binPath):
self.rom.load(binPath)
self.cpu.execProg(self.rom.romData, self.debugger)
self.pyGameMainLoop()
def pyGameMainLoop(self):
while 1:
event = pygame.event.wait()
if event.type == pygame.KEYDOWN:
keysPressed = pygame.key.get_pressed()
self.cpu.keyboard.keyPressedIndication(keysPressed)
if keysPressed[pygame.K_q]:
self.cpu.stop()
if event.type == pygame.QUIT:
self.cpu.stop()
if False == self.cpu.running:
raise SystemExit
def test_attachDetachLogger_detaches_logger_when_ther_is_not_Empty(self):
debugger = Debugger()
cpu = FakeCpu()
cpu.logger = Logger(cpu)
debugger.attachDetachLogger(cpu)
self.assertTrue(type(cpu.logger) is EmptyLogger)
def test_attachDetachLogger_detaches_logger_when_ther_is_not_Empty(self):
debugger = Debugger()
cpu = FakeCpu()
cpu.logger = Logger(cpu)
debugger.attachDetachLogger(cpu)
self.assertTrue(type(cpu.logger) is EmptyLogger)
def __init__(self, index, data):
self.index = index
self.data = data
self.width = TILE_WIDTH
self.height = TILE_HEIGHT
# set the position of tile, which goes round the window
if self.index < NUM_TILES_WIDTH - 1:
# upper row (excluding top right)
self.x_pos = self.index * self.width
self.y_pos = 0
elif self.index < NUM_TILES_WIDTH + NUM_TILES_HEIGHT - 2:
# right column (excluding bottom right)
self.x_pos = WINDOW_WIDTH - self.width
self.y_pos = (self.index - NUM_TILES_WIDTH + 1) * self.height
elif self.index < 2*NUM_TILES_WIDTH + NUM_TILES_HEIGHT - 3:
# lower row (excluding bottom left)
self.x_pos = WINDOW_WIDTH - ((self.index - (NUM_TILES_WIDTH + NUM_TILES_HEIGHT - 2)) + 1) * self.width
self.y_pos = WINDOW_HEIGHT - self.height
elif self.index < 2*NUM_TILES_WIDTH + 2*NUM_TILES_HEIGHT - 4:
# left column (excluding top left)
self.x_pos = 0
self.y_pos = WINDOW_HEIGHT - (self.index - (2*NUM_TILES_WIDTH + NUM_TILES_HEIGHT - 3) + 1) * self.height
else:
raise IndexError("Tile index out of range: {}".format(self.index))
DEBUG.log("initialized tile, index={}, pos=({},{})".format(self.index, self.x_pos, self.y_pos), level=2)
def get(self, url, timeout = _config.SOCKET_TIMEOUT):
try:
res = urllib2.urlopen(url, timeout = timeout)
ret = res.read()
return _defcode.RPC_GET_OK, ret
except Exception, e:
_debugger.exc(e)
return _defcode.RPC_GET_FAILED, e
def dispatch(self, e, **args):
for c in self.__ecCather:
try:
c(e, **args)
#pragma: no cover 1
except Exception,e:
_debugger.out(e)
if DEBUG:raise
def __init__(self, debug, graphicsScale):
self.rom = Rom()
self.gpu = Gpu(graphicsScale)
self.cpu = Cpu(self.gpu)
self.gpu.setCpu(self.cpu)
self.debugger = None
self.debugger = Debugger(self.cpu)
if True == debug:
self.debugger.activate()
def post(self, url, data, header, timeout = _config.SOCKET_TIMEOUT):
try:
req = urllib2.Request(url, data, header)
res = urllib2.urlopen(req, timeout = timeout)
ret = res.read()
return _defcode.RPC_POST_OK, ret
except Exception, e:
_debugger.exc(e)
return _defcode.RPC_POST_FAILED, e
def draw_monster_card(centre_screen, data):
"""
:param centre_screen: screen excluding the tiles area
:param data: monster's data
:return: the surface that the card is drawn
"""
centre_screen.fill(BACKGROUND_COLOUR)
try:
image = pg.image.load(os.path.join(MONSTER_IMG_FILE_PATH, data[MONSTER_IMG_FILE]))
except RuntimeError as e:
DEBUG.log(e, level=1)
try:
image = pg.image.load('smile.png')
except:
raise Exception
finally:
image = pg.transform.scale(image, (centre_screen.get_height(), centre_screen.get_height()))
DEBUG.log("received image, image={}".format(image), level=3)
card_surface = centre_screen.subsurface(0, 0, image.get_height(), image.get_height())
card_surface.blit(image, (0, 0))
monster_level_textbox = eztext.Input(
font=pg.font.Font(None, 40),
maxlength=0,
prompt="Lv.{}".format(data[MONSTER_LEVEL]),
x=10, y=10,
)
monster_level_textbox.draw(card_surface)
monster_hp_textbox = eztext.Input(
font=pg.font.Font(None, 40),
maxlength=0,
prompt="HP:{}".format(data[MONSTER_HEALTH]),
x=10, y=10+monster_level_textbox.get_size()[1],
)
monster_hp_textbox.draw(card_surface)
monster_attack_textbox = eztext.Input(
font=pg.font.Font(None, 40),
maxlength=0,
prompt="ATT:{}".format(data[MONSTER_ATTACK]),
x=10, y=10+monster_level_textbox.get_size()[1]+monster_hp_textbox.get_size()[1],
)
monster_attack_textbox.draw(card_surface)
monster_defence_textbox = eztext.Input(
font=pg.font.Font(None, 40),
maxlength=0,
prompt="DEF:{}".format(data[MONSTER_DEFENCE]),
x=10, y=10+monster_level_textbox.get_size()[1]+monster_hp_textbox.get_size()[1]+monster_attack_textbox.get_size()[1],
)
monster_defence_textbox.draw(card_surface)
pg.display.update(centre_screen.get_rect(topleft=(TILE_WIDTH, TILE_HEIGHT)))
return card_surface
def __init__(self, plugin, parent=None):
"""Constructor."""
super(RemoteDebugDialog, self).__init__(parent)
# Set up the user interface from Designer.
# After setupUI you can access any designer object by doing
# self.<objectname>, and you can use autoconnect slots - see
# http://qt-project.org/doc/qt-4.8/designer-using-a-ui-file.html#widgets-and-dialogs-with-auto-connect
self.setupUi(self)
self._plugin = plugin
self._debugger = Debugger()
def update_state(self, eventObj):
if eventObj.type not in (MOUSEMOTION, MOUSEBUTTONUP, MOUSEBUTTONDOWN) or not self._visible:
return
if eventObj.type == pg.MOUSEBUTTONDOWN:
self._mouseDown = True
if eventObj.type == pg.MOUSEBUTTONUP and self._mouseDown:
mouse_pos = pg.mouse.get_pos()
if self._topLeft[0] <= mouse_pos[0]-self._pos_offset[0] <= self._topLeft[0]+self._rect.width \
and self._topLeft[1] <= mouse_pos[1]-self._pos_offset[1] <= self._topLeft[1]+self._rect.height:
DEBUG.log("Button {} pressed".format(self.text), level=3)
self.buttonPressed = True
def run() -> None:
"""
launches all tasks for debugger
"""
parameters = get_parameters()
analyzer = Analyzer(parameters.binary,
logs=vars(parameters).get("output-file"))
analyzer.run()
binary_infos = analyzer.get()
check_elf(binary_infos)
debugger = Debugger(binary_infos)
debugger.run()
def exist(state):
def key(y):
dxy = np.fabs(y.state[:-1] - s[:-1])
da = ((y.state[-1] + np.pi) %
(2 * np.pi) - np.pi) - ((s[-1] + np.pi) %
(2 * np.pi) - np.pi)
return dxy[0] < self.exist_res and dxy[
1] < self.exist_res and da < self.exist_res
s = np.array(state)
result = filter(key, self.vertices)
Debugger.breaker('sample exclusive: {}'.format(result == []),
switch=self.debug)
return result
def show_textbox_at_centre(centre_screen, prompt, time):
centre_screen.fill(BACKGROUND_COLOUR)
textbox = eztext.Input(
font=pg.font.Font(None, 30),
color=BLACK,
maxlength=0,
prompt=prompt,
x=0,
y=0,
)
textbox.draw(textbox.get_centre_surface(centre_screen))
#textbox.update(pg.event.get())
DEBUG.log("Displaying textbox with message '{}'".format(prompt), level=2)
pg.display.flip()
pg.time.delay(time)
def TestBench(steps, *args):
# useful values
# clock
clk = Signal(bool(0))
clkDriver = ClkDriver(clk=clk,
period=2)
# counter
cnt = Signal(intbv(0, min=0, max=steps+2))
counter = Counter(clk=clk,
cnt=cnt)
# Template
template = Template(clk=clk)
# debugger
debugger = Debugger(period=1,
funcs={"cnt":lambda c: str(int(c)),
"clk":lambda c: str(int(c)),
},
cnt=cnt,
clk=clk,
)
@instance
def tests():
for i in range(steps):
yield delay(1)
return instances()
def test_get_analysis_calls_correct_things():
''' ensure that getAnalysis() calls getStackTrace()/getRawAnalysis() '''
with unittest.mock.patch('debugger.Debugger.getStackTrace') as gst:
with unittest.mock.patch('debugger.Debugger.getRawAnalysis') as gra:
assert Debugger('', '').getAnalysis()
gra.assert_called_once()
gst.assert_called_once()
def main(experiment_meta_data, data_info):
print(
f'Parsing the {experiment_meta_data} to obtain model and parameters.')
experiments_data = json.load(open(experiment_meta_data, 'r'))
dataset_meta = json.load(open(data_info, 'r'))
debugger = Debugger(experiments_data[DEBUG_STATUS])
print(experiments_data)
print(dataset_meta)
data_frame = InputOutputFrame(debugger, dataset_meta[INPUT_LOCATION], dataset_meta[OUTPUT_LOCATION], dataset_meta[FOLDS_LOCATION], \
dataset_meta[MAX_SENTENCES_PER_AUTHOR], dataset_meta[MIN_PADDING_PER_AUTHOR], nrows=get_optional(dataset_meta, NUMBER_OF_ROWS))
models_name = experiments_data[MODELS_NAME]
output_directory = get_output_directory_name(
experiments_data[OUTPUT_DIRECTORYS_LOCATION], models_name)
if (not os.path.isdir(output_directory)):
os.makedirs(output_directory)
print("Starting the experiments.")
experiment = Experiment(debugger, output_directory,get_optional(experiments_data,RESULTS_IMPORT_LOCATION), data_frame, experiments_data[BALANCE_DATA], experiments_data[EXPERIMENTS_NAME], models_name,\
experiments_data[RUN_IDENTIFICATOR], experiments_data[FOLDS], experiments_data[PREDICTION_TYPE], experiments_data[TARGETS], experiments_data[OPTIMIZATION_PARAMETERS],\
experiments_data[PRINT_BATCH_STATUS], experiments_data[MAX_CONSTANT_F1], experiments_data[NUMBER_OF_EPOCHS], experiments_data[DECAY_RATE], experiments_data[DECAY_EPOCH],\
experiments_data[VALIDATION_SET_PERCENTAGE], experiments_data[CUDA_DEVICE], experiments_data[USE_GPU], experiments_data[RANDOM_STATE])
experiment.start()
print("Experiment finished!")
def __init__(self):
QtGui.QMainWindow.__init__(self)
self.init_ui()
self.save_restore_state(False)
self.cfg_window = RunConfigWindow()
self.about_dialog = AboutDialog()
self.pty_stdout = PtyView(self.ui.commander)
stdout_path = self.pty_stdout.get_file_path()
self.debugger = Debugger(stdout_path, stdout_path, self.cfg_window.working_dir)
self.ui.commander.set_tab_comp_handler(self.debugger.complete_tab)
self.last_highlighted_editor = None
self.my_listener = MyListeningThread(self.debugger.dbg, self.FocusLine)
self.FocusLine.connect(self.do_focus_line)
self.my_listener.StateChanged.connect(self.on_state_changed)
self.my_listener.BPChanged.connect(self.on_bp_changed)
self.debugger.listener = self.my_listener
self.my_listener.start()
self.opened_files = {}
self.bp_locations = {}
args = Qt.qApp.arguments()
self.cfg_window.working_dir = os.getcwd()
if len(args) > 1:
self.do_exe_file_open(args[1])
if len(args) > 2:
self.cfg_window.arglist = [str(x) for x in args[2:]]
logging.info('Ready')
def debugger_init(debug=0):
global debugger
# get needed vim variables
# port that the engine will connect on
port = int(vim.eval('debuggerPort'))
if port == 0:
port = 9000
# the max_depth variable to set in the engine
max_children = vim.eval('debuggerMaxChildren')
if max_children == '':
max_children = '32'
max_data = vim.eval('debuggerMaxData')
if max_data == '':
max_data = '1024'
max_depth = vim.eval('debuggerMaxDepth')
if max_depth == '':
max_depth = '1'
minibufexpl = int(vim.eval('debuggerMiniBufExpl'))
if minibufexpl == 0:
minibufexpl = 0
debugger = Debugger(port, max_children, max_data, max_depth, minibufexpl,
debug)
def collision_free(self, x_from,
x_to): # type: (StateNode, StateNode) -> bool
"""check if the path from one state to another state collides with any obstacles or not."""
# making contours of the curve
states = reeds_shepp.path_sample(x_from.state, x_to.state,
1. / self.maximum_curvature, 0.3)
# states.append(tuple(x_to.state)) # include the end point
contours = [
self.transform(self.check_poly, s[0], s[1], s[2]) for s in states
]
contours = [
np.floor(con / self.grid_res +
self.grid_map.shape[0] / 2.).astype(int)
for con in contours
]
# making mask
mask = np.zeros_like(self.grid_map, dtype=np.uint8)
[cv2.fillPoly(mask, [con], 255) for con in contours]
# checking
result = np.bitwise_and(mask, self.grid_map)
Debugger().debug_collision_checking(states,
self.check_poly,
np.all(result < self.obstacle),
switch=self.debug)
return np.all(result < self.obstacle)
def recheck(x):
available, cost = self.collision_free(x_new,
x), self.cost(x_new, x)
if available and x.g > x_new.g + cost:
Debugger().debug_rewiring(x, x_new.g + cost, switch=self.debug)
x.g = x_new.g + cost
x.fu, x.fl = x.g + x.hu, x.g + x.hl
x.rematch(x_new)
def main():
opt = parse_command_line_args()
if opt.disassemble is not None:
if opt.disassemble == "boot":
opt.disassemble = opt.boot_rom
binary = load_binary(opt.disassemble)
print("Disassembly of %s\n" % os.path.relpath(opt.disassemble))
disassemble(binary, opt.start_address)
sys.exit(0)
if opt.cartridge is not None:
log("Loading boot ROM from %s" % os.path.relpath(opt.boot_rom))
boot = load_binary(opt.boot_rom)
log("Loading cartridge from %s" % os.path.relpath(opt.cartridge))
binary = load_binary(opt.cartridge)
cartridge = Cartridge(binary)
log(cartridge)
log("Booting Gameboy")
gameboy = Gameboy(cartridge,
boot,
no_display=opt.no_display,
zoom=opt.zoom)
if opt.skip_boot:
set_boot(gameboy)
gameboy.memory.boot_rom_active = False
if opt.debug:
Debugger(gameboy).run()
sys.exit(0)
else:
try:
gameboy.cpu.run()
except EmulatorError as e:
log("\n** Exception: %s" % str(e).strip())
Debugger(gameboy).run()
except Exception as e:
log("\n** Exception: %s" % str(e).strip())
gameboy.cpu.print_registers()
log("")
raise
def planning(self, times, repeat=10, optimize=False, debug=False):
"""main flow."""
self.debug = debug
past = time.time()
for i in range(times):
x_new = self.sample_free(i, repeat)
x_nearest = self.nearest(x_new) if not optimize else self.least(
x_new)
if x_nearest and self.benefit(x_new) and self.collision_free(
x_nearest, x_new):
self.attach(x_nearest, x_new)
self.rewire(x_new)
self.x_best = self.best()
self.branch_and_bound()
Debugger().debug_planned_path(self, i, switch=self.debug)
Debugger().debug_planning_hist(self,
i, (time.time() - past),
switch=True)
def branch_and_bound(self, space=None):
def out(x):
vertices.remove(x)
x.remove()
vertices = space if space else self.vertices
vs = filter(lambda x: x.fl > self.x_best.fu + self.epsilon, vertices)
map(out, vs)
Debugger().debug_branch_and_bound(vs, switch=self.debug)
def __init__(self):
super(MainWindow, self).__init__()
self.debugger = Debugger(DummyCpu())
self.ui = uic.loadUi('gui.ui', self)
self.ui.editor.setReadOnly(True)
# nearly (all) connects are done via qtdesigner
self.ui.editor.breakpointSet.connect(self.breakpointSet)
self.ui.editor.breakpointRemoved.connect(self.breakpointRemoved)
#TODO register on registerlabels
for i in ['Z', 'N', 'C', 'V']:
getattr(self.ui, i).toggled.connect(
partial(
lambda flag, state: setattr(self.debugger, flag, state),
i))
self.updateDisplay()
def __init__(self, plugin, parent=None):
"""Constructor."""
super(RemoteDebugDialog, self).__init__(parent)
# Set up the user interface from Designer.
# After setupUI you can access any designer object by doing
# self.<objectname>, and you can use autoconnect slots - see
# http://qt-project.org/doc/qt-4.8/designer-using-a-ui-file.html#widgets-and-dialogs-with-auto-connect
self.setupUi(self)
self._plugin = plugin
self._debugger = Debugger()
def swap(self, i):
self.branch_and_bound(self.g_vertices)
self.branch_and_bound(self.s_vertices)
if self.root is self.start:
self.root = self.goal
self.gain = self.start
self.vertices = self.g_vertices
n = -((i / 2) % len(self.heuristic)) - 1 if self.heuristic else i
Debugger.breaker('swap: goal -> start, {}, {}'.format(i, n),
self.debug)
return n
else:
self.root = self.start
self.gain = self.goal
self.vertices = self.s_vertices
n = (i / 2) % len(self.heuristic) if self.heuristic else i
Debugger.breaker('swap: start -> goal, {}, {}'.format(i, n),
self.debug)
return n
def is_free(state):
contour = self.transform(self.check_poly, state[0], state[1],
state[2])
contour = np.floor(contour / self.grid_res +
self.grid_map.shape[0] / 2.).astype(int)
mask = np.zeros_like(self.grid_map, dtype=np.uint8)
cv2.fillPoly(mask, [contour], 255)
result = np.bitwise_and(mask, self.grid_map)
Debugger().breaker(
'sample free: {}'.format(np.all(result < self.obstacle)),
self.debug)
return np.all(result < self.obstacle)
def setDebugMode(self):
"""Set the debug mode, creating a debugger an setting it up as a proxy."""
self.debugMode = True
self.debugger = Debugger(self, self.interpreter)
# Set the debugger as a proxy.
self.interpreter = self.debugger
# Create a logging handler for debugging messages.
debugHandler = logging.StreamHandler(sys.stdout)
debugHandler.setFormatter(logging.Formatter(self.formatStr))
debugHandler.setLevel(logging.DEBUG)
self.logger.addHandler(debugHandler)
def roll_dice(self, centre_screen, event_type):
"""
:param centre_screen: (Surface) centre screen area
:param event_type: (int) EVENT_GO_FORWARD, EVENT_GOLD, or EVENT_MONSTER_FIGHT
:return: random number from 1~6
"""
centre_screen.fill(BACKGROUND_COLOUR)
# set up textbox for rolling dice
dice_roll_textbox = self.get_dice_roll_textbox(event_type)
centre_of_centre = dice_roll_textbox.get_centre_surface(centre_screen)
dice_roll_textbox.draw(centre_of_centre)
pg.display.update(centre_screen.get_rect(topleft=(TILE_WIDTH, TILE_HEIGHT)))
# dice rolling loop
while True:
DEBUG.log("Waiting for player to roll dice", level=3)
for event in pg.event.get():
if event.type == pg.QUIT:
pg.quit()
sys.exit()
elif event.type == pg.MOUSEBUTTONDOWN:
DEBUG.log("Mouse pressed to roll dice", level=2)
dice_number = Player.get_dice_number()
if not SKIP_DICE_GRAPHICS:
Player.show_dice_graphics(centre_screen, dice_number)
return dice_number
elif event.type == pg.KEYDOWN and event.key == pg.K_RETURN:
DEBUG.log("Pressed enter to show status", level=2)
self.show_status(centre_screen)
# go back to dice roll / status show UI
dice_roll_textbox.draw(centre_of_centre)
pg.display.update(centre_screen.get_rect(topleft=(TILE_WIDTH, TILE_HEIGHT)))
def main(argv=None):
"""Popuplate options on the class from sys.argv"""
if not argv:
argv = sys.argv[1:]
parser = make_parser()
args = parser.parse_args(argv)
Debugger(project=args.project,
host=args.host,
port=args.port,
setup_project=setup_project,
project_options=args.options).run()
def test_zexdoc(self):
print(">>> RUNNING ZEXDOC")
debugger = Debugger()
debugger.stopOnError = False
debugger.setHook(0x5, self.systemFunction)
debugger.setHook(0x0, self.stop)
rom = ROM(mapAt=0x100)
rom.loadFrom('./zexdoc.com', False)
cpu = CPU(rom=rom, debugger=debugger)
cpu.SP = 0xF000
cpu.run(0x100)
self.assertTrue(True)
def openNewFile(self):
filename = QFileDialog.getOpenFileName(
self,
'Open File',
filter=
"Compiled/Debug Files (*.out.dbg *.s.out) (*.out.dbg *.out);;All Files (*)"
)
if filename != '':
self.debugger = Debugger.loadFromFile(str(filename),
memorysize=1024 * 1024)
self.ui.ram.setData(''.join(map(chr, self.debugger.ram)))
self.ui.editor.setText(self.debugger.fileContent())
self.ui.editor.resetMarker()
self.updateDisplay()
def attach(self, x_nearest, x_new): # type: (StateNode, StateNode) -> None
"""add the new state to the tree and complement other values.
And fill the hu and fu properties of x_new.
"""
x_new.match(x_nearest)
available = self.collision_free(x_new, self.gain)
x_new.hu = x_new.hl if available else np.inf
x_new.fu = x_new.g + x_new.hu
x_new.status = 0 if available else 1
self.vertices.append(x_new)
Debugger().debug_attaching(x_nearest,
x_new,
1. / self.maximum_curvature,
switch=self.debug)
def rewire(self, x_new, gamma=0.2): # type: (StateNode, float) -> None
"""rewiring tree by the new state."""
def recheck(x):
available, cost = self.collision_free(x_new,
x), self.cost(x_new, x)
if available and x.g > x_new.g + cost:
Debugger().debug_rewiring(x, x_new.g + cost, switch=self.debug)
x.g = x_new.g + cost
x.fu, x.fl = x.g + x.hu, x.g + x.hl
x.rematch(x_new)
xs = filter(lambda x: x.g > x_new.g + gamma, self.vertices)
Debugger().debug_rewiring_check(xs, x_new, switch=self.debug)
map(recheck, xs)
def process_monster_fight(self, fight_scene_surface, data, fight_condition_num):
monster_fight_scene_textbox = eztext.Input(
font=pg.font.Font(None, 25),
maxlength=0,
)
monster_current_hp = data[MONSTER_HEALTH]
# monster attacks first
MONSTER_TURN = 0
PLAYER_TURN = 1
turn = 0
while True:
fight_scene_surface.fill(BACKGROUND_COLOUR)
monster_fight_scene_textbox.set_prompt("{}:{}/{}, {}:{}/{}".format(
self.player_name, max(self.current_health, 0), self.full_health,
data[MONSTER_NAME], max(monster_current_hp, 0), data[MONSTER_HEALTH]
))
monster_fight_scene_textbox.draw(fight_scene_surface)
pg.display.flip()
DEBUG.log("Fighting with monster, {}:{}/{} {}:{}/{}".format(
self.player_name, max(self.current_health, 0), self.full_health,
data[MONSTER_NAME], max(monster_current_hp, 0), data[MONSTER_HEALTH]), level=2)
pg.time.delay(300)
if self.current_health <= 0:
self.die(fight_scene_surface)
break
elif monster_current_hp <= 0:
self.win(fight_scene_surface, data)
break
if turn % 2 == MONSTER_TURN:
self.current_health -= (data[MONSTER_ATTACK] - self.current_defence)
elif turn % 2 == PLAYER_TURN:
monster_current_hp -= (int(self.current_attack*(9+fight_condition_num)/10) - data[MONSTER_DEFENCE])
turn += 1
def start(self):
DEBUG.log("Game started", level=1)
self.board.draw(self.whole_screen)
self.update_player_pos()
# main loop (one turn per iteration)
while True:
for event in pg.event.get():
if event.type == pg.QUIT:
pg.quit()
sys.exit()
# determine who plays this turn
which_player_turn = self.turn % self.num_players
player = self.players[which_player_turn]
# process dice rolling
dice_result = player.roll_dice(self.centre_screen, EVENT_GO_FORWARD)
# clear the centre screen and the tile that the player was in, because the player's not there anymore
self.centre_screen.fill(BACKGROUND_COLOUR)
self.board.tiles[player.position].draw(self.whole_screen)
player.position += dice_result
DEBUG.log("Player {}, moving to position {}".format(which_player_turn+1, player.position), level=1)
if player.position >= len(self.board.tiles):
break
self.update_player_pos()
action_result = player.invoke_tile_action(self.centre_screen, tile_data[player.position])
if action_result == ACTION_RESULT_DIE:
# if died, clear the player token from the tile
self.board.tiles[player.died_position].draw(self.whole_screen)
self.update_player_pos()
self.turn += 1
def nearest(self, x_rand): # type: (StateNode) -> StateNode
"""find the state in the tree which is nearest to the sampled state.
And fill the g, hl and fl properties of the sampled state.
"""
def replenish(x_n, x_r):
x_r.g, x_r.hl = x_n.g + self.cost(x_n, x_r), self.cost(
x_r, self.gain)
x_r.fl = x_r.g + x_r.hl
# quick shot
if self.collision_free(self.root, x_rand):
x_nearest = self.root
else:
costs = list(map(lambda x: self.cost(x, x_rand), self.vertices))
x_nearest = self.vertices[int(np.argmin(costs))]
replenish(x_nearest, x_rand)
Debugger().debug_nearest_searching(x_nearest.state, switch=self.debug)
return x_nearest
def connect_graphs(self, x_new):
if self.root is self.start:
vs = self.g_vertices
else:
vs = self.s_vertices
costs = map(lambda x: self.cost(x_new, x), vs)
x_nearest, cost = vs[int(np.argmin(costs))], np.min(costs)
Debugger().debug_connect_graphs(x_nearest.state,
x_new.g + cost + x_nearest.g,
self.x_best.fu,
switch=self.debug)
if x_new.g + cost + x_nearest.g < self.x_best.fu:
if self.collision_free(x_new, x_nearest):
x_nearest.fu = x_new.fu = x_new.g + cost + x_nearest.g
x_new.hu = x_new.fu - x_new.g
x_nearest.hu = x_nearest.fu - x_nearest.g
x_new.neighbor = x_nearest
x_nearest.neighbor = x_new
self.x_best = x_new
def shop_initial_dialog(self, centre_screen, tile_value):
centre_screen.fill(BACKGROUND_COLOUR)
button_rect = pg.Rect(0, 0, 240, 60)
buy_button = Button(
centre_screen,
(centre_screen.get_width()/2, centre_screen.get_height()/2 - button_rect.height),
"Buy", 20, rect=button_rect, pos_offset=(TILE_WIDTH, TILE_HEIGHT))
sell_button = Button(
centre_screen,
(centre_screen.get_width()/2, centre_screen.get_height()/2),
"Sell", 20, rect=button_rect, pos_offset=(TILE_WIDTH, TILE_HEIGHT))
leave_button = Button(
centre_screen, (centre_screen.get_width()/2, centre_screen.get_height()/2 + button_rect.height),
"Leave", 20, rect=button_rect, pos_offset=(TILE_WIDTH, TILE_HEIGHT))
buy_button.update()
sell_button.update()
leave_button.update()
pg.display.update(centre_screen.get_rect(topleft=(TILE_WIDTH, TILE_HEIGHT)))
while True:
for event in pg.event.get():
if event.type == pg.QUIT:
pg.quit()
sys.exit()
buy_button.update_state(event)
sell_button.update_state(event)
leave_button.update_state(event)
if buy_button.buttonPressed:
DEBUG.log("Buy button pressed", level=2)
centre_screen.fill(BACKGROUND_COLOUR)
self.shop_action_buy(centre_screen, tile_value)
break
elif sell_button.buttonPressed:
DEBUG.log("Sell button pressed", level=2)
centre_screen.fill(BACKGROUND_COLOUR)
self.shop_action_sell(centre_screen)
break
elif leave_button.buttonPressed:
DEBUG.log("Leave button pressed", level=2)
self.action_result = ACTION_RESULT_SHOP_LEAVE
# escape recursion if leaving
return
# recursive process for buying/selling
self.shop_initial_dialog(centre_screen, tile_value)
def emerge():
if self.heuristic:
i = n % len(self.heuristic)
state, biasing = self.heuristic[i]
rand = [state[0], state[1], state[2]] # [x_o, y_o, a_o]
(x_mu, x_sigma), (y_mu, y_sigma), (a_mu, a_sigma) = biasing
rand[0] += np.random.normal(x_mu, x_sigma)
rand[1] += np.random.normal(y_mu, y_sigma)
rand[2] += np.random.normal(a_mu, a_sigma)
return rand
else:
Debugger().debug_no_heuristic(vertex.state, default,
self.debug)
rand = [vertex.state[0], vertex.state[1], vertex.state[2]]
(r_mu, r_sigma), (t_mu, t_sigma), (a_mu, a_sigma) = default
r, theta = np.random.normal(
r_mu, r_sigma), np.random.normal(t_mu, t_sigma) + rand[2]
rand[0] += r * np.cos(theta)
rand[1] += r * np.sin(theta)
rand[2] += np.random.normal(a_mu, a_sigma)
return rand
def detect_video(yolo, video_path, output_path=""):
debug = Debugger()
vid = cv2.VideoCapture(video_path)
if not vid.isOpened():
raise IOError("Couldn't open webcam or video")
video_FourCC = int(vid.get(cv2.CAP_PROP_FOURCC))
video_fps = vid.get(cv2.CAP_PROP_FPS)
video_size = (int(vid.get(cv2.CAP_PROP_FRAME_WIDTH)),
int(vid.get(cv2.CAP_PROP_FRAME_HEIGHT)))
isOutput = True if output_path != "" else False
if isOutput:
print("!!! TYPE:", type(output_path), type(video_FourCC), type(video_fps), type(video_size))
out = cv2.VideoWriter(output_path, video_FourCC, video_fps, video_size)
accum_time = 0
curr_fps = 0
fps = "FPS: ??"
frm_num = 0
prev_time = timer()
while True:
return_value, frame = vid.read()
if frame is None:
break
image = Image.fromarray(frame)
image,boxes,confidence,classID = yolo.detect_image(image)
result = np.asarray(image)
curr_time = timer()
exec_time = curr_time - prev_time
prev_time = curr_time
accum_time = accum_time + exec_time
curr_fps = curr_fps + 1
if accum_time > 1:
accum_time = accum_time - 1
fps = "FPS: " + str(curr_fps)
curr_fps = 0
cv2.putText(result, text=fps, org=(3, 15), fontFace=cv2.FONT_HERSHEY_SIMPLEX,
fontScale=0.50, color=(255, 0, 0), thickness=2)
cv2.namedWindow("result", cv2.WINDOW_NORMAL)
cv2.imshow("result", result)
if isOutput:
out.write(result)
debug.store_detected_bounding_boxes(boxes,confidence,classID,frm_num)#detections are stored per frame slicing
if cv2.waitKey(1) & 0xFF == ord('q'):
break
frm_num += 1
debug.write_detection()
print("Finished Detection on Video, total frames detected:", frm_num)
yolo.close_session()
async def __debugger_create_worker(self):
app_dir = os.getcwd()
log_dir = self.__log_dir or app_dir
log_level = self.__log_level
debugger = f"{app_dir}\\debugger.exe" if platform.system(
) == "Windows" else f"{app_dir}/debugger"
cmd = f"{debugger} --log_level {log_level} --log_dir {log_dir} --mode debug"
while self.__proc_idle is None:
try:
debugger = Debugger(
self.__loop,
self.__server,
)
await debugger.create_process(cmd)
self.__proc_idle = debugger
loggers.get(MODUE_NAME).info(
f"Subprocess({debugger.pid}) is created.")
except Exception as e:
self.__proc_idle = None
loggers.get(MODUE_NAME).exception(e)
class VM:
"""This class encapsulates all the VM processing."""
def __init__(self):
self.setUpLogging()
# Program counter: position of the next instruction to execute.
self.PC = 0
self.endAddress = 0
# Structure of the stores used in the vm.
self.variables = {}
self.code = []
self.rulesCode = []
self.macrosCode = []
self.preprocessCode = []
self.trie = SystemTrie()
# Current code section in execution (a macro, a rule, ...).
self.currentCodeSection = self.code
# Execution state of the vm.
self.status = VM_STATUS.HALTED
# Transfer stage (chunker, interchunk or postchunk).
self.transferStage = None
# Chunker mode to process in shallow mode or advanced transfer.
self.chunkerMode = None
# Input will be divided in words with their patterns information.
self.words = []
self.superblanks = []
self.lastSuperblank = -1
self.currentWords = []
self.nextPattern = 0
# Components used by the vm.
self.tokenizer = None
self.callStack = CallStack(self)
self.stack = SystemStack()
self.loader = None
self.interpreter = Interpreter(self)
# Components used only in debug mode.
self.debugger = None
self.debugMode = False
self.input = sys.stdin
# We use 'buffer' to get a stream of bytes, not str, because we want to
# encode it using utf-8 (just for safety).
self.output = sys.stdout.buffer
def setUpLogging(self):
"""Set at least an error through stderr logger"""
self.formatStr = "%(levelname)s: %(filename)s[%(lineno)d]:\t%(message)s"
self.logger = logging.getLogger("vm")
errorHandler = logging.StreamHandler(sys.stderr)
errorHandler.setFormatter(logging.Formatter(self.formatStr))
errorHandler.setLevel(logging.ERROR)
self.logger.addHandler(errorHandler)
def setDebugMode(self):
"""Set the debug mode, creating a debugger an setting it up as a proxy."""
self.debugMode = True
self.debugger = Debugger(self, self.interpreter)
# Set the debugger as a proxy.
self.interpreter = self.debugger
# Create a logging handler for debugging messages.
debugHandler = logging.StreamHandler(sys.stdout)
debugHandler.setFormatter(logging.Formatter(self.formatStr))
debugHandler.setLevel(logging.DEBUG)
self.logger.addHandler(debugHandler)
def setLoader(self, header, t1xFile):
"""Set the loader to use depending on the header of the code file."""
if "assembly" in header:
self.loader = AssemblyLoader(self, t1xFile)
else:
return False
return True
def setTransferStage(self, transferHeader):
"""Set the transfer stage to process by the vm."""
if "transfer" in transferHeader:
self.transferStage = TRANSFER_STAGE.CHUNKER
self.tokenizer = TransferWordTokenizer()
# Set chunker mode, by default 'lu'.
if "chunk" in transferHeader:
self.chunkerMode = CHUNKER_MODE.CHUNK
else:
self.chunkerMode = CHUNKER_MODE.LU
elif "interchunk" in transferHeader:
self.transferStage = TRANSFER_STAGE.INTERCHUNK
self.tokenizer = ChunkWordTokenizer()
elif "postchunk" in transferHeader:
self.transferStage = TRANSFER_STAGE.POSTCHUNK
self.tokenizer = ChunkWordTokenizer(solveRefs=True, parseContent=True)
def tokenizeInput(self):
"""Call to the tokenizer to divide the input in tokens."""
self.words, self.superblanks = self.tokenizer.tokenize(self.input)
def initializeVM(self):
"""Execute code to initialize the VM, e.g. default values for vars."""
self.PC = 0
self.status = VM_STATUS.RUNNING
while self.status == VM_STATUS.RUNNING and self.PC < len(self.code):
self.interpreter.execute(self.code[self.PC])
def getSourceWord(self, pos):
"""Get the part of a source word needed for pattern matching, depending
on the transfer stage."""
if self.transferStage == TRANSFER_STAGE.CHUNKER:
return self.words[pos].source.lu
elif self.transferStage == TRANSFER_STAGE.INTERCHUNK:
word = self.words[pos].chunk
return word.attrs["lem"] + word.attrs["tags"]
else:
return self.words[pos].chunk.attrs["lem"]
def getNextInputPattern(self):
"""Get the next input pattern to analyze, lowering the lemma first."""
try:
pattern = self.getSourceWord(self.nextPattern)
tag = pattern.find("<")
pattern = pattern[:tag].lower() + pattern[tag:]
self.nextPattern += 1
except IndexError:
return None
return pattern
def getUniqueSuperblank(self, pos):
"""Get the superblank at pos avoiding duplicates."""
try:
if pos != self.lastSuperblank:
self.lastSuperblank = pos
return self.superblanks[pos]
except IndexError:
pass
return ""
def selectNextRule(self):
"""Select the next rule to execute depending on the transfer stage."""
if self.transferStage == TRANSFER_STAGE.POSTCHUNK:
self.selectNextRulePostChunk()
else:
self.selectNextRuleLRLM()
def selectNextRulePostChunk(self):
"""Select the next rule trying to match patterns one by one."""
# Go through all the patterns until one matches a rule.
while self.nextPattern < len(self.words):
startPatternPos = self.nextPattern
pattern = self.getNextInputPattern()
ruleNumber = self.trie.getRuleNumber(pattern)
if ruleNumber is not None:
# print('Pattern "{}" match rule: {}'.format(pattern, ruleNumber))
self.setRuleSelected(ruleNumber, startPatternPos, pattern)
return
else:
self.processUnmatchedPattern(self.words[startPatternPos])
# if there isn't any rule at all to execute, stop the vm.
self.status = VM_STATUS.HALTED
def selectNextRuleLRLM(self):
"""Select the next rule to execute matching the LRLM pattern."""
longestMatch = None
nextPatternToProcess = self.nextPattern
# Go through all the patterns until one matches a rule.
while self.nextPattern < len(self.words):
startPatternPos = self.nextPattern
# Get the next pattern to process
pattern = self.getNextInputPattern()
curNodes = self.trie.getPatternNodes(pattern)
nextPatternToProcess += 1
# Get the longest match, left to right
fullPattern = pattern
while len(curNodes) > 0:
# Update the longest match if needed.
ruleNumber = self.trie.getRuleNumber(fullPattern)
if ruleNumber is not None:
longestMatch = ruleNumber
nextPatternToProcess = self.nextPattern
# Continue trying to match current pattern + the next one.
pattern = self.getNextInputPattern()
if pattern:
fullPattern += pattern
nextNodes = []
for node in curNodes:
nextNodes.extend(self.trie.getPatternNodes(pattern, node))
curNodes = nextNodes
# If the pattern doesn't match, we will continue with the next one.
# If there is a match of a group of patterns, we will continue with
# the last unmatched pattern.
self.nextPattern = nextPatternToProcess
# Get the full pattern matched by the rule.
if self.nextPattern < len(self.words):
end = fullPattern.find(self.getSourceWord(self.nextPattern))
if end > 0:
fullPattern = fullPattern[:end]
# If there is a longest match, set the rule to process
if longestMatch is not None:
# print('Pattern "{}" match rule: {}'.format(fullPattern, longestMatch))
self.setRuleSelected(longestMatch, startPatternPos, fullPattern)
return
# Otherwise, process the unmatched pattern.
else:
self.processUnmatchedPattern(self.words[self.nextPattern - 1])
longestMatch = None
# if there isn't any rule at all to execute, stop the vm.
self.status = VM_STATUS.HALTED
def setRuleSelected(self, ruleNumber, startPos, pattern):
"""Set a rule and its words as current ones."""
# Output the leading superblank of the matched pattern.
self.writeOutput(self.getUniqueSuperblank(startPos))
# Add only a reference to the index pos of words, to avoid copying them.
wordsIndex = []
while startPos != self.nextPattern:
wordsIndex.append(startPos)
startPos += 1
# Create an entry in the call stack with the rule to execute.
self.callStack.push("rules", ruleNumber, wordsIndex)
if self.debugMode:
self.debugger.ruleSelected(pattern, ruleNumber)
def processRuleEnd(self):
"""Do all the processing needed when rule ends."""
# Output the trailing superblank of the matched pattern.
self.writeOutput(self.getUniqueSuperblank(self.nextPattern))
def processUnmatchedPattern(self, word):
"""Output unmatched patterns as the default form."""
default = ""
# Output the leading superblank of the unmatched pattern.
default += self.getUniqueSuperblank(self.nextPattern - 1)
# For the chunker, output the default version of the unmatched pattern.
if self.transferStage == TRANSFER_STAGE.CHUNKER:
# If the target word is empty, we don't need to output anything.
if word.target.lu != "":
wordTL = "^" + word.target.lu + "$"
if self.chunkerMode == CHUNKER_MODE.CHUNK:
if wordTL[1] == "*":
default += "^unknown<unknown>{" + wordTL + "}$"
else:
default += "^default<default>{" + wordTL + "}$"
else:
default += wordTL
# For the interchunk stage only need to output the complete chunk.
elif self.transferStage == TRANSFER_STAGE.INTERCHUNK:
default += "^" + word.chunk.lu + "$"
# Lastly, for the postchunk stage output the lexical units inside chunks
# with the case of the chunk pseudolemma.
else:
default += word.chunk.attrs["chcontent"][1:-1]
# Output the trailing superblank of the matched pattern.
default += self.getUniqueSuperblank(self.nextPattern)
self.writeOutput(default)
def terminateVM(self):
"""Do all the processing needed when the vm is being turned off."""
pass
def writeOutput(self, string):
"""A single entry point to write strings to the output."""
self.output.write(string.encode("utf-8"))
def run(self):
"""Load, preprocess and execute the contents of the files."""
try:
self.loader.load()
self.interpreter.preprocess()
self.initializeVM()
self.tokenizeInput()
if self.debugMode:
self.debugger.start()
# Select the first rule. If there isn't one, the vm work has ended.
if self.status == VM_STATUS.RUNNING:
self.selectNextRule()
while self.status == VM_STATUS.RUNNING:
# Execute the rule selected until it ends.
while self.status == VM_STATUS.RUNNING and self.PC < self.endAddress:
self.interpreter.execute(self.currentCodeSection[self.PC])
self.processRuleEnd()
# Select the next rule to execute.
if self.status == VM_STATUS.RUNNING:
self.selectNextRule()
except (Exception) as e:
self.logger.exception(e)
exit(1)
self.terminateVM()
def printCodeSections(self):
"""Print all the code sections for information or debugging purposes."""
self.loader.printSection(self.code, "Code")
self.loader.printSection(self.preprocessCode, "Preprocess")
self.loader.printSection(self.rulesCode, "Rules", enum=True)
self.loader.printSection(self.macrosCode, "Macros", enum=True)
def shop_action_buy(self, centre_screen, tile_value):
shop_type = tile_value[TILE_ITEM_TYPE]
data = tile_value[TILE_ITEM_DATA]
item_count = len(data) + 1 # last item is "Cancel" button
DEBUG.log("Number of items in this shop: {}".format(item_count-1), level=1)
button_rect = pg.Rect(0, 0, 300, 40)
centre_screen.fill(BACKGROUND_COLOUR)
item_button_list = []
for item_index in range(item_count):
y_pos = centre_screen.get_height()/2 - ((item_count/2-item_index) * button_rect.height)
if item_index == item_count-1:
item_name = "Cancel"
else:
item_name = data[item_index][ITEM_NAME]
if shop_type is TILE_WEAPON_SHOP:
item_name += " ATT:" + str(data[item_index][ITEM_POINT])
elif shop_type is TILE_ARMOR_SHOP:
item_name += " DEF:" + str(data[item_index][ITEM_POINT])
item_name += " " + str(data[item_index][ITEM_PRICE]) + "G"
DEBUG.log("Item name: {}".format(item_name), level=2)
item_button = Button(
centre_screen, (centre_screen.get_width()/2, y_pos),
item_name, 14, rect=button_rect, pos_offset=(TILE_WIDTH, TILE_HEIGHT))
if item_name != "Cancel":
try:
item_button.insert_picture((0, 0), os.path.join(ITEM_IMG_FILE_PATH, data[item_index][ITEM_FILENAME]))
except RuntimeError as e:
DEBUG.log(e, level=1)
try:
item_button.insert_picture((0, 0), 'smile.png')
except:
raise Exception
item_button.update()
item_button_list.append(item_button)
pg.display.update(centre_screen.get_rect(topleft=(TILE_WIDTH, TILE_HEIGHT)))
while True:
for event in pg.event.get():
if event.type == pg.QUIT:
pg.quit()
sys.exit()
for button in item_button_list:
button.update_state(event)
bought_item = None
for button_index in range(len(item_button_list)):
if item_button_list[button_index].buttonPressed:
DEBUG.log("{}'th button pressed".format(button_index+1), level=2)
if item_button_list[button_index].text == "Cancel":
DEBUG.log("Cancel clicked", level=2)
return
else:
bought_item = data[button_index]
DEBUG.log("Item {} clicked".format(bought_item[ITEM_NAME]), level=2)
break
if bought_item:
if bought_item[ITEM_PRICE] >= self.gold:
DEBUG.log("Item too expensive.", level=1)
self.show_textbox_at_centre(
centre_screen, "You don't have enough gold.", 1500)
self.shop_action_buy(centre_screen, data)
elif shop_type is TILE_WEAPON_SHOP:
DEBUG.log("Buying weapon", level=1)
if self.weapon:
DEBUG.log("Already have weapon", level=2)
self.show_textbox_at_centre(
centre_screen, "You're already equipping a weapon. Sell it first.", 1500)
# recursion to go back to buy menu
self.shop_action_buy(centre_screen, tile_value)
else:
DEBUG.log("Bought weapon {}".format(bought_item[ITEM_NAME]))
self.weapon = bought_item
self.current_attack += bought_item[ITEM_POINT]
self.gold -= bought_item[ITEM_PRICE]
self.show_textbox_at_centre(
centre_screen, "You purchased {}!".format(bought_item[ITEM_NAME]), 1500)
self.action_result = ACTION_RESULT_SHOP_BUY
elif shop_type is TILE_ARMOR_SHOP:
DEBUG.log("Buying armor", level=1)
if self.armor:
DEBUG.log("Already have armor", level=2)
self.show_textbox_at_centre(
centre_screen, "You're already equipping an armor. Sell it first.", 1500)
# recursion to go back to buy menu
self.shop_action_buy(centre_screen, tile_value)
else:
DEBUG.log("Bought weapon {}".format(bought_item[ITEM_NAME]))
self.armor = bought_item
self.current_defence += bought_item[ITEM_POINT]
self.gold -= bought_item[ITEM_PRICE]
self.show_textbox_at_centre(
centre_screen, "You purchased {}!".format(bought_item[ITEM_NAME]), 1500)
self.action_result = ACTION_RESULT_SHOP_BUY
else:
raise TypeError("Invalid type of item")
return
def shop_action_sell(self, centre_screen):
item_count = len(self.inventory) + 3 # weapon, armor, inventory, and cancel
DEBUG.log("Number of items to sell: {}".format(item_count-1), level=1)
button_rect = pg.Rect(0, 0, 300, 40)
centre_screen.fill(BACKGROUND_COLOUR)
item_button_list = []
for item_index in range(item_count):
y_pos = centre_screen.get_height()/2 - ((item_count/2-item_index) * button_rect.height)
if item_index == item_count-1:
item_name = "Cancel"
elif item_index == 0: # weapon
if not self.weapon:
item_name = "Empty"
else:
item_name = self.weapon[ITEM_NAME]
item_name += " ATT:" + str(self.weapon[ITEM_POINT])
item_name += " " + str(self.weapon[ITEM_PRICE]/4) + "G"
elif item_index == 1:
if not self.armor:
item_name = "Empty"
else:
item_name = self.armor[ITEM_NAME]
item_name += " DEF:" + str(self.armor[ITEM_POINT])
item_name += " " + str(self.armor[ITEM_PRICE]/4) + "G"
else:
if not self.inventory[item_index-2]:
item_name = "Empty"
else:
item_name = self.inventory[item_index-2][ITEM_NAME]
item_name += " " + str(self.inventory[item_index-2][ITEM_PRICE]/4) + "G"
DEBUG.log("Item name: {}".format(item_name), level=2)
item_button = Button(
centre_screen, (centre_screen.get_width()/2, y_pos),
item_name, 14, rect=button_rect, pos_offset=(TILE_WIDTH, TILE_HEIGHT))
if item_name is not "Cancel" and item_name is not "Empty":
try:
if item_index == 0:
item_button.insert_picture((0, 0), os.path.join(ITEM_IMG_FILE_PATH, self.weapon[ITEM_FILENAME]))
elif item_index == 1:
item_button.insert_picture((0, 0), os.path.join(ITEM_IMG_FILE_PATH, self.armor[ITEM_FILENAME]))
except RuntimeError as e:
DEBUG.log(e, level=1)
try:
item_button.insert_picture((0, 0), 'smile.png')
except:
raise Exception
item_button.update()
item_button_list.append(item_button)
pg.display.update(centre_screen.get_rect(topleft=(TILE_WIDTH, TILE_HEIGHT)))
while True:
for event in pg.event.get():
if event.type == pg.QUIT:
pg.quit()
sys.exit()
for button in item_button_list:
button.update_state(event)
sold_item = None
for button_index in range(len(item_button_list)):
if item_button_list[button_index].buttonPressed:
DEBUG.log("{}'th button pressed".format(button_index+1), level=2)
if item_button_list[button_index].text == "Cancel":
DEBUG.log("Cancel clicked", level=2)
return
elif button_index == 0 and self.weapon:
sold_item = self.weapon
DEBUG.log("Item {} clicked".format(sold_item[ITEM_NAME]), level=2)
break
elif button_index == 1 and self.armor:
sold_item = self.armor
DEBUG.log("Item {} clicked".format(sold_item[ITEM_NAME]), level=2)
break
else:
#TODO: Implement other items
pass
if sold_item:
if sold_item is self.weapon:
DEBUG.log("Selling weapon {}".format(sold_item[ITEM_NAME]))
self.weapon = None
self.current_attack -= sold_item[ITEM_POINT]
elif sold_item is self.armor:
DEBUG.log("Selling armor {}".format(sold_item[ITEM_NAME]))
self.armor = None
self.current_defence -= sold_item[ITEM_POINT]
self.gold += sold_item[ITEM_PRICE]/4
self.show_textbox_at_centre(
centre_screen, "You sold {}!".format(sold_item[ITEM_NAME]), 1500)
self.action_result = ACTION_RESULT_SHOP_SELL
return
def showOpCodes():
print('{:<10}\t{:>10}\t{:>20}'.format('OpCode', 'Hex', 'Bin'))
for name, member in OpCode.__members__.items():
print('{:<10}\t{:>10}\t{:>20}'.format(name, hex(member.value), bin(member.value)))
if __name__ == '__main__':
#showOpCodes()
#showExampleEncodings()
#print()
#asm = Assembler('examples/factorial.asm')
#asm = Assembler('examples/misc.asm')
#asm = Assembler('examples/mul.asm')
#asm = Assembler('examples/int.asm')
asm = Assembler('examples/mov.asm')
#asm = Assembler('examples/br.asm')
#print('generated code:')
program_memory = asm.parse()
#for i in program_memory:
# print('0x{0:04X}\t0b{0:016b}'.format(i))
cpu = Cpu(program_memory)
seq = Seq(MPM, cpu)
#TODO: intreruperi
dbg = Debugger(seq)
dbg.attach()
# print(cpu.__dict__)
# print(seq.__dict__)
class RemoteDebugDialog(QtGui.QDialog, FORM_CLASS):
def __init__(self, plugin, parent=None):
"""Constructor."""
super(RemoteDebugDialog, self).__init__(parent)
# Set up the user interface from Designer.
# After setupUI you can access any designer object by doing
# self.<objectname>, and you can use autoconnect slots - see
# http://qt-project.org/doc/qt-4.8/designer-using-a-ui-file.html#widgets-and-dialogs-with-auto-connect
self.setupUi(self)
self._plugin = plugin
self._debugger = Debugger()
@pyqtSlot()
def on_pydevd_path_but_clicked(self):
pydevd_path = QFileDialog.getExistingDirectory(
None, "Select pydev directory containing pydevd.py", self.pydev_path_ledit.text()
)
if not pydevd_path:
return # dialog canceled
self.pydev_path_ledit.setText(pydevd_path)
@pyqtSlot()
def on_connect_but_clicked(self):
self.setCursor(Qt.WaitCursor)
try:
self.start_debugging()
finally:
self.unsetCursor()
@pyqtSlot()
def on_exception_but_clicked(self):
# Local vars for testing value display in debugger
t01 = QgsApplication.pluginPath()
t02 = QgsApplication.svgPaths()
# t03 = QChar('x')
t04 = QPoint(4, 5)
t05 = QPointF(4.1, 5.1)
t06 = QDate()
t07 = QTime()
t08 = QDir()
t09 = QFile()
t10 = QUrl()
x01 = 42
x02 = "fortytwo"
raise Exception("Exception raised. Check local variables in your debugger.")
def start_debugging(self):
debugger = self._debugger.client(self.debugger_cbox.currentIndex())
self._plugin.statusBar().showMessage(u"Connecting to remote debugger...")
active = debugger.start_debugging(self._debugger_config())
self._plugin.statusBar().showMessage("")
if active:
self.accept()
self._plugin.push_message(u"Debugging connection activated", duration=2)
else:
self._plugin.push_message(u"Debugging connection failed", level=1, duration=2)
def _debugger_config(self):
return {"pydev_path": self.pydev_path_ledit.text()}
class MainWindow(QtGui.QMainWindow):
""" Main window of the debugger"""
FocusLine = pyqtSignal(str, int, name='FocusLine')
def __init__(self):
QtGui.QMainWindow.__init__(self)
self.init_ui()
self.save_restore_state(False)
self.cfg_window = RunConfigWindow()
self.about_dialog = AboutDialog()
self.pty_stdout = PtyView(self.ui.commander)
stdout_path = self.pty_stdout.get_file_path()
self.debugger = Debugger(stdout_path, stdout_path, self.cfg_window.working_dir)
self.ui.commander.set_tab_comp_handler(self.debugger.complete_tab)
self.last_highlighted_editor = None
self.my_listener = MyListeningThread(self.debugger.dbg, self.FocusLine)
self.FocusLine.connect(self.do_focus_line)
self.my_listener.StateChanged.connect(self.on_state_changed)
self.my_listener.BPChanged.connect(self.on_bp_changed)
self.debugger.listener = self.my_listener
self.my_listener.start()
self.opened_files = {}
self.bp_locations = {}
args = Qt.qApp.arguments()
self.cfg_window.working_dir = os.getcwd()
if len(args) > 1:
self.do_exe_file_open(args[1])
if len(args) > 2:
self.cfg_window.arglist = [str(x) for x in args[2:]]
logging.info('Ready')
def init_ui(self):
"""initialize UI"""
self.ui = Ui_MainWindow()
self.ui.setupUi(self)
self.ui.tabCodeEditor.clear()
self.ui.tabCodeEditor.setTabsClosable(True)
self.ui.tabCodeEditor.setTabShape(QtGui.QTabWidget.Triangular)
# setup frame viewer dock
action_frames = self.ui.frame_dock.toggleViewAction()
self.ui.menuView.addAction(action_frames)
action_frames.setCheckable(True)
action_frames.setIcon(QIcon(":/icons/icons/frame.png"))
self.ui.frame_viewer.set_focus_signal(self.FocusLine)
self.tabifyDockWidget(self.ui.frame_dock, self.ui.value_dock)
self.tabifyDockWidget(self.ui.value_dock, self.ui.bp_dock)
self.ui.frame_dock.raise_()
# setup source file tree dock
action_source_tree = self.ui.file_tree_dock.toggleViewAction()
self.ui.menuView.addAction(action_source_tree)
action_source_tree.setCheckable(True)
action_source_tree.setIcon(QIcon(":/icons/icons/directory.png"))
self.ui.source_tree.set_open_file_signal(self.FocusLine)
self.connect(self.ui.action_Open, QtCore.SIGNAL('triggered()'), self.do_exe_file_open)
self.connect(self.ui.action_Run, QtCore.SIGNAL('triggered()'), self.do_run)
self.connect(self.ui.action_StepOver, QtCore.SIGNAL('triggered()'), self.do_step_over)
self.connect(self.ui.action_StepInto, QtCore.SIGNAL('triggered()'), self.do_step_into)
self.connect(self.ui.action_StepOut, QtCore.SIGNAL('triggered()'), self.do_step_out)
self.connect(self.ui.btn_frame_up, QtCore.SIGNAL('clicked()'), self.ui.frame_viewer.frame_up)
self.connect(self.ui.btn_frame_down, QtCore.SIGNAL('clicked()'), self.ui.frame_viewer.frame_down)
self.ui.frame_viewer.set_show_args(self.ui.chk_show_args)
self.connect(self.ui.tabCodeEditor, QtCore.SIGNAL('tabCloseRequested(int)'),
self.close_tab)
self.connect(self.ui.tabCodeEditor, QtCore.SIGNAL('currentChanged(int)'),
self.ui.source_tree.set_file_selected)
self.connect(self.ui.tabCodeEditor, QtCore.SIGNAL('customContextMenuRequested(QPoint)'),
self.show_tab_context_menu)
self.ui.action_Exit.triggered.connect(Qt.qApp.quit)
self.ui.commander.commandEntered.connect(self.do_command)
self.connect(self.ui.action_Run_Config, QtCore.SIGNAL('triggered()'), self.do_config)
self.connect(self.ui.action_About, QtCore.SIGNAL('triggered()'), self.show_about)
self.ui.frame_viewer.frame_changed.connect(self.ui.value_viewer.show_variables)
def show_tab_context_menu(self, point):
""" show context menu for tabs"""
if point.isNull():
return
tab_bar = self.ui.tabCodeEditor.tabBar()
idx = tab_bar.tabAt(point)
if idx < 0:
return
editor = self.ui.tabCodeEditor.widget(idx)
menu = QMenu(tab_bar)
save_action = menu.addAction(QIcon(":/icons/icons/save.png"), 'Save', editor.save)
save_action.setEnabled(editor.document().isModified())
menu.exec_(tab_bar.mapToGlobal(point))
def save_restore_state(self, is_save):
""" save/restore state to/from config file"""
if is_save:
SETTINGS.setValue('geometry', self.saveGeometry())
SETTINGS.setValue('windowState', self.saveState())
else:
self.restoreState(SETTINGS.value('windowState').toByteArray())
self.restoreGeometry(SETTINGS.value('geometry').toByteArray())
def closeEvent(self, event):
"""overrided. when close event is triggered"""
self.save_restore_state(True)
if not (self.debugger.curr_process and
self.debugger.curr_process.is_alive):
event.accept()
return
reply = QtGui.QMessageBox.question(self, 'Message', 'Quit?', \
QMessageBox.Yes, QMessageBox.No)
if reply == QtGui.QMessageBox.Yes:
self.my_listener.quit()
event.accept()
else:
event.ignore()
def close_tab(self, idx):
""" close a tab"""
editor = self.ui.tabCodeEditor.widget(idx)
if editor.document().isModified():
reply = QtGui.QMessageBox.question(self, 'Message', \
editor.source_file + ' has been modified', \
QMessageBox.Save, QMessageBox.Discard, QMessageBox.Cancel)
if reply == QtGui.QMessageBox.Cancel:
return
if reply == QMessageBox.Save:
editor.save()
#self.opened_files.remove()
#editor.close
self.close_src_file(editor.source_file)
self.ui.tabCodeEditor.removeTab(idx)
def show_about(self):
""" show "About" window"""
self.about_dialog.show()
def do_config(self):
"""show run-config window"""
self.cfg_window.show()
def do_exe_file_open(self, exe_filename=None):
"""open executable"""
if not exe_filename:
exe_filename = QtGui.QFileDialog.getOpenFileName(self, \
self.tr('Open Executable'), \
'', self.tr('Executable Files (*)'))
if exe_filename is None:
return
main_file, line = self.debugger.open_file(exe_filename)
if main_file is not None:
self.open_src_file(main_file.fullpath, line)
self.ui.action_Run.setEnabled(True)
self.my_listener.add_target_broadcaster(self.debugger.target.GetBroadcaster())
self.ui.source_tree.set_root(main_file.GetDirectory(), False)
self.exe_filename = exe_filename
elif line == 0:
logging.info('cannot find entry function')
else:
logging.info('error opening executable: %s', exe_filename)
def do_focus_line(self, filename, line_no):
""" slot for focusing line event"""
# if line_no is 0, just focus the tab
if not filename:
editor = None
else:
filename = str(filename)
logging.debug('Focusing [%s]:%d', filename, line_no)
if filename not in self.opened_files:
self.open_src_file(filename)
editor = self.opened_files[filename]
if editor is not None:
self.ui.tabCodeEditor.setCurrentWidget(editor)
if line_no:
if self.last_highlighted_editor and self.last_highlighted_editor != editor:
# clear previous highlight
self.last_highlighted_editor.setExtraSelections([])
editor.focus_line(line_no)
self.last_highlighted_editor = editor
def on_state_changed(self, state):
"""slot for state change event"""
self.ui.statusBar.update_state(SBDebugger.StateAsCString(state))
process = self.debugger.curr_process
steppable = process is not None and process.is_alive and state == lldb.eStateStopped
if steppable:
self.ui.frame_viewer.show_frame_info(process)
else:
self.ui.frame_viewer.clear()
if process is not None:
self.ui.action_StepOver.setEnabled(steppable)
self.ui.action_StepInto.setEnabled(steppable)
self.ui.action_StepOut.setEnabled(steppable)
self.ui.action_Run.setEnabled(state != lldb.eStateRunning)
if state == lldb.eStateExited or state == lldb.eStateCrashed \
or state == lldb.eStateSuspended:
self.do_focus_line(None, -1)
if state == lldb.eStateExited:
if process is not None:
logging.info('process exited: [%d]:%s', process.GetExitStatus(),
process.GetExitDescription())
self.ui.frame_viewer.clear()
return
def on_bp_changed(self, breakpoint, bp_type):
""" handler of breakpoing changing"""
self.ui.bp_viewer.update_bp_info(self.debugger.dbg.GetSelectedTarget())
# TODO: might be multiple locations for a BP
filename, line_no = self.debugger.getBPLocationFromDesc(breakpoint)
if not filename or not line_no:
logging.warning('Cannot find location from BP')
return
if filename not in self.bp_locations:
self.bp_locations[filename] = []
if bp_type == lldb.eBreakpointEventTypeAdded:
self.bp_locations[filename].append(line_no)
elif bp_type == lldb.eBreakpointEventTypeRemoved:
if line_no in self.bp_locations[filename]:
self.bp_locations[filename].remove(line_no)
else:
logging.warning('removing non-existed BP ' + filename + ':' + str(line_no))
# TODO: trigger a rescan of all BPs?
return
else:
logging.debug('Unhandled BP event:' + str(bp_type))
return
if filename in self.opened_files:
lna = self.opened_files[filename].line_number_area
lna.breakpoints = self.bp_locations[filename]
lna.repaint()
def close_src_file(self, name):
""" close a source file"""
editor = self.opened_files[name]
editor.setParent(None)
del self.opened_files[name]
def open_src_file(self, src_filename, line=0):
"""show the source file in editor"""
if not os.path.isfile(src_filename) or not os.access(src_filename, os.R_OK):
logging.warn('Unable to access ' + src_filename)
return
if src_filename in self.opened_files:
return
editor = CodeEditor(self.ui.tabCodeEditor)
idx = self.ui.tabCodeEditor.addTab(editor, os.path.basename(src_filename))
self.ui.tabCodeEditor.setTabToolTip(idx, src_filename)
editor.open_source_file(src_filename)
self.opened_files[str(src_filename)] = editor
editor.line_number_area.BPToggled.connect(self.toggle_breakpoint)
if line > 0:
self.do_focus_line(src_filename, line)
self.ui.source_tree.set_root(os.path.dirname(src_filename))
#self.debugger.disassemble(src_filename)
def toggle_breakpoint(self, line_no):
""" control the bp toggling"""
sender = self.sender()
filename = sender.filename
# it should trigger BPChanged signal.
self.debugger.toggle_breakpoint(filename, line_no)
def do_command(self, cmd):
""" on command entered"""
cmd = str(cmd)
cmds = cmd.split()
cmd0 = cmds[0].lower()
cmd1 = ''
if len(cmds) > 1:
cmd1 = cmds[1].lower()
if cmd0 == 'r' or cmd0 == 'run' or (cmd0 == 'process' and cmd1 == 'launch'):
if cmd0[0] == 'r' or cmd0 == 'run':
args = cmds[1:]
else:
args = cmds[2:]
self.do_run(args, True)
return
msg = self.debugger.execute(cmd0, cmd)
self.ui.commander.append(msg)
def do_run(self, args=None, from_cmd=False):
""" on run command entered"""
util.save_run_config(self.exe_filename, self.cfg_window.arglist, self.cfg_window.working_dir)
process = self.debugger.run(args, from_cmd, self.cfg_window.arglist)
if process is not None:
self.my_listener.add_process_broadcaster(process.GetBroadcaster())
def do_step_over(self):
""" on step over clicked"""
self.debugger.next(True)
def do_step_into(self):
""" on step into clicked"""
self.debugger.next(False)
def do_step_out(self):
""" on step out of frame"""
self.debugger.step_out()
import os
import sys
from debugger import Debugger
if __name__ == '__main__':
if os.getuid() != 0:
print "Run as root"
print "sudo python -m python-cheat.run <pid> [<pid> ...]"
sys.exit(-1)
if len(sys.argv) < 2:
print "sudo python -m python-cheat.run <pid> [<pid> ...]"
sys.exit(-1)
cheater = Debugger()
for pid in sys.argv[1:]:
try:
pid = int(pid)
print "Adding %d" % pid
cheater.addProcess(pid, False)
except Exception as e:
print "Invalid pid %s" % pid
print e
sys.exit(-1)
try:
import rlcompleter
import atexit
home = os.path.expanduser('~')
def test_state_returns_flag_name_if_bit_is_set(self):
debugger = Debugger()
self.assertEqual("C", debugger.state(1 << CF, CF, "C"))
def test_disableBreakpoint_sets_breakpoint_to_false(self):
debugger = Debugger()
debugger.setBreakpoint(0x2222)
debugger.disableBreakpoint(0x2222)
self.assertFalse(debugger.breakpoints[0x2222])
def test_getAddr_correctly_parses_address(self):
debugger = Debugger()
addr = debugger.getAddr("0x1234")
self.assertEqual(0x1234, addr)
def test_clearBreakpoint_sets_breakpoint_to_false(self):
debugger = Debugger()
debugger.setBreakpoint(0x2222)
debugger.clearBreakpoint(0x2222)
self.assertTrue(0x2222 not in debugger.breakpoints)
def show_status(self, centre_screen):
centre_screen.fill(BACKGROUND_COLOUR)
status_rect = pg.Rect(
centre_screen.get_width()/3,
centre_screen.get_height()/16,
centre_screen.get_width()/3,
centre_screen.get_height()*7/8
)
status_surface = centre_screen.subsurface(status_rect)
status_surface.fill(GRAY)
token_image = pg.transform.scale(self.token_image, (status_rect.width/3, status_rect.width/3))
status_surface.blit(token_image, (status_rect.width/3, status_rect.height/12))
current_height = 50+token_image.get_height()
name_text_surf = pg.font.Font('freesansbold.ttf', 15)\
.render(self.player_name, True, BLACK)
status_surface.blit(name_text_surf, name_text_surf.get_rect().move(8, current_height))
current_height += name_text_surf.get_height()+10
level_text_surf = pg.font.Font('freesansbold.ttf', 15)\
.render("Lv: {}".format(self.level), True, BLACK)
status_surface.blit(level_text_surf, level_text_surf.get_rect().move(8, current_height))
current_height += level_text_surf.get_height()+10
health_text_surf = pg.font.Font('freesansbold.ttf', 15)\
.render("HP: {}/{}".format(self.current_health, self.full_health), True, BLACK)
status_surface.blit(health_text_surf, health_text_surf.get_rect().move(8, current_height))
current_height += health_text_surf.get_height()+10
attack_text_surf = pg.font.Font('freesansbold.ttf', 15)\
.render("ATT: {} + {}".format(self.base_attack, self.current_attack-self.base_attack), True, BLACK)
status_surface.blit(attack_text_surf, attack_text_surf.get_rect().move(8, current_height))
current_height += attack_text_surf.get_height()+10
defence_text_surf = pg.font.Font('freesansbold.ttf', 15)\
.render("DEF: {} + {}".format(self.base_defence, self.current_defence-self.base_defence), True, BLACK)
status_surface.blit(defence_text_surf, defence_text_surf.get_rect().move(8, current_height))
current_height += defence_text_surf.get_height()+10
weapon_text_surf = pg.font.Font('freesansbold.ttf', 15)\
.render("Weapon: {}".format(self.weapon[ITEM_NAME] if self.weapon else "None"), True, BLACK)
status_surface.blit(weapon_text_surf, weapon_text_surf.get_rect().move(8, current_height))
if self.weapon:
try:
weapon_image = pg.image.load(os.path.join(MONSTER_IMG_FILE_PATH, self.weapon[ITEM_FILENAME]))
except RuntimeError as e:
DEBUG.log(e, level=1)
try:
weapon_image = pg.image.load('smile.png')
except:
raise Exception
finally:
weapon_image = pg.transform.scale(weapon_image, (weapon_text_surf.get_height(), weapon_text_surf.get_height()))
status_surface.blit(weapon_image, weapon_image.get_rect().move(80, current_height))
current_height += weapon_text_surf.get_height()+10
armor_text_surf = pg.font.Font('freesansbold.ttf', 15)\
.render("Armor : {}".format(self.armor[ITEM_NAME] if self.armor else "None"), True, BLACK)
status_surface.blit(armor_text_surf, armor_text_surf.get_rect().move(
10, current_height))
if self.armor:
try:
armor_image = pg.image.load(os.path.join(MONSTER_IMG_FILE_PATH, self.armor[ITEM_FILENAME]))
except RuntimeError as e:
DEBUG.log(e, level=1)
try:
armor_image = pg.image.load('smile.png')
except:
raise Exception
finally:
armor_image = pg.transform.scale(armor_image, (armor_text_surf.get_height(), armor_text_surf.get_height()))
status_surface.blit(armor_image, armor_image.get_rect().move(80, current_height))
pg.display.update(centre_screen.get_rect(topleft=(TILE_WIDTH, TILE_HEIGHT)))
while True:
for event in pg.event.get():
if event.type == pg.QUIT:
pg.quit()
sys.exit()
elif event.type == pg.MOUSEBUTTONDOWN or (event.type == pg.KEYDOWN and event.key == pg.K_RETURN):
DEBUG.log("Exiting player status", level=2)
centre_screen.fill(BACKGROUND_COLOUR)
return
def test_setBrakpoint_adds_a_breakpoint(self):
debugger = Debugger()
debugger.setBreakpoint(0x1111)
self.assertTrue(debugger.breakpoints[0x1111])
