def set_figure_geometry(index):
window, n = plt.get_current_fig_manager().window, index+1
######################################################################
xmax, ymax, dx, dy=5120, 1440, 840, 670
window.setGeometry(xmax-n*dx,ymax-dy,dx,dy)
return
######################################################################
try:
# attempt to fetch size of monitor
from screeninfo import get_monitors
xmax, ymax=get_monitors()[0].width, get_monitors()[0].height
except:
warnings.warn('could not find screeninfo module; run % pip install screeninfo')
return # failed to fetch current monitor size
# attempt to fetch size of current window
if callable(getattr(window,'winfo_width',None)): # Tkagg
dx,dy=window.winfo_width(),window.winfo_height()
window.wm_geometry('+{}+{}'.format(xmax-n*dx,ymax-dy))
elif callable(getattr(window,'width',None)): # qt{4,5}agg
dx,dy=window.width(), window.height()
window.setGeometry(xmax-n*dx,ymax-dy,dx,dy)
elif getattr(window,'Size',None): # works for wxagg
dx,dy=window.Size
window.Move(xmax-n*dx, ymax-dy)
else:
warnings.warn('failed to auto-position matplotlib windows: unknown backend')
def get_center_of_current_monitor():
mouse = pymouse.PyMouse()
mouse_x, mouse_y = mouse.position()
# print("mouse.x: {0}, mouse.y: {1}".format(mouse_x, mouse_y))
monitors = get_monitors()
for iMonitor in range(0, len(monitors)):
monitor = monitors[iMonitor]
monitor_left = monitor.x
monitor_right = monitor.x + monitor.width
monitor_bottom = monitor.y
monitor_top = monitor.y + monitor.height
# print("monitor: {0}, width: {1}".format(iMonitor, monitor.width))
# print("left: {0}, right: {1}".format(monitor_left, monitor_right))
if monitor_left <= mouse_x < monitor_right and monitor_bottom <= monitor.y < monitor_top:
x = int((monitor_left + monitor_right)/2)
y = int((monitor.y + monitor.height)/2)
return x, y, monitor.width, monitor.height
return None, None, None, None
def get_desktop_geometry():
workspaces = screen.get_workspaces()
desktop = Wnck.Screen.get_active_workspace(screen)
#print('ActiveDesktop: ', desktop)
window_list = screen.get_windows()
#print(get_monitors())
mon_LIST=[]
for m in get_monitors():
edge_left = re.findall('\+([^]]*)\+',str(m))
#print('edge_left= ',edge_left)
if int(edge_left[0]) == 0:
screen_edge = 0
else:
screen_edge = edge_left[0]
mon_LIST.append(int(screen_edge))
#print('m= ',str(m))
monitors = len(mon_LIST)
#print ('Number of Monitors= ', str(monitors))
#print('Right Monitor starts at ', str(screen_edge))
mon_LIST.sort(key=int)
#print('mon_LIST',mon_LIST)
return int(monitors),mon_LIST
def __init__(self, height, width, pos):
self.height = height
self.width = width
self.pos = pos # Trackbar positons dict
self.preview_on = True # Falg: show preview window
self.fullscreen = not cv2.WINDOW_FULLSCREEN # Flag: fullscreen (off)
self._debugger_off = not self.DEBUGGER_MODE # Flag: debugger status
self.output_img_height = self.height * 2
self.cur_monitor_idx = 0 # Default monitor
self.monitors_lst = [self._add_canvas(m) for m in get_monitors()]
def on_change(_):
"""Updates values in self.pos if any change."""
self._get_trackbar_values()
cv2.namedWindow(self.C_HDR, cv2.WINDOW_NORMAL)
cv2.namedWindow(self.O_HDR, cv2.WINDOW_NORMAL)
cv2.createTrackbar('mask centre', self.C_HDR, int(self.pos['m_cntr'] * 100),\
100, on_change)
cv2.createTrackbar('mask bottom', self.C_HDR, int(self.pos['m_btm'] * 100),\
100, on_change)
cv2.createTrackbar('mask side', self.C_HDR, int(self.pos['m_side'] * 100), 400, on_change)
cv2.createTrackbar('mask offset', self.C_HDR, int(self.pos['m_y_offset'] * 1000),\
1000, on_change)
cv2.createTrackbar('image x', self.C_HDR, int(self.width / 2), \
self.width, on_change)
cv2.createTrackbar('image y', self.C_HDR, int(self.height / 2), \
self.height, on_change)
cv2.createTrackbar('scale', self.C_HDR, int(self.pos['scale'] * 100), 300, on_change)
cv2.createTrackbar('loop video', self.C_HDR, self.pos['loop_video'], 1, on_change)
cv2.createTrackbar('Track Faces', self.C_HDR, self.pos['tracking_on'], 1, on_change)
cv2.createTrackbar(' GrabCut iters', self.C_HDR, self.pos['gc_iters'], 5, on_change)
cv2.createTrackbar('contrast', self.C_HDR, int(self.pos['contrast'] * 10), 30, on_change)
cv2.createTrackbar('brightness', self.C_HDR, self.pos['brightness'], 100, on_change)
self._get_trackbar_values()
def get_resolution():
try:
from screeninfo import get_monitors
m = get_monitors()
return round_down_to(m[0].height, 500)
except Exception as exc:
log_warning('Could not get resolution! Using default ...\n\t{e}'.format(e=exc))
return 1000
def validate_inputs(rows, cols, monitor_start):
"""
This function validates the arguments to __init__(). It also
returns a sorted 'monitors' list containing monitor details.
"""
# Get the monitor information from screeninfo.get_monitors().
monitors = get_monitors()
# It's necessary to sort the result so that the far left monitor is
# positioned first.
monitors = sorted(monitors, key=lambda monitor: monitor.x)
# 'rows', 'cols' must be real, positive numbers.
if isinstance(rows, int) or isinstance(rows, float):
if rows < 1:
raise ValueError('rows arg must be greater than unity')
else:
raise ValueError('rows arg must be a numeric')
if isinstance(cols, int) or isinstance(cols, float):
if cols < 1:
raise ValueError('cols arg must be greater than unity')
else:
raise ValueError('cols arg must be a numeric')
# 'monitor_start' must be a single integer or a list of integers.
error_string = (
'monitor_start arg must be an integer or list of integers'
)
if isinstance(monitor_start, int):
if monitor_start > len(monitors) - 1:
error_string = (
'only %d monitors detected but monitor_start says to '
'start on monitor %d' % (len(monitors), monitor_start + 1)
)
raise ValueError(error_string)
elif isinstance(monitor_start, list) or \
isinstance(monitor_start, tuple):
if len(monitor_start) == 0:
raise ValueError(error_string)
for value in monitor_start:
if not isinstance(value, int):
raise ValueError(error_string)
elif value > len(monitors) - 1:
error_string = (
'only %d monitors detected but monitor_start contains '
'monitor %d' % (len(monitors), value + 1)
)
raise ValueError(error_string)
else:
raise ValueError(error_string)
# Rearrange or reduce the 'monitors' list depending on the value of
# 'monitor_start'.
if isinstance(monitor_start, int):
monitors = monitors[monitor_start: ] + monitors[0: monitor_start]
else:
monitors = [monitors[i] for i in monitor_start]
return monitors
def get_monitors_or_default(tkroot=None):
result = None
if PlatformUtility.platform_is_mac() and tkroot is None:
result = [Monitor(0, 0, 1920, 1080)]
elif PlatformUtility.platform_is_mac() and tkroot is not None:
result = [Monitor(0, 0, tkroot.winfo_screenwidth(), tkroot.winfo_screenheight())]
else:
result = get_monitors()
return result
def initStream(frame, opts) :
frame_h, frame_w = _frame.shape[:2]
print("Captured image size (height x width) = {}x{}".format(frame_h, frame_w))
if opts.video_stream :
monitors = get_monitors()
if len(monitors) == 0 :
print("No monitor connected, videostream won't be resized")
else :
cv2.namedWindow(VIDEO_WINDOW, cv2.WINDOW_NORMAL)
mon_h = monitors[0].height
mon_w = monitors[0].width
ratio = frame_h/frame_w
if mon_w*ratio > mon_h :
cv2.resizeWindow(VIDEO_WINDOW, math.floor(mon_h/ratio), mon_h)
else :
cv2.resizeWindow(VIDEO_WINDOW, mon_w, math.floor(ratio*mon_w))
def get_config_window_bounds(self):
"""Reads bounds from config and, if monitor is specified, modify the values to match with the specified monitor
:return: coords X and Y where set the browser window.
"""
bounds_x = int(self.config.get_optional('Driver', 'bounds_x') or 0)
bounds_y = int(self.config.get_optional('Driver', 'bounds_y') or 0)
monitor_index = int(self.config.get_optional('Driver', 'monitor') or -1)
if monitor_index > -1:
try:
monitor = screeninfo.get_monitors()[monitor_index]
bounds_x += monitor.x
bounds_y += monitor.y
except NotImplementedError:
self.logger.warn('Current environment doesn\'t support get_monitors')
return bounds_x, bounds_y
def get_screen_resolution():
"""
Uses screeninfo or alternatively Tkinter to determine screen
resolution as reported by OS. On some Linux window managers the
result of Tkinter is that of all monitors combined. On Windows,
Tkinter reports the primary monitor resolution.
Screeninfo returns a list of monitors of which the resolution of
the primary monitor is extracted.
:return: tuple, (width, height), such as (1920, 1080)
"""
try: # Not supported on Travis-CI
monitors = get_monitors()
primary = monitors[0]
w, h = primary.width, primary.height
return w, h
except (NotImplementedError, ValueError) as e:
print("[Utilities] Screen resolution error:", repr(e))
window = tk.Tk()
width, height = window.winfo_screenwidth(), window.winfo_screenheight()
window.destroy()
return width, height
def graph(gui, daysList, nightsList, masterBlock, plotVertices = True, showDragWarn = False):
bulkvertices = []
vertX = []
vertY = []
masterX = []
masterY = []
airX = []
airY = []
monResList = []
#Clears previous graphs from memory
reset_output()
if plotVertices:
#Add daytime period delimiting lines if appropriate
if gui.restrictSearchBV.get() is True:
for day in daysList:
if len(day.vertices) > 0:
#Add vertex at 0 to mark begining of day
bulkvertices.append(coreC.vert(day.vertices[0].index, np.nan, day.vertices[0].vertType))
#Get all vertices from bouts
bulkvertices += day.vertices
#Add vertex at 0 to mark end of day
bulkvertices.append(coreC.vert(day.vertices[-1].index, np.nan, day.vertices[-1].vertType))
#Else compile vertices for entire input file
else:
bulkvertices = masterBlock.vertices
#Compile index number and temperature of all vertices
for vertex in bulkvertices:
vertX.append(gui.masterList[vertex.index][gui.dataPointCol])
vertY.append(vertex.temp)
#Output to HTML file
output_file(gui.graphName)
else:
output_file(os.path.join(gui.coreDir, "misc_files", "tempGraph.html"))
#Create column data source for vertex data so it can be manipulated in the interactive plot
boutsSourceData = ColumnDataSource(data = dict(x = vertX, y = vertY))
#Compile index number and temperature for every line in input file
for line in gui.masterList:
masterX.append(int(line[gui.dataPointCol]))
masterY.append(float(line[gui.tempsCol]))
#Compile air temperature if a valid column is present
if gui.airValid is True:
airX.append(int(line[gui.dataPointCol]))
airY.append(float(line[gui.airTempCol]))
#Set plot dimensions
if gui.plotDimVar.get() is 1:
#Get monitor resolution if "auto" selected
for monitor in get_monitors():
monResList.append(str(monitor))
#Extract monitor width and height
resRE = re.search("(\d+)x(\d+)", monResList[0])
monX = int(resRE.group(1))
monY = int(resRE.group(2))
plotX = (monX - 200)
plotY = (monY - 200)
#Get user dimension values if "manual" selected
else:
plotX = int(gui.plotDimXE.get())
plotY = int(gui.plotDimYE.get())
#Initialize hover tool (provides information about individual datapoints)
hover = HoverTool(tooltips=[("Data Point", "$x{int}"), ("Temperature", "$y")])
#(flag) may not be neccessary
# for y in masterY:
# float(y)
#Get name of plot
if plotVertices:
plotName = gui.graphName[:-5]
else:
#Get input file root name
tempRE = re.search((".*\."), os.path.basename(os.path.normpath(gui.inputFileAdvE.get())))
#Assign default plot name
if tempRE:
plotName = tempRE.group(0)[:-1]
else:
plotName = os.path.basename(os.path.normpath(gui.inputFileAdvE.get()))
#Detect best y axis range
if gui.airValid is True:
yMin = (float(min(min(masterY), min(airY))) - 2)
yMax = (float(max(max(masterY), max(airY))) + 2)
else:
yMin = (float(min(masterY)) - 2)
yMax = (float(max(masterY)) + 2)
#Create core plot
plot = figure(tools = [hover, "box_zoom, wheel_zoom, pan, reset, save"],
x_range = [int(masterX[0]), int(masterX[len(masterX) - 1])],
y_range = [yMin, yMax],
# y_range = [float(min((float(min(airY)), float(min(masterY)))) - 2), (max(max(airY), max(masterY)) + 2)],
title = plotName,
x_axis_label= "Data Point", y_axis_label = "Temperature (C)", plot_width = plotX, plot_height = plotY)
#Add vertical lines delimiting days
if gui.showDayDelimsBV.get() is True:
for day in daysList:
vline = Span(location = int(gui.masterList[day.start][gui.dataPointCol]), dimension = "height",
line_color = gui.dayMarkerColorVar.get(), line_width = float(gui.dayMarkerSize_E.get()), line_alpha = 0.6)
plot.renderers.extend([vline])
#Get size settings from GUI
plot.title.text_font_size = (gui.titleFontSizeE.get() + "pt")
plot.axis.axis_label_text_font_size = (gui.axisTitleFontSizeE.get() + "pt")
plot.axis.major_label_text_font_size = (gui.axisLabelFontSizeE.get() + "pt")
plot.axis.major_tick_line_width = int(gui.axisTickSizeE.get())
plot.axis.minor_tick_line_width = int(gui.axisTickSizeE.get())
plot.axis.major_tick_out = int(gui.axisTickSizeE.get())
plot.axis.minor_tick_out = int(gui.axisTickSizeE.get())
#Append vertex x and y values to data dictionary
data = {"x": [], "y": []}
for x in vertX: data["x"].append(x)
for y in vertY: data["y"].append(y)
#Generate table with vertex information
src = ColumnDataSource(data)
columns = [
TableColumn(field = "x", title = "Data Point"),
TableColumn(field = "y", title = "Temperature")
]
data_table = DataTable(source = src, columns = columns, width = 500, height = 20000)
if gui.editModeBV.get():
#Show drag warning if applicable
if showDragWarn:
dragWarn(gui)
#Plot air temperatures
if gui.showAirTempBV.get() is True and gui.airValid:
# plot.circle(airX, airY, size = 5, color = "black", alpha = 1, legend = "Air Temeprature")
plot.line(airX, airY, line_width = float(gui.airTempSize_E.get()), color = gui.airTempColorVar.get(), line_alpha = 1, legend = "Air Temeprature")
#Plot egg temperatures
plot.circle(masterX, masterY, size = float(gui.eggTempPointSize_E.get()), color = gui.eggTempPointColorVar.get(), legend = "Egg Temperature")
plot.line(masterX, masterY, line_width = float(gui.eggTempLineSize_E.get()), color = gui.eggTempLineColorVar.get())
#Plot verticies as large circles if edit mode selected
renderer = plot.circle (
"x",
"y",
size = (float(gui.boutSize_E.get()) * 3),
color = "black",
fill_color = gui.boutColorVar.get(),
fill_alpha = 0.8,
legend = "Prediced Incubation Shift",
source = src
)
draw_tool = PointDrawTool(renderers = [renderer], empty_value = 1)
plot.add_tools(draw_tool)
plot.toolbar.active_drag = draw_tool
#Else plot verticies as lines
else:
#Plot air temperatures
if gui.showAirTempBV.get() is True and gui.airValid:
# plot.circle(airX, airY, size = 5, color = "black", alpha = 1, legend = "Air Temeprature")
plot.line(airX, airY, line_width = float(gui.airTempSize_E.get()), color = gui.airTempColorVar.get(), line_alpha = 1, legend = "Air Temeprature")
#Plot egg temperatures
plot.circle(masterX, masterY, size = float(gui.eggTempPointSize_E.get()), color = gui.eggTempPointColorVar.get(), legend = "Egg Temperature")
plot.line(masterX, masterY, line_width = float(gui.eggTempLineSize_E.get()), color = gui.eggTempLineColorVar.get())
#Add vertices
plot.line("x", "y", line_width = float(gui.boutSize_E.get()), legend = "Detected Bout", line_color = gui.boutColorVar.get(), source = boutsSourceData)
if gui.showGridBV.get() is False:
plot.grid.visible = False
plot.legend.label_text_font_size = (gui.legendFontSizeE.get() + "pt")
plot.background_fill_color = None
plot.border_fill_color = None
# plot.outline_color = None
#Generate plot
show(column(plot, widgetbox(data_table)))
def get_configuration(args):
custom_defaults = get_custom_defaults()
write_file = any([args.write_file, args.open, args.finder])
if args.transparent:
file_ext = ".mov"
elif args.gif:
file_ext = ".gif"
else:
file_ext = ".mp4"
file_writer_config = {
"write_to_movie":
not args.skip_animations and write_file,
"break_into_partial_movies":
custom_defaults["break_into_partial_movies"],
"save_last_frame":
args.skip_animations and write_file,
"save_pngs":
args.save_pngs,
# If -t is passed in (for transparent), this will be RGBA
"png_mode":
"RGBA" if args.transparent else "RGB",
"movie_file_extension":
file_ext,
"mirror_module_path":
custom_defaults["directories"]["mirror_module_path"],
"output_directory":
args.video_dir or custom_defaults["directories"]["output"],
"file_name":
args.file_name,
"input_file_path":
args.file or "",
"open_file_upon_completion":
args.open,
"show_file_location_upon_completion":
args.finder,
"quiet":
args.quiet,
}
module = get_module(args.file)
config = {
"module": module,
"scene_names": args.scene_names,
"file_writer_config": file_writer_config,
"quiet": args.quiet or args.write_all,
"write_all": args.write_all,
"start_at_animation_number": args.start_at_animation_number,
"preview": not write_file,
"end_at_animation_number": None,
"leave_progress_bars": args.leave_progress_bars,
}
# Camera configuration
config["camera_config"] = get_camera_configuration(args, custom_defaults)
# Default to putting window in the upper right of screen,
# but make it full screen if -f is passed in
monitor = get_monitors()[0]
window_width = monitor.width
if not args.full_screen:
window_width //= 2
window_height = window_width * 9 // 16
config["window_config"] = {
"size": (window_width, window_height),
}
# Arguments related to skipping
stan = config["start_at_animation_number"]
if stan is not None:
if "," in stan:
start, end = stan.split(",")
config["start_at_animation_number"] = int(start)
config["end_at_animation_number"] = int(end)
else:
config["start_at_animation_number"] = int(stan)
config["skip_animations"] = any([
args.skip_animations,
args.start_at_animation_number,
])
return config
import keyboard
import math
from screeninfo import get_monitors
import datetime
def handle_focus(event):
if event.widget == root:
root.focus_set()
calcInput.userInputEntry.focus_set()
global screenWidth, screenHeight
root = tkinter.Tk()
screenInfo = get_monitors()[0]
screenWidth = screenInfo.width
screenHeight = screenInfo.height
print(screenWidth, screenHeight)
root.title("Calculator")
root.geometry("%sx67+%s+%s" % (screenWidth, screenWidth, screenHeight - 40))
root.resizable(False, False)
root.wm_attributes('-type', 'splash')
root.attributes("-topmost", True)
global histFilename
histFilename = 'calculatorHistory.txt'
class CalculatorMain:
def __init__(self, main):
def main(IP, my_username, color_input):
# Reading settings
settings = Settings_Reader.Read_Settings_Client()
fps = settings['Client_Update_Fps']
background_color = settings['Background_Color']
Draw_grid_bool = settings['Draw_Grid']
# Calculating brightness
brightness = math.sqrt(0.241 * background_color[0] * background_color[0] +
0.691 * background_color[1] * background_color[1] +
0.068 * background_color[2] * background_color[2])
print(brightness)
# checking if we have to invert the colors
if brightness < 127:
Negative_color = True
print('must negative color')
else:
Negative_color = False
# initilisating mixer and loading music and sfx
pygame.mixer.pre_init(22100, -16, 1, 64)
pygame.mixer.init()
Sounds_dict = {
'join_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'Join_sound.wav')),
'quit_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'Quit_sound.wav')),
'kill_sound':
pygame.mixer.Sound(
os.path.join('Sounds', 'Kill Confirmed Sound Effect.wav')),
'killed_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'Killed_sound.wav')),
'click_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'click.wav')),
'hover_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'hover.wav')),
'countdown_3':
pygame.mixer.Sound(os.path.join('Sounds', 'fight321.wav')),
'Win_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'YouWin.wav')),
'Lose_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'YouLose.wav')),
'eating_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'eating_sound.wav')),
'Destroyed_sound':
pygame.mixer.Sound(os.path.join('Sounds', 'Destroyed.wav'))
}
# Sounds_dict['countdown_5']=pygame.mixer.Sound(os.path.join('Sounds','SFX Select.wav'))
# Sounds_dict['countdown_4']=pygame.mixer.Sound(os.path.join('Sounds','SFX Select.wav'))
# Sounds_dict['countdown_2']=pygame.mixer.Sound(os.path.join('Sounds','SFX Select.wav'))
# Sounds_dict['countdown_1']=pygame.mixer.Sound(os.path.join('Sounds','SFX Select.wav'))
# Sounds_dict['fight_sound']=pygame.mixer.Sound(os.path.join('Sounds','SFX Select.wav'))
# ability to play movies was removed
# Sounds_dict['Destroyed_video']= pygame.movie.Movie(os.path.join('Sounds','you-died-hd.mpg'))
music = pygame.mixer.music.load(os.path.join('Sounds', 'MusicMix.wav'))
pygame.mixer.music.play(-1)
# initilisating variables,buttons,list,etc...
key_pressed = ['Right', 0, 0]
## width=500
## height=500
Grid_factor = 4
Grid_size = [int(16 * Grid_factor), int(9 * Grid_factor)]
s_list = []
Sounds_to_play_decoded_check = ''
# Getting monitor size
for m in get_monitors():
print(str(m))
print(m.width)
print(m.height)
print((m.width // Grid_size[0]) * Grid_size[0])
print((m.height // Grid_size[1]) * Grid_size[1])
width = ((m.width) // Grid_size[0]) * Grid_size[0]
height = ((m.height) // Grid_size[1]) * Grid_size[1]
# initilisasing fonts
pygame.font.init()
myfont = pygame.font.SysFont('Comic Sans MS', int(width / 54.64))
Winning_font = pygame.font.Font("Kilogram-GvBO.otf", int(width / 27.32))
Window_size = (width, height)
## width = 500
## rows = 20
HEADER_LENGTH = 50
# IP=str(input('Give IP address: '))
# IP = "192.168.100.2"
PORT = 1234
# my_username = input("Username: "******"Color ex: 115;123;23 or write common color names: "))
color_input = snake_colors.handle_input_color(color_input)
my_username += '|' + color_input
# Create a socket
# socket.AF_INET - address family, IPv4, some otehr possible are AF_INET6, AF_BLUETOOTH, AF_UNIX
# socket.SOCK_STREAM - TCP, conection-based, socket.SOCK_DGRAM - UDP, connectionless, datagrams, socket.SOCK_RAW - raw IP packets
client_socket = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
# Connect to a given ip and port
client_socket.connect((IP, PORT))
# Set connection to non-blocking state, so .recv() call won;t block, just return some exception we'll handle
client_socket.setblocking(False)
# Prepare username and header and send them
# We need to encode username to bytes, then count number of bytes and prepare header of fixed size, that we encode to bytes as well
username = my_username.encode('utf-8')
username_header = f"{len(username):<{HEADER_LENGTH}}".encode('utf-8')
client_socket.send(username_header + username)
clock = pygame.time.Clock()
Rectangle_lengh = Window_size[0] // Grid_size[0]
#################START WINDOW
Window = pygame.display.set_mode(Window_size,
pygame.DOUBLEBUF | pygame.OPENGL)
#Window.toggle_fullscreen()
# pygame.FULLSCREEN |
snakes = []
snacks = []
Rectangle_height = Window_size[1] // Grid_size[1]
Game_started = False
additional_info = ''
timer = 0
infinite_loop = True
win_sound_played = False
lose_sound_played = False
cntrl_pressed = False
while infinite_loop:
glLoadIdentity()
gluPerspective(45, (width / height), 0.1, 5000.0)
#glTranslatef(0.0, 0.0, -55)
#glTranslatef(0.0, 0.0, -55)
#gluLookAt(0, 0, 55, 0, 0, 0, 0, 0.1, 1)
pygame.time.delay(int(1000 / fps))
## clock.tick(10)
Mouse_pos = pygame.mouse.get_pos()
if len(additional_info) == 1:
additional_info = 'Game starting in ' + additional_info
elif additional_info == 'not started':
additional_info = 'Wating for host to start the game'
elif additional_info == 'Game_started':
additional_info = 'Started'
# buttons['start_game'].text=additional_info
opengl_3d_draw.draw(snacks, snakes, Rectangle_height, Rectangle_lengh,
additional_info, Window_size, Grid_size,
background_color, Negative_color, Window,
Draw_grid_bool, Winning_font, myfont, Username,
key_pressed, cntrl_pressed)
# Processing snake inputs
for event in pygame.event.get():
if event.type == pygame.QUIT:
pygame.quit()
if event.type == pygame.KEYDOWN:
if event.key == pygame.K_ESCAPE:
delete_all_snakes = True
infinite_loop = False
if event.key == pygame.K_CAPSLOCK and cntrl_pressed == False:
cntrl_pressed = True
elif event.key == pygame.K_CAPSLOCK:
cntrl_pressed = False
if event.key == pygame.K_LEFT and key_pressed[0] == 'Up':
key_pressed[0] = 'Left'
elif event.key == pygame.K_LEFT and key_pressed[0] == 'Down':
key_pressed[0] = 'Right'
elif event.key == pygame.K_LEFT and key_pressed[0] == 'Left':
key_pressed[0] = 'Down'
elif event.key == pygame.K_LEFT and key_pressed[0] == 'Right':
key_pressed[0] = 'Up'
if event.key == pygame.K_RIGHT and key_pressed[0] == 'Up':
key_pressed[0] = 'Right'
elif event.key == pygame.K_RIGHT and key_pressed[0] == 'Down':
key_pressed[0] = 'Left'
elif event.key == pygame.K_RIGHT and key_pressed[0] == 'Left':
key_pressed[0] = 'Up'
elif event.key == pygame.K_RIGHT and key_pressed[0] == 'Right':
key_pressed[0] = 'Down'
#elif event.key == pygame.K_UP and key_pressed[0]!='Down':
# key_pressed[0] = 'Up'
#elif event.key == pygame.K_DOWN and key_pressed[0]!='Up':
# key_pressed[0] = 'Down'
# if event.key == pygame.K_a:
# key_pressed[1]='Left'
# elif event.key == pygame.K_d:
# key_pressed[1]='Right'
# elif event.key == pygame.K_w:
# key_pressed[1]='Up'
# elif event.key == pygame.K_s:
# key_pressed[1]='Down'
# else:
# key_pressed[1]=None
# if event.key == pygame.K_f:
# key_pressed[2]='Left'
# elif event.key == pygame.K_h:
# key_pressed[2]='Right'
# elif event.key == pygame.K_t:
# key_pressed[2]='Up'
# elif event.key == pygame.K_g:
# key_pressed[2]='Down'
# else:
# key_pressed[2]=None
# resseting varables
if len(additional_info) == 1:
if additional_info != '0':
win_sound_played = False
lose_sound_played = False
# Sending inputs in a message
message = str(
key_pressed[0]) # +' '+str(key_pressed[1])+' '+str(key_pressed[2])
# If message is not empty - send it
if message:
# Encode message to bytes, prepare header and convert to bytes, like for username above, then send
message = message.encode('utf-8')
message_header = f"{len(message):<{HEADER_LENGTH}}".encode('utf-8')
client_socket.send(message_header + message)
try:
# Now we want to loop over received messages (there might be more than one) and print them
while True:
message_from_server = False
# Receive our "header" containing username length, it's size is defined and constant
username_header = client_socket.recv(HEADER_LENGTH)
# If we received no data, server gracefully closed a connection, for example using socket.close() or socket.shutdown(socket.SHUT_RDWR)
if not len(username_header):
print('Connection closed by the server')
sys.exit()
# Convert header to int value
username_length = int(username_header.decode('utf-8').strip())
# Receive and decode username
username = client_socket.recv(username_length).decode('utf-8')
# Now do the same for message (as we received username, we received whole message, there's no need to check if it has any length)
message_header = client_socket.recv(HEADER_LENGTH)
message_length = int(message_header.decode('utf-8').strip())
message = client_socket.recv(message_length).decode('utf-8')
# Checking if the message comes from the server
if username == 'SERVER(sending(Cube.info))':
# print('message: ',message)
message_from_server = True
# Decode the message
snakes, snacks, additional_info, Sounds_to_play_decoded = decoder.decode(
message)
# Play the sounds
if my_username.split('|')[
0] in additional_info and not win_sound_played:
print('you win')
Sounds_dict['Win_sound'].play()
win_sound_played = True
elif 'winner' in additional_info and my_username.split('|')[0] not in additional_info \
and not lose_sound_played:
print('You lose')
Sounds_dict['Lose_sound'].play()
lose_sound_played = True
if Sounds_to_play_decoded != Sounds_to_play_decoded_check:
# print('sound_change')
if Sounds_to_play_decoded != ['']:
for sound in Sounds_to_play_decoded:
# if sound[1]=='countdown_3'and not pygame.mixer.get_busy():
# print('playing')
# Sounds_dict['countdown_3'].play()
if sound[
0] == my_username: # not pygame.mixer.get_busy():
# print(sound)
# if sound=='join_sound':
# Sounds_dict['join_sound'].play()
# except Exception as e:
# print (e)
# print(sound[1])
# print(Sounds_dict)
# print(Sounds_dict['killed_sound'])
# print(Sounds_dict[str(sound)])
# if sound[1]=='join_sound':
# Sounds_dict['Destroyed_video'].play()
Sounds_dict[sound[1]].set_volume(1)
Sounds_dict[sound[1]].play()
if sound[1] == 'Lose_sound':
Sounds_dict['Destroyed_sound'].play()
elif ('countdown' in sound[1]
or sound[1] == 'join_sound'
or sound[1] == 'quit_sound'
) and not pygame.mixer.get_busy():
Sounds_dict[sound[1]].play()
elif sound[0] != my_username and sound[
0] != 'all':
Sounds_dict[sound[1]].set_volume(0.3)
if sound[1] == 'Lose_sound':
Sounds_dict['Destroyed_sound'].play()
else:
# print('reducing volume')
Sounds_dict[sound[1]].play()
Sounds_to_play_decoded_check = Sounds_to_play_decoded
# print(snakes)
# Print message
# print(f'{username} > {message}')
except IOError as e:
# This is normal on non blocking connections - when there are no incoming data error is going to be raised
# Some operating systems will indicate that using AGAIN, and some using WOULDBLOCK error code
# We are going to check for both - if one of them - that's expected, means no incoming data, continue as normal
# If we got different error code - something happened
if e.errno != errno.EAGAIN and e.errno != errno.EWOULDBLOCK:
print('Reading error: {}'.format(str(e)))
# sys.exit()
# We just did not receive anything
continue
except Exception as e:
# Any other exception - something happened, exit
print('Reading error: '.format(str(e)))
# sys.exit()
pass
except:
pass
# Importing libraries __________________________________________________________________________________________________
from screeninfo import get_monitors
# ______________________________________________________________________________________________________________________
# Working out the value of u____________________________________________________________________________________________
# Finding out the resolution of the primary monitor_____________________________________________________________________
screen_resolution = None
for monitor in get_monitors():
monitor = str(monitor)
monitor_details = list(monitor[8:len(monitor) - 1])
counter = 0
for i in monitor_details:
if i is "+":
break
counter += 1
monitor_details = ''.join(monitor_details)
if monitor_details[len(monitor_details) - 4:] == "+0+0":
screen_resolution = monitor_details[:len(monitor_details) - 4]
screen_resolution = list(screen_resolution)
counter = 0
for i in screen_resolution:
if i == "x":
break
counter += 1
def __init__(self, root):
if sys.platform == "win32":
app_x, app_y, app_width, app_height = 0, 0, 1200, 610
else:
app_x, app_y, app_width, app_height = 0, 0, 1200, 620
for m in screeninfo.get_monitors():
if m.x == 0 and m.y == 0:
app_x = (m.width - app_width) // 2
app_y = (m.height - app_height) // 2
break
geometry = "{}x{}+{}+{}".format(app_width, app_height, app_x, app_y)
self.__root = root
self.__root.resizable(0, 0)
self.__root.geometry(geometry)
self.__root.title("J1939 Monitor")
self.__root.option_add("*Font", "맑은고딕 10")
try:
# sys.MEIPASS is temp directory for pyinstaller
icon_path = os.path.join(getattr(sys, '_MEIPASS'), "j1939.png")
except:
icon_path = os.path.join(os.path.abspath("."), "j1939.png")
self.__root.iconphoto(True, tkinter.PhotoImage(file=icon_path))
self.__can_list = [tkinter.StringVar() for _ in range(6)]
self.__para_list = [None for _ in range(6)]
self.__uart = None
self.__queue = queue.Queue()
self.__con_string = tkinter.StringVar(value="Connect")
self.__ucount = 0
self.__lbl_port = tkinter.Label(self.__root,
text="Serial Port",
anchor="e")
self.__cmb_port = ttk.Combobox(self.__root, values=sp.comports())
self.__btn_conn = tkinter.Button(self.__root,
textvariable=self.__con_string,
command=self.__cb_btn_conn)
self.__seperat1 = ttk.Separator(self.__root, orient="horizontal")
for i in range(30):
if i < 20:
self.__root.rowconfigure(i, pad=1)
self.__root.rowconfigure(i, weight=1)
self.__root.rowconfigure(i, minsize=30)
self.__root.columnconfigure(i, pad=1)
self.__root.columnconfigure(i, weight=1)
self.__root.columnconfigure(i, minsize=40)
self.__lbl_port.grid(row=0,
column=20,
columnspan=3,
sticky="news",
padx=1,
pady=3)
self.__cmb_port.grid(row=0,
column=23,
columnspan=4,
sticky="news",
padx=1,
pady=3)
self.__btn_conn.grid(row=0,
column=27,
columnspan=3,
sticky="news",
padx=1,
pady=3)
self.__seperat1.grid(row=1, column=0, columnspan=30, sticky="ew")
for i in range(6):
self.__para_list[i] = j1939_data.Parameter(
i,
tkinter.LabelFrame(self.__root, text="Parameter {}".format(i)))
import os
import sys
#Fix kivy bug by specifying relevant info.
if sys.platform.startswith('linux'):
os.environ['KIVY_GL_BACKEND'] = 'sdl2'
os.environ['DISPLAY'] = ':0'
os.environ['KIVY_AUDIO'] = 'sdl2'
from screeninfo import get_monitors
from kivy.config import Config
#Size window to fullscreen. Must be done at start of script.
#Built-in kivy fullscreen method is buggy, causes debian systems to crash.
screenDimensions = get_monitors()[0]
Config.set('graphics', 'width', screenDimensions.width)
Config.set('graphics', 'height', screenDimensions.height)
from kivymd.app import MDApp
from kivymd.uix.button import MDRectangleFlatButton
from kivymd.uix.datatables import MDDataTable
from kivymd.uix.list import MDList, OneLineListItem, OneLineIconListItem, IconLeftWidget, OneLineAvatarIconListItem
from kivymd.uix.dialog import MDDialog
from kivymd.uix.behaviors.toggle_behavior import MDToggleButton
from kivymd.uix.button import MDIconButton
from kivymd.uix.label import MDLabel
from kivymd.icon_definitions import md_icons
from kivymd.uix.boxlayout import MDBoxLayout
from kivymd.uix.card import MDCard
def get_configuration(args):
global __config_file__
# ensure __config_file__ always exists
if args.config_file is not None:
if not os.path.exists(args.config_file):
log.error(f"Can't find {args.config_file}.")
if sys.platform == 'win32':
log.info(
f"Copying default configuration file to {args.config_file}..."
)
os.system(f"copy default_config.yml {args.config_file}")
elif sys.platform in ["linux2", "darwin"]:
log.info(
f"Copying default configuration file to {args.config_file}..."
)
os.system(f"cp default_config.yml {args.config_file}")
else:
log.info("Please create the configuration file manually.")
log.info("Read configuration from default_config.yml.")
else:
__config_file__ = args.config_file
global_defaults_file = os.path.join(get_manim_dir(), "manimlib",
"default_config.yml")
if not (os.path.exists(global_defaults_file)
or os.path.exists(__config_file__)):
log.info(
"There is no configuration file detected. Switch to the config file initializer:"
)
init_customization()
elif not os.path.exists(__config_file__):
log.info(
f"Using the default configuration file, which you can modify in `{global_defaults_file}`"
)
log.info(
"If you want to create a local configuration file, you can create a file named"
f" `{__config_file__}`, or run `manimgl --config`")
custom_config = get_custom_config()
check_temporary_storage(custom_config)
write_file = any([args.write_file, args.open, args.finder])
if args.transparent:
file_ext = ".mov"
elif args.gif:
file_ext = ".gif"
else:
file_ext = ".mp4"
file_writer_config = {
"write_to_movie":
not args.skip_animations and write_file,
"break_into_partial_movies":
custom_config["break_into_partial_movies"],
"save_last_frame":
args.skip_animations and write_file,
"save_pngs":
args.save_pngs,
# If -t is passed in (for transparent), this will be RGBA
"png_mode":
"RGBA" if args.transparent else "RGB",
"movie_file_extension":
file_ext,
"mirror_module_path":
custom_config["directories"]["mirror_module_path"],
"output_directory":
args.video_dir or custom_config["directories"]["output"],
"file_name":
args.file_name,
"input_file_path":
args.file or "",
"open_file_upon_completion":
args.open,
"show_file_location_upon_completion":
args.finder,
"quiet":
args.quiet,
}
if args.embed is None:
module = get_module(args.file)
else:
with insert_embed_line(args.file, int(args.embed)) as alt_file:
module = get_module(alt_file)
config = {
"module": module,
"scene_names": args.scene_names,
"file_writer_config": file_writer_config,
"quiet": args.quiet or args.write_all,
"write_all": args.write_all,
"skip_animations": args.skip_animations,
"start_at_animation_number": args.start_at_animation_number,
"end_at_animation_number": None,
"preview": not write_file,
"presenter_mode": args.presenter_mode,
"leave_progress_bars": args.leave_progress_bars,
}
# Camera configuration
config["camera_config"] = get_camera_configuration(args, custom_config)
# Default to making window half the screen size
# but make it full screen if -f is passed in
monitors = get_monitors()
mon_index = custom_config["window_monitor"]
monitor = monitors[min(mon_index, len(monitors) - 1)]
window_width = monitor.width
if not (args.full_screen or custom_config["full_screen"]):
window_width //= 2
window_height = window_width * 9 // 16
config["window_config"] = {
"size": (window_width, window_height),
}
# Arguments related to skipping
stan = config["start_at_animation_number"]
if stan is not None:
if "," in stan:
start, end = stan.split(",")
config["start_at_animation_number"] = int(start)
config["end_at_animation_number"] = int(end)
else:
config["start_at_animation_number"] = int(stan)
return config
import arcade
from screeninfo import get_monitors
monitors = get_monitors()
try:
SCREEN_WIDTH = monitors[0].width
SCREEN_HEIGHT = monitors[0].height
except Exception as e:
print("Monitor resolution not found.")
exit(1)
SCREEN_TITLE = "SCORE"
class StartButton(arcade.TextButton):
def __init__(self, center_x, center_y, text_size, action_function):
super().__init__(center_x,
center_y,
360,
150,
"START",
font_size=text_size,
shadow_color=arcade.color.RED,
font_color=arcade.color.BLACK,
button_height=0,
face_color=arcade.color.RED)
self.action_function = action_function
def on_press(self):
self.action_function()
from screeninfo import get_monitors # Screen Information (screeninfo) is a package to fetch location and size of physical screens.
# Window packages
from tkinter import Toplevel, Tk, Label # Graphical User Interface (GUI) package
from PIL import Image, ImageTk # Python Imaging Librarier (PIL) package
# Processing packages
import re # Regular Expression (re) is a package to check, if a string contains the specified search pattern.
import numpy as np # Scientific computing package (NumPy)
import os # used to create path to image folder
current_path = os.getcwd()
folder_path = os.path.join(current_path, "Grating_Images")
if not os.path.exists(folder_path):
os.makedirs(folder_path)
### Monitor controlling
# Finds the resolution of all monitors that are connected.
active_monitors = get_monitors() # "monitor(screenwidth x screenheight + startpixel x + startpixel y)"
# Separates all numbers from a string
monitor_values=re.findall('([0-9]+)', str(active_monitors))
print(monitor_values)
# Assign the separated digits of the string to a variable
begin_monitor_horizontal = monitor_values[0]
begin_monitor_vertical = monitor_values[1]
begin_slm_horizontal = monitor_values[7]
begin_slm_vertical = monitor_values[8]
# Reverse the monitor pixel order (because, the SLM monitor is located ón the left side of the main monitor)
begin_slm_horizontal = str(int(begin_monitor_horizontal) - int(begin_slm_horizontal))
# ---------- CONSTANTS ----------
FULLSCREEN = False
# ---------- VARIABLES ----------
fonts = create_fonts([32, 16, 14, 8])
fps = 60
clock = pygame.time.Clock()
# ---------- INIT ----------
COF = 2
size = width, height = int(640 * COF), int(360 * COF)
screen = pygame.display.set_mode(size)
if __name__ == '__main__':
if FULLSCREEN:
size = width, height = get_monitors()[0].width, get_monitors(
)[0].height
COF = width / 640
screen = pygame.display.set_mode(
size, pygame.HWSURFACE | pygame.DOUBLEBUF | pygame.FULLSCREEN)
else:
COF = 2
size = width, height = int(640 * COF), int(360 * COF)
screen = pygame.display.set_mode(size)
pygame.display.set_caption('Inventory')
main_running = True
im = pygame.image.load('im.png')
while main_running:
# world_noise = PerlinNoiseFactory(2, octaves=4, unbias=False, seed=random.randint(1, 55))
def draw_scene(vcd):
# Prepare objects
scene = scl.Scene(
vcd) # scl.Scene has functions to project images, transforms, etc.
drawer_front = draw.Image(scene, "CAM_FRONT")
drawer_rear = draw.Image(scene, "CAM_REAR")
drawer_left = draw.Image(scene, "CAM_LEFT")
drawer_right = draw.Image(scene, "CAM_RIGHT")
frameInfoDrawer = draw.FrameInfoDrawer(vcd)
setupViewer = draw.SetupViewer(scene, "vehicle-iso8855")
# Class colormap
colorMap = {
'Car': (0, 0, 255),
'Van': (255, 0, 0),
'Truck': (127, 127, 0),
'Pedestrian': (0, 255, 0),
'Person_sitting': (0, 127, 127),
'Tram': (127, 0, 127),
'Misc': (127, 127, 127),
'DontCare': (255, 255, 255),
'Cyclist': (0, 127, 255),
'Ego-car': (0, 0, 0),
'Wall': (0, 0, 255),
'Ground': (0, 255, 0)
}
# Get the size of the screen
screen = screeninfo.get_monitors()[0]
# Draw the images
img_width_px = 960
img_height_px = 604
img_front = 255 * np.ones((img_height_px, img_width_px, 3), np.uint8)
img_rear = 255 * np.ones((img_height_px, img_width_px, 3), np.uint8)
img_left = 255 * np.ones((img_height_px, img_width_px, 3), np.uint8)
img_right = 255 * np.ones((img_height_px, img_width_px, 3), np.uint8)
imageParams = draw.Image.Params(_colorMap=colorMap)
drawer_front.draw(img_front, 0, _params=imageParams)
drawer_rear.draw(img_rear, 0, _params=imageParams)
drawer_left.draw(img_left, 0, _params=imageParams)
drawer_right.draw(img_right, 0, _params=imageParams)
# Undistort
cam_front = scene.get_camera("CAM_FRONT", compute_remaps=True)
cam_rear = scene.get_camera("CAM_REAR", compute_remaps=True)
cam_left = scene.get_camera("CAM_LEFT", compute_remaps=True)
cam_right = scene.get_camera("CAM_RIGHT", compute_remaps=True)
img_front_und = cam_front.undistort_image(img_front)
img_rear_und = cam_rear.undistort_image(img_rear)
img_left_und = cam_left.undistort_image(img_left)
img_right_und = cam_right.undistort_image(img_right)
# Draw the text
textImg = frameInfoDrawer.draw(0,
cols=400,
rows=img_height_px * 2,
_params=imageParams)
mosaic = np.vstack((np.hstack(
(img_front, img_right)), np.hstack((img_left, img_rear))))
cv.line(mosaic, (mosaic.shape[1] // 2, 0),
(mosaic.shape[1] // 2, mosaic.shape[0]), (0, 0, 0), 3)
cv.line(mosaic, (0, mosaic.shape[0] // 2),
(mosaic.shape[1], mosaic.shape[0] // 2), (0, 0, 0), 3)
mosaic_und = np.vstack((np.hstack(
(img_front_und, img_right_und)), np.hstack(
(img_left_und, img_rear_und))))
cv.line(mosaic_und, (mosaic_und.shape[1] // 2, 0),
(mosaic_und.shape[1] // 2, mosaic_und.shape[0]), (0, 0, 0), 3)
cv.line(mosaic_und, (0, mosaic_und.shape[0] // 2),
(mosaic_und.shape[1], mosaic_und.shape[0] // 2), (0, 0, 0), 3)
# Draw the top view
topview_width = 1280
topview_height = 1280
ar = topview_width / topview_height
rangeX = (-30.0, 30.0)
rangeY = (-((rangeX[1] - rangeX[0]) / ar) / 2,
((rangeX[1] - rangeX[0]) / ar) / 2)
topviewParams = draw.TopView.Params(colorMap=colorMap,
topViewSize=(topview_width,
topview_height),
background_color=255,
rangeX=rangeX,
rangeY=rangeY,
stepX=1.0,
stepY=1.0,
draw_grid=False)
drawerTopView = draw.TopView(scene,
"vehicle-iso8855",
params=topviewParams)
topView = drawerTopView.draw(frameNum=0)
cv.namedWindow("Cameras", cv.WINDOW_NORMAL)
cv.imshow("Cameras", mosaic)
cv.namedWindow("Cameras undistorted", cv.WINDOW_NORMAL)
cv.imshow("Cameras undistorted", mosaic_und)
cv.namedWindow("VCD info")
cv.imshow("VCD info", textImg)
cv.namedWindow("TopView", cv.WINDOW_NORMAL)
cv.imshow("TopView", topView)
cv.waitKey(0)
fig1 = setupViewer.plot_setup()
plt.show()
from sys import platform
Config.set('graphics', 'resizable', False)
if platform == 'darwin': # we are on a Mac
# This probably means that we are testing on a personal laptop
# settings for MBP 16" 2021
fixed_window_size = (
3072, 1920) # we get this automatically now but here it is anyway
fixed_window_size_cm = (34.5, 21.5) # this is the important part
pix_per_cm = 104. # we get this automatically now but here it is anyway
elif platform == 'win32':
# see if there is an external monitor plugged in
from screeninfo import get_monitors
mon = get_monitors()
# if len(get_monitors()) > 1 or get_monitors()[0].height == 1080:
# # must be an external monitor plugged in
# # assume that it is the ViewSonic TD2230
# fixed_window_size = (1920, 1080) # we get this automatically now but here it is anyway
# fixed_window_size_cm = (47.6, 26.8) # this is the important part
# pix_per_cm = 40. # we get this automatically now but here it is anyway
# else:
# must just be the Surface Pro
# These are surface pro settings
fixed_window_size = (
2160, 1440) # we get this automatically now but here it is anyway
fixed_window_size_cm = (47.6, 26.8)
# fixed_window_size_cm = (22.8, 15.2) # this is the important part
pix_per_cm = 95. # we get this automatically now but here it is anyway
import winsound
import csv
import os
import screeninfo
res_folder = 'res' + os.path.sep
monitors = [(m.x, m.y, m.width, m.height) for m in screeninfo.get_monitors()]
def read_hotkeys():
"""
Read the hotkeys from the hotkeys.csv file.
If it does not exists, set standard hotkeys.
"""
if os.path.exists(res_folder + 'hotkeys.csv'):
with open(res_folder + 'hotkeys.csv', newline='') as csvfile:
reader = csv.reader(csvfile)
return [row for row in reader]
else:
if not os.path.exists('res'):
os.mkdir('res')
hotkeys = [['alt', 'shift', f'{n}']
for n, _ in enumerate(screeninfo.get_monitors(), 1)]
hotkeys.append(['alt', 'shift', 's'])
hotkeys.append(['alt', 'shift', 'e'])
return hotkeys
def write_hotkeys(hotkeys):
"""
Write the hotkeys to the hotkeys.csv file.
'root_dir': '/home/nehla/laser_code',
'file_name': '/home/nehla/laser_code/StA-Line_Scan-Fence.mov',
# 'file_name': '/home/nehla/laser_code//home/nehla/laser_code/StA-Line_scan-long.MP4',
'save_file_name': '/home/nehla/laser_code/save.mkv',
'load_path': '',
'img_ext': 'png',
'binarize': 1,
'show_img': 1,
'n_frames': 0,
'resize_factor': 0.8,
'thresh': 50.0,
'method': 0,
'temporal_window_size': 10,
'codec': 'H264',
}
monitors = get_monitors()
curr_monitor = str(monitors[0])
resolution = curr_monitor.split('(')[1].split('+')[0].split('x')
res_width, res_height = [int(x) for x in resolution]
print('resolution: ', resolution)
for m in get_monitors():
print(m)
processArguments(sys.argv[1:], params)
root_dir = params['root_dir']
file_name = params['file_name']
save_file_name = params['save_file_name']
load_path = params['load_path']
def showError(self, message):
"""Display a simple error dialog.
"""
# self.OnStop()
showerror(self.parent.title(), message)
# START App Main()
r = RoundBtns()
dataSet = DataSet()
selectedTeam = ""
selectedRound = 0
# mpv_palyer = MPV(start_mpv=False, ipc_socket="/tmp/mpv.socket")
monitorList = get_monitors()
for m in monitorList:
print(str(m))
# Bind to key press events with a decorator
#@mpv_player.on_event("start-file")
#def evStartFile_handler(evData):
# setattr(dataSet, "playing", "1")
#@mpv_player.on_event("end-file")
#def evStartFile_handler(evData):
# setattr(dataSet, "playing", "0")
ssock_file = '/tmp/sdobox.socket'
csock_file = '/tmp/sdobox.dubbing.socket'
from screeninfo import get_monitors
for m in get_monitors():
pass
SCREEN_WIDTH = m.width
SCREEN_HEIGHT = m.height
SCREEN_RESOLUTION = int(SCREEN_WIDTH / 2), int(SCREEN_HEIGHT / 2)
# Colors
COLOR_RGB_BLACK = 0, 0, 0,
def getResolutionsWindows():
return ['{}x{}'.format(m.width, m.height) for m in get_monitors()]
def init():
# Global for Screen resolution and windows pos ...
global s_height
global s_win_width
global s_win_height
global s_win_height_offset
m = re.findall(r'\d+', str(get_monitors()))
if m:
s_width = int(m[0])
s_height = int(m[1])
s_win_width = s_width // 6
s_win_height = s_height // 4
s_win_height_offset = 10
print("Screen Resolution: (%d x %d) Win Resolution: (%d x %d)" %
(s_width, s_height, s_win_width, s_win_height))
# input video/image size
global frames, vi_width, vi_height
frames = 0
vi_width = 0
vi_height = 0
# number of windows for hisrogramme
global nwindows
nwindows = configuration.N_WINDOWS
# Set scale px/meter to default value
global scale_px_width, scale_px_height
scale_px_width = 0
scale_px_height = 0
lane_size_px = 0
global cold_boot
cold_boot = True
# Global related to trackbar management
global trackbar_enabled
trackbar_enabled = False
# Global related to region of interest trapeze ...
global trap_bottom_width # width of bottom edge of trapezoid, expressed as percentage of image width
global trap_top_width # ditto for top edge of trapezoid
global trap_height # height of the trapezoid expressed as percentage of image height
global trap_warped_ratio # ratio for perspective transform
trap_bottom_width = configuration.TRAP_BOTTOM_WIDTH
trap_top_width = configuration.TRAP_TOP_WIDTH
trap_height = configuration.TRAP_HEIGHT
trap_warped_ratio = configuration.TRAP_WARPED_RATIO
"""
Global Variables for method relative to canny + HoughP
"""
# Gaussian smoothing
global kernel_size
kernel_size = 3
# Canny Edge Detector
global low_threshold
global high_threshold
low_threshold = 50
high_threshold = 150
# Hough Transform
global rho # (2 -> 0.8) distance resolution in pixels of the Hough grid
global theta # angular resolution in radians of the Hough grid
global threshold # (15 -> 25) minimum number of votes (intersections in Hough grid cell)
global min_line_length # (10 -> 50) minimum number of pixels making up a line
global max_line_gap # (20 -> 200) maximum gap in pixels between connectable line segments
rho = 2
theta = 1 * np.pi / 180
threshold = 15
min_line_length = 10
max_line_gap = 20
"""
Global Variable for method relative to combined threshold + birdview + curves
"""
# Filter combination
global combined_filter_type
combined_filter_type = configuration.FILTER_SOBEL_MAG_DIR_HLS_HSV
# Sobel Threshold
global sobel_th_min
global sobel_th_max
sobel_th_min = 50
sobel_th_max = 255
# Sobel Kernel Size
global mag_sobel_kernel_size
mag_sobel_kernel_size = 3
global dir_sobel_kernel_size
dir_sobel_kernel_size = 15
# HLS threshold
global hls_s_th_min
global hls_s_th_max
hls_s_th_min = 100
hls_s_th_max = 2555
# RGB mak
global rgb_lower_white, rgb_upper_white
rgb_lower_white = np.array([200, 200, 200])
rgb_upper_white = np.array([255, 255, 255])
# HSV mask
# gimp uses H = 0-360, S = 0-100 and V = 0-100. But OpenCV uses H: 0 - 180, S: 0 - 255, V: 0 - 255
global hsv_lower_white, hsv_upper_white
hsv_lower_white = np.array([0, 0, 184])
hsv_upper_white = np.array([180, 16, 255])
global hsv_lower_yellow, hsv_upper_yellow
hsv_lower_yellow = np.array([20, 68, 95])
hsv_upper_yellow = np.array([30, 255, 255])
# Line curves global varaibles
global window_size # how many frames for line smoothing
global left_line
global right_line
global detected # did the fast line fit detect the lines?
global left_curve, right_curve # radius of curvature for left and right lanes
global left_lane_inds, right_lane_inds # for calculating curvature
window_size = 5
left_line = Line(n=window_size)
right_line = Line(n=window_size)
left_line.reset_fit()
right_line.reset_fit()
detected = False
left_curve, right_curve = 0., 0.
left_lane_inds, right_lane_inds = None, None
# Detection mode
global detect_mode, detect_fast_mode_allowed
detect_fast_mode_allowed = False
detect_mode = configuration.SLOW_MODE
# Viz Degraded Mode
global degraded_viz_mode_allowed, degraded_viz_mode, degraded_viz_count, degraded_viz_threshold, span_y_ratio_threshold
degraded_viz_mode_allowed = False
degraded_viz_mode = False
degraded_viz_threshold = configuration.DEGRAD_VIZ_THRESHOLD
degraded_viz_count = 0
span_y_ratio_threshold = 1 / 2
# PID parameters
global Kp, Ki, Kd
#Kp = 10
#Ki = 1
#Kd = 100
Kp = 0.1
Ki = 0.
Kd = 0.1
global integral, lastError, derivative
integral = 0 # the place where we will store our integral
lastError = 0 # the place where we will store the last error value
derivative = 0 # the place where we will store the derivative
"""
Global Variable for camera calibration
"""
global mtx
global dist
with open(
os.path.dirname(os.path.abspath(inspect.stack()[0][1])) +
'/calibrate_camera.p', 'rb') as f:
save_dict = pickle.load(f)
mtx = save_dict['mtx']
dist = save_dict['dist']
print('mtx:', mtx)
print('dist:', dist)
"""
Global Variable for shadow removal
"""
class ShadowProperties(object):
light_threshold = {'automatic': 1, 'min': 0, 'max': 255}
sat_threshold = {'automatic': 1, 'min': 0, 'max': 255}
mask_refine_parameters = {
'kernel_dilate_x': 15,
'kernel_dilate_y': 15,
'roi_max': 0
}
mask_blur = {'kernel_blur_x': 5, 'kernel_blur_y': 5, 'alpha_coef': 200}
background = {
'median_blur_ksize': 25,
'morphology_auto': 1,
'morphology_kernel_x': 5,
'morphology_kernel_y': 30
}
global shadows
shadows = ShadowProperties
"""
Global Variable for inverse perspective transform
"""
class IPMProperties(object):
camera_parameters = {
'fu': 800, # 1333,
'fv': 400, # 425,
'alpha': 2, # 3,
'cu_ratio': 50,
'cv_ratio': 0
}
camera_parameters_ranges = {
'fu': [0, 6000],
'fv': [0, 6000],
'alpha': [0, 90],
'cu_ratio': [0, 100],
'cv_ratio': [0, 100]
}
filter_x = {
'filter_size_x': 5, #40, #4,
'sx': 8 # 36 #8 # values is /10
}
filter_y = {
'filter_size_y': 50,
'sy': 15 #48 #30 #200, # values is /10
}
threshold = {
'percentile': 97 #92 #97
}
hough_parameters = {
'min_distance': 7,
'min_angle': 5,
'max_angle': 20 # 20
}
hough_p_parameters = {'threshold': 25, 'line_length': 7, 'line_gap': 3}
camera = None
ground_transform = None
global ipm
ipm = IPMProperties
import numpy as np import argparse import cv2 import imutils import time import pyautogui import time # import pygame # import pygame.camera import threading pyautogui.FAILSAFE = False import screeninfo # pygame.init() # pygame.camera.init() screen = screeninfo.get_monitors()[0] # define the lower and upper boundaries of the "green" # ball in the HSV color space, then initialize the # list of tracked points greenLower = (45, 120, 65) greenUpper = (64, 255, 255) pts = deque(maxlen=2) vs = VideoStream(src=0).start() # allow the camera or video file to warm up time.sleep(2.0) # keep looping #clock = pygame.time.Clock() def function(hsv):
def main():
"""Application entry point"""
if os.geteuid() == 0:
sys.exit("This software is not supposed to be run as root!")
io1_io2_layout = []
io3_io4_layout = []
ioexp_layout = []
modbus_rx_len = 0
global modbus_request
global DEFAULT_UART_PORT
global SCREEN_POS_X
global SCREEN_POS_Y
# Get center position coordinates of monitor
for monitor in get_monitors():
SCREEN_POS_X = int(monitor.width / 2)
SCREEN_POS_Y = int(monitor.height / 2)
break
# Check platform support
if "linux" in platform.system().lower():
DEFAULT_UART_PORT = "/dev/ttyACM0"
elif "windows" in platform.system().lower():
DEFAULT_UART_PORT = "COM1"
else:
sg.Popup('OS not supported!', location=(SCREEN_POS_X, SCREEN_POS_Y))
sys.exit(1)
# Open connection to slave microcontroller
while True:
connection_settings = gui_connection_popup()
if not connection_settings:
sys.exit(0)
[_type, opt1, opt2] = connection_settings
try:
if _type == 'uart':
dev_con = DeviceConnection(mode='uart_usb', port=opt1)
else:
dev_con = DeviceConnection(mode='i2c',
address=Convert.str_to_int(opt1),
bus=Convert.str_to_int(opt2))
break
except Exception as msg:
sg.Popup('Connection failed!',
location=(SCREEN_POS_X, SCREEN_POS_Y))
# Get board hardware info
hwinfo_reg = dev_con.get_register(REG.R_HW_INFO)
board_type = ((hwinfo_reg & 0xF000) >> 12)
board_variant = ((hwinfo_reg & 0x0F00) >> 8)
# Set options depending on variant
rtc_supported = (board_type == BOARD_TYPE.AUTOMATE_MINI
and board_variant == BOARD_VARIANT.FULL)
rs485_supported = (board_type == BOARD_TYPE.AUTOMATE_MINI
and board_variant == BOARD_VARIANT.FULL)
can_supported = (board_type == BOARD_TYPE.AUTOMATE_MINI
and board_variant == BOARD_VARIANT.FULL)
if board_type != BOARD_TYPE.AUTOMATE_MINI:
sys.exit("Board not supported by this tool!")
def gui_update_tab(reg_address_start, reg_address_stop):
"""Get / update all registers for range"""
reg_values = dev_con.get_registers(
reg_address_start, reg_address_stop - reg_address_start + 1)
for i in range(reg_address_start, reg_address_stop + 1):
if str('_KEY_TEXT_%i' % i) in gui_window.AllKeysDict:
if not values[str('_KEY_EDIT_%i' % i)]:
gui_window[str(
'_KEY_TEXT_%i' % i)].update(value=format_response(
i, reg_values[i - reg_address_start], values))
def gui_update_tab_modbus_dmx512():
"""Get / update all modbus and DMX512 registers"""
global modbus_request
modbus_enabled = 'modbus' in values[str(
'_KEY_TEXT_%s' % REG.RW_UART_RS485_CONF1)].lower()
dmx512_enabled = 'dmx512' in values[str(
'_KEY_TEXT_%s' % REG.RW_UART_RS485_CONF1)].lower()
gui_window[GUI_KEY_MODBUS_TXBUT].update(disabled=not modbus_enabled)
gui_window[GUI_KEY_DMX512_TXBUT].update(disabled=not dmx512_enabled)
if modbus_enabled and modbus_request:
modbus_request_mode = (values[GUI_KEY_MODBUS_CODE] == str(4)
or values[GUI_KEY_MODBUS_CODE] == str(3)
) # TODO support for function 1 and 2?
gui_window[GUI_KEY_MODBUS_REG_VAL].update(
disabled=modbus_request_mode)
gui_window[GUI_KEY_MODBUS_REG_LEN].update(
disabled=not modbus_request_mode)
rx_state = dev_con.get_register(REG.R_UART_RS485_RX_STATUS)
if UART_STATE(rx_state) == UART_STATE.STATE_OK:
rx_len = dev_con.get_register(REG.R_UART_RS485_RX_PEND)
dev_con.set_register(REG.W_UART_RS485_RX_LEN, rx_len)
gui_window[GUI_KEY_MODBUS_RESP].update(value=str(
dev_con.get_registers(REG.R_UART_RS485_RX_VAL,
register_len=int(rx_len / 2))))
modbus_request = False
else:
gui_window[GUI_KEY_MODBUS_RESP].update(
value=str(UART_STATE(rx_state).name))
def gui_update_canrx():
"""Get / update can RX messages"""
reg_start = REG.R_CAN_RX_STATUS
reg_stop = REG.R_CAN_RX_ERRCNT
while True:
reg_values = dev_con.get_registers(reg_start,
reg_stop - reg_start + 1)
for i in range(reg_start, reg_stop + 1):
if str('_KEY_TEXT_%i' % i) in gui_window.AllKeysDict:
if not values[str('_KEY_EDIT_%i' % i)]:
gui_window[str(
'_KEY_TEXT_%i' % i)].update(value=format_response(
i, reg_values[i - reg_start], values))
if int(reg_values[REG.R_CAN_RX_PEND - reg_start]) > 0:
frame_txt = str(datetime.datetime.now().time())
can_id = int(reg_values[REG.R_CAN_RX_ID2 - reg_start])
can_data_len = int(reg_values[REG.R_CAN_RX_LEN - reg_start])
# ID1 is only used for the upper 13-bits of an extended 29-bit id scheme
# All bits are set if the received frame is the regular format (11-bit id)
if int(reg_values[REG.R_CAN_RX_ID1 - reg_start]) != 0xFFFF:
can_id += (
int(reg_values[REG.R_CAN_RX_ID1 - reg_start]) << 16)
frame_txt += str(" - Extended ID: %08X Data: " % can_id)
else:
frame_txt += str(" - ID: %03X Data: " % can_id)
for i in range(4):
if can_data_len <= 0:
break
frame_txt += str(
"%02X " %
((int(reg_values[REG.R_CAN_RX_DATA1 - reg_start + i])
& 0xFF00) >> 8))
can_data_len -= 1
if can_data_len <= 0:
break
frame_txt += str(
"%02X " %
((int(reg_values[REG.R_CAN_RX_DATA1 - reg_start + i])
& 0x00FF) >> 0))
can_data_len -= 1
gui_window[GUI_KEY_CAN_LOG +
sg.WRITE_ONLY_KEY].print(frame_txt)
# Even more frames in FIFO buffer, read them now
if int(reg_values[REG.R_CAN_RX_PEND - reg_start]) > 1:
continue
break
# Build GUI tab layout
gui_layout_tabs = []
uart_layout = gui_format_tab(REGMAP.REG_MAP_UART)
uart_layout.append([sg.Text('')])
uart_layout.append([
sg.Text(
'RS485 Modbus RTU Master/Client (Requires UART in modbus mode)')
])
uart_layout.append([
sg.Text('Slave address (1-255)', size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In('1',
disabled=False,
key=GUI_KEY_MODBUS_SLAVE,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([
sg.Text('Function code (3, 4 or 16)',
size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In('4',
disabled=False,
key=GUI_KEY_MODBUS_CODE,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([
sg.Text('Register address', size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In('1',
disabled=False,
key=GUI_KEY_MODBUS_REG,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([
sg.Text('Register count', size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In('1',
disabled=False,
key=GUI_KEY_MODBUS_REG_LEN,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([
sg.Text('Register value(s) (comma separated)',
size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In('1',
disabled=False,
key=GUI_KEY_MODBUS_REG_VAL,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([
sg.Text('', size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.B('Send/Request',
key=GUI_KEY_MODBUS_TXBUT,
enable_events=True,
disabled=False)
])
uart_layout.append([
sg.Text('Response', size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In(disabled=True,
key=GUI_KEY_MODBUS_RESP,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([sg.Text('')])
uart_layout.append(
[sg.Text('RS485 DMX512 (Requires UART in DMX512 mode)')])
uart_layout.append([
sg.Text('Start channel/slot (1-512)',
size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In('1',
key=GUI_KEY_DMX512_SLOT,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([
sg.Text('Value(s) (comma separated, 0-255)',
size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.In('0',
key=GUI_KEY_DMX512_TXVAL,
size=(CONF_REG_VALUE_WIDTH, 1),
enable_events=True)
])
uart_layout.append([
sg.Text('', size=(CONF_REG_MODBUS_DESC_WIDTH, 1)),
sg.B('Send', key=GUI_KEY_DMX512_TXBUT, enable_events=True)
])
gui_layout_tabs.append(
sg.Tab('General',
gui_format_tab(REGMAP.MAP_GEN_INFO),
tooltip='Generic device info',
key=GUI_TABKEY_GEN_INFO))
gui_layout_tabs.append(
sg.Tab('IO1', gui_format_tab(REGMAP.MAP_IO_1), key=GUI_TABKEY_IO1))
gui_layout_tabs.append(
sg.Tab('IO2', gui_format_tab(REGMAP.MAP_IO_2), key=GUI_TABKEY_IO2))
gui_layout_tabs.append(
sg.Tab('IO3', gui_format_tab(REGMAP.MAP_IO_3), key=GUI_TABKEY_IO3))
gui_layout_tabs.append(
sg.Tab('IO Expander',
gui_format_tab(REGMAP.MAP_IO_EXP),
key=GUI_TABKEY_IO_EXP))
# Add RS485, RTC and CAN bus tabs only if supported by board
if rs485_supported:
gui_layout_tabs.append(
sg.Tab('RS485',
uart_layout,
tooltip='UART and RS485 settings',
key=GUI_TABKEY_UART))
if can_supported:
gui_layout_tabs.append(
sg.Tab('CAN bus Config',
gui_format_tab(REGMAP.REG_MAP_CAN_CONF),
tooltip='CAN bus Config',
key=GUI_TABKEY_CAN_CONF))
gui_layout_tabs.append(
sg.Tab('CAN bus TX',
gui_format_tab(REGMAP.REG_MAP_CAN_TX),
tooltip='CAN bus TX',
key=GUI_TABKEY_CAN_TX))
can_rx_layout = gui_format_tab(REGMAP.REG_MAP_CAN_RX)
can_rx_layout.append([sg.Text('')])
can_rx_layout.append([
sg.Text('Receive log', size=(CONF_REG_MODBUS_DESC_WIDTH, 15)),
sg.MLine('',
size=(CONF_REG_VALUE_WIDTH, 15),
key=GUI_KEY_CAN_LOG + sg.WRITE_ONLY_KEY)
])
gui_layout_tabs.append(
sg.Tab('CAN bus RX',
can_rx_layout,
tooltip='CAN bus RX',
key=GUI_TABKEY_CAN_RX))
if rtc_supported:
gui_layout_tabs.append(
sg.Tab('RTC',
gui_format_tab(REGMAP.MAP_RTC),
tooltip='Real time clock',
key=GUI_TABKEY_RTC))
gui_layout_tabs.append(
sg.Tab('Advanced settings',
gui_format_tab(REGMAP.REG_MAP_ADVANCED),
tooltip='Advanced settings',
key=GUI_TABKEY_ADVANCED))
gui_layout_tabs.append(
sg.Tab('Expert settings',
gui_format_tab(REGMAP.REG_MAP_EXPERT_ZONE),
tooltip='Expert settings',
key=GUI_TABKEY_EXPERT))
gui_layout = [[
sg.TabGroup([gui_layout_tabs], tooltip='', key='_TABGROUP_')
]]
# Show the layout on screen
gui_window = sg.Window('AutoMATE Slave Control',
gui_layout,
size=(1170, 800),
location=get_window_location(1170, 900))
# Poll registers continuously for updates
while True:
event, values = gui_window.read(timeout=250)
if event in (sg.WIN_CLOSED, 'Quit'):
break
# Enable/disable register edit mode
if event.startswith('_KEY_EDIT_'):
index = event.split('_KEY_EDIT_')[1]
if str('_KEY_CONF_%s' % index) in gui_window.AllKeysDict:
gui_window[str('_KEY_CONF_%s' %
index)].update(disabled=(not values[event]))
if not values[event]:
gui_window[str('_KEY_WRITE_%s' %
index)].update(disabled=True)
else:
gui_window[str('_KEY_TEXT_%s' %
index)].update(disabled=(not values[event]))
gui_window[str('_KEY_WRITE_%s' %
index)].update(disabled=(not values[event]))
# Open register configuration popup window
elif event.startswith('_KEY_CONF_'):
index = int(event.split('_KEY_CONF_')[1])
register_value = 0
# Enable write button
gui_window[str('_KEY_WRITE_%s' % index)].update(disabled=False)
# Write local IO1-IO4 GPIO configuration registers
if REG.RW_GPIO1_CONF1 <= index <= REG.RW_GPIO4_CONF1:
response = gui_config_popup([
GPIO_MODE, GPIO_PULL, GPIO_THR, GPIO_HYST, GPIO_POL,
GPIO_FILT
])
if response:
register_value |= (response[0] << 13)
register_value |= (response[1] << 11)
register_value |= (response[2] << 4)
register_value |= (response[3] << 0)
register_value |= (response[4] << 10)
register_value |= (response[5] << 8)
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write local IO1-IO4 function configuration registers
elif REG.RW_GPIO1_CONF2 <= index <= REG.RW_GPIO4_CONF2:
response = gui_config_popup([GPIO_FUNC])
if response:
register_value = response[0]
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write LED configuration register
elif index == REG.RW_LED_CONF:
response = gui_config_popup([LED_MODE])
if response:
register_value |= (response[0] << 0)
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write local UART configuration registers
elif index == REG.RW_UART_RS485_CONF1 or \
index == REG.RW_UART_MIKRO2_CONF1:
response = gui_config_popup(
[UART_MODE, UART_STOPBITS, UART_PARITY])
if response:
register_value |= (response[0] << 8)
register_value |= (response[1] << 6)
register_value |= (response[2] << 4)
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write I2C configuration register
elif index == REG.RW_I2C_CONF:
response = gui_config_popup([I2C_ADDR_CNT, I2C_START_ADDR])
if response:
register_value |= (response[0] << 8)
register_value |= (response[1] << 0)
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write emulator configuration register
elif index == REG.RW_EMU_CONF:
response = gui_config_popup([EMU_RTC, EMU_IOEXP])
if response:
register_value |= (response[0] << 1)
register_value |= (response[1] << 0)
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write LED EEPROM register
elif index == REG.W_LED_SAVE:
response = gui_config_popup([SAVE_LED_CONF])
if response:
register_value = response[0]
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write UART EEPROM register
elif index == REG.W_UART_SAVE:
response = gui_config_popup([SAVE_UART_CONF])
if response:
register_value = response[0]
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write GPIO EEPROM register
elif index == REG.W_GPIO_SAVE:
response = gui_config_popup([SAVE_IO_CONF])
if response:
register_value = response[0]
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write bootloader register
elif index == REG.W_BOOTLOADER:
response = gui_config_popup([BOOTLOADER_RESET])
if response:
register_value = response[0]
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write UART and USB switch state
elif index == REG.RW_SWITCH_CONF:
response = gui_config_popup([SWITCH_UART])
if response:
register_value = response[0]
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write CAN config register
elif index == REG.RW_CAN_CONF1:
response = gui_config_popup([CAN_MODE])
if response:
register_value |= (response[0] << 8)
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
# Write CAN baudrate
elif index == REG.RW_CAN_CONF2:
response = gui_config_popup([CAN_BAUDRATE])
if response:
register_value = response[0]
gui_window[str('_KEY_TEXT_%i' %
index)].update(value=format_response(
index, register_value, values, False))
elif event.startswith(GUI_KEY_MODBUS_TXBUT):
gui_window[GUI_KEY_MODBUS_RESP].update(value='pending...')
tx_values = values[GUI_KEY_MODBUS_REG_VAL]
if ',' in tx_values:
tx_values = tx_values.split(',')
else:
tx_values = [tx_values]
tx_values = [Convert.str_to_int(tx_val) for tx_val in tx_values]
modbus_message = Modbus.build_rtu_frame(
function_code=Convert.str_to_int(values[GUI_KEY_MODBUS_CODE]),
slave_address=Convert.str_to_int(values[GUI_KEY_MODBUS_SLAVE]),
register_address=Convert.str_to_int(
values[GUI_KEY_MODBUS_REG]),
register_count=Convert.str_to_int(
values[GUI_KEY_MODBUS_REG_LEN]),
values=tx_values)
print(modbus_message)
dev_con.set_registers(modbus_message[0],
modbus_message[1],
format_bytes=True)
modbus_request = True
elif event.startswith(GUI_KEY_DMX512_TXBUT):
tx_values = values[GUI_KEY_DMX512_TXVAL]
if ',' in tx_values:
tx_values = tx_values.split(',')
else:
tx_values = [tx_values]
tx_values = [Convert.str_to_int(tx_val) for tx_val in tx_values]
[response_len, dmx512_message] = Dmx512.build_dmx512_frame(
slot=Convert.str_to_int(values[GUI_KEY_DMX512_SLOT]),
values=tx_values)
print(dmx512_message)
print(modbus_rx_len)
dev_con.set_registers(dmx512_message[0],
dmx512_message[1],
format_bytes=True)
# Write modified register to device
elif event.startswith('_KEY_WRITE_'):
index = event.split('_KEY_WRITE_')[1]
# Send to hardware device
try:
dev_con.set_register(
int(index),
Convert.str_to_int(values[str('_KEY_TEXT_%s' %
index)].strip()))
except ValueError:
sg.Popup('Oops!',
'Only numbers are accepted!',
location=(SCREEN_POS_X, SCREEN_POS_Y))
# I2C slave needs some time to re-initialize
if int(index) == REG.RW_I2C_CONF:
time.sleep(1)
new_addr = Convert.str_to_int(values[str(
'_KEY_TEXT_%s' % index)]) & 0x000F
dev_con.address = I2C_START_ADDR.to_address_value(
I2C_START_ADDR(new_addr).name)
# Disable edit mode again after transmit
gui_window[str('_KEY_EDIT_%s' % index)].update(value=False)
gui_window[str('_KEY_TEXT_%s' % index)].update(disabled=True)
gui_window[str('_KEY_WRITE_%s' % index)].update(disabled=True)
if str('_KEY_CONF_%s' % index) in gui_window.AllKeysDict:
gui_window[str('_KEY_CONF_%s' % index)].update(disabled=True)
if values['_TABGROUP_'] == GUI_TABKEY_IO1 or \
values['_TABGROUP_'] == GUI_TABKEY_IO2 or \
values['_TABGROUP_'] == GUI_TABKEY_IO3:
gui_update_tab(REG.R_GPIO1_ADC_VAL, REG.R_GPIO4_ADC_VAL)
gui_update_tab(REG.RW_GPIO1_DAC_VAL, REG.RW_GPIO4_DAC_VAL)
gui_update_tab(REG.RW_GPIO1_DIG_VAL1, REG.RW_GPIO4_DIG_VAL1)
gui_update_tab(REG.RW_GPIO1_DIG_VAL2, REG.RW_GPIO4_DIG_VAL2)
gui_update_tab(REG.RW_GPIO1_DIG_VAL3, REG.RW_GPIO4_DIG_VAL3)
gui_update_tab(REG.RW_GPIO1_CONF1, REG.RW_GPIO4_CONF2)
elif values['_TABGROUP_'] == GUI_TABKEY_IO_EXP:
gui_update_tab(REG.RW_GPAB_IODIR, REG.RW_GPAB_GPPD)
gui_update_tab(REG.RW_GPAB_DIG_VAL1, REG.RW_GPAB_DIG_VAL1)
elif values['_TABGROUP_'] == GUI_TABKEY_RTC:
gui_update_tab(REG.RW_RTC_SEC_VAL, REG.RW_RTC_WDAY_VAL)
elif values['_TABGROUP_'] == GUI_TABKEY_CAN_CONF:
gui_update_tab(REG.RW_CAN_CONF1, REG.RW_CAN_FILT2_LOW)
elif values['_TABGROUP_'] == GUI_TABKEY_CAN_RX:
gui_update_canrx()
elif values['_TABGROUP_'] == GUI_TABKEY_CAN_TX:
gui_update_tab(REG.R_CAN_TX_STATUS, REG.R_CAN_TX_ERRCNT)
elif values['_TABGROUP_'] == GUI_TABKEY_GEN_INFO:
gui_update_tab(REG.R_SW_INFO, REG.R_SWITCH_VAL)
gui_update_tab(REG.R_GPIO_M1_AN_ADC_VAL, REG.R_GPIO_M2_AN_ADC_VAL)
gui_update_tab(REG.RW_LED_CONF, REG.RW_LED_CONF)
gui_update_tab(REG.R_GEN_ERROR1, REG.R_GEN_ERROR2)
elif values['_TABGROUP_'] == GUI_TABKEY_NETWORK:
gui_update_tab(REG.RW_NET_CONF_IP1, REG.RW_NET_CONF_DHCP)
elif values['_TABGROUP_'] == GUI_TABKEY_UART:
gui_update_tab(REG.RW_UART_RS485_CONF1, REG.RW_UART_MIKRO2_CONF2)
gui_update_tab_modbus_dmx512()
elif values['_TABGROUP_'] == GUI_TABKEY_ADVANCED:
gui_update_tab(REG.RW_EMU_CONF, REG.RW_SWITCH_CONF)
gui_update_tab(REG.R_GPIO1_CUR, REG.R_GPIO4_CUR)
elif values['_TABGROUP_'] == GUI_TABKEY_EXPERT:
gui_update_tab(REG.R_DEBUG1, REG.RW_ESP32_DELAY)
dev_con.disconnect()
gui_window.close()
import screeninfo print() print(screeninfo.get_monitors()) # from screeninfo import get_monitors # print(get_monitors()) # for data in get_monitors(): # print(data)
def handle_input(self, keyset):
""" Handle pygame input events
"""
poll = pygame.event.poll
event = poll()
while event:
if event.type == QUIT:
self.running = False
pygame.quit()
break
elif event.type == KEYDOWN:
if keyset == "game":
if event.key == K_EQUALS:
self.map_layer.zoom += .25
elif event.key == K_MINUS:
value = self.map_layer.zoom - .25
if value > 0:
self.map_layer.zoom = value
else:
self.map_layer.zoom = 0.1
elif event.key == K_KP0:
try:
if self.switcher() == True:
self.generate_surrounding_maps()
except FileNotFoundError:
print("Exception Caught")
pass
elif event.key == K_e:
self.menu = "inventory"
pass
if event.key == K_ESCAPE:
for i in attack_stats_types:
stats[i] = attack_stats[i]
pickle.dump(stats, open(os.path.join("data", "saves", "save.dat"), "wb"))
pickle.dump(inventory, open(os.path.join("data", "saves", "inventory.dat"), "wb"))
self.running = False
pygame.quit()
print(" ")
sleep(0.5)
print("Shutdown... Complete")
sys.exit()
break
if keyset != "game":
if event.key == K_ESCAPE:
self.menu = "game"
pass
if keyset == "inventory":
if event.key == K_r:
self.genchests()
if keyset == "chest":
if event.key == K_r:
chestContents[self.chestNo] = self.genchests()
if event.key == K_t:
if taken[self.chestNo] != True:
self.takeChest()
taken[self.chestNo] = True
pickle.dump(taken, open(os.path.join("data", "saves", "taken.dat"), "wb"))
if keyset == "attack":
pass
#Basically just debug keys
if event.key == K_KP1:
self.menu = "game"
pass
elif event.key == K_KP2:
self.map_change(FOREST)
self.map = "forest"
elif event.key == K_KP3:
self.generate_new_map(4, 16, 3)
pass
elif event.key == K_KP4:
self.map_generate(str(self.grid[0]) +", "+ str(self.grid[1]) +".tmx", 4, 16.0, self.grid[0], self.grid[1])
pass
elif event.key == K_KP5:
self.enemy_stats = self.gen_enemy(attack_stats, enemy_stats)
self.menu = "attack"
pass
elif event.key == K_KP6:
print("X :" +str(int(self.hero.position[0])) +
", Y: " +str(int(self.hero.position[1])) +
", Map: "+ self.map)
pass
elif event.key == K_KP7:
print(str(pygame.mouse.get_pos()))
pass
elif event.key == K_KP8:
sleep(0.5)
elif event.key == K_KP9:
editor = db_interface.Editor()
conn = sqlite3.connect('data/saves/data.db')
c = conn.cursor()
for var in vars:
exec("del "+var+"[:]")
for data in c.execute("SELECT {} FROM csv".format(var)):
data = str(data[0])
exec("{}.append(\"{}\")".format(var, data))
pass
elif event.key == K_F11:
for m in screeninfo.get_monitors():
displ = str(m)
w, h, mx, c = displ.split(", ")
if self.fullscreen:
self.fullscreen = False
screen = init_screen(1024, 700, pygame.HWSURFACE | pygame.FULLSCREEN )
else:
self.fullscreen = True
screen = init_screen(w, h, pygame.HWSURFACE | pygame.RESIZABLE )
pygame.display.toggle_fullscreen()
elif event.type == VIDEORESIZE:
self.map_layer.set_size((event.w, event.h))
dispHeight = event.h
dispWidth = event.w
event = poll()
# using get_pressed is slightly less accurate than testing for events
# but is much easier to use.
if keyset == "game":
pressed = pygame.key.get_pressed()
if pressed[K_UP]:
self.hero.velocity[1] = -HERO_MOVE_SPEED
self.direction = "up"
self.direction2 = "up"
elif pressed[K_DOWN]:
self.hero.velocity[1] = HERO_MOVE_SPEED
self.direction = "down"
self.direction2 = "down"
elif pressed[K_w]:
self.hero.velocity[1] = -HERO_SPRINT_SPEED
self.direction = "up"
self.direction2 = "up"
elif pressed[K_s]:
self.hero.velocity[1] = HERO_SPRINT_SPEED
self.direction = "down"
self.direction2 = "down"
else:
self.hero.velocity[1] = 0
self.direction2 = "still"
if pressed[K_LEFT]:
self.hero.velocity[0] = -HERO_MOVE_SPEED
self.direction = "left"
self.direction1 = "left"
elif pressed[K_RIGHT]:
self.hero.velocity[0] = HERO_MOVE_SPEED
self.direction = "right"
self.direction1 = "right"
elif pressed[K_a]:
self.hero.velocity[0] = -HERO_SPRINT_SPEED
self.direction = "left"
self.direction1 = "left"
elif pressed[K_d]:
self.hero.velocity[0] = HERO_SPRINT_SPEED
self.direction = "right"
self.direction1 = "right"
else:
self.hero.velocity[0] = 0
self.direction1 = "still"
if self.direction1 == "still" and self.direction2 == "still":
self.direction = "still"
def __init__(self):
self.monitors = get_monitors()
def main():
while(True):
namedWindow('map', WND_PROP_FULLSCREEN)
setWindowProperty('map', WND_PROP_FULLSCREEN, WINDOW_FULLSCREEN)
monitor = get_monitors()[0]
map_rect = Rectangle(0, 0, monitor.width, monitor.height)
#map_rect = Rectangle(0, 0, 800, 800)
options = zeros((map_rect.height, map_rect.width, 2), dtype=uint32)
row = arange(0, options.shape[1])
col = arange(0, options.shape[0])
options[:, :, 0] = row
for c in row:
options[:, c, 1] = col
options = options.reshape((options.shape[0] * options.shape[1], 2))
#start = (100, 100)
#end = (750, 750)
start = random_point(map_rect)
end = random_point(map_rect)
max_segment = 20
map = zeros((map_rect.height, map_rect.width, 3), dtype=uint8)
circle(map, start, 5, (10, 255, 10), 3)
circle(map, end, 5, (100, 100, 255), 3)
root = Node(None, start, 0)
node_hash = {start:root}
num_obstacles = 12
obstacles = []
obstacle_hash = zeros(map.shape[:2], dtype=uint8)
for i in range(num_obstacles):
while True:
top_left = random_point(map_rect)
bottom_right = random_point(Rectangle.create_from_points(top_left, map_rect.bottom_right))
obstacle = Rectangle.create_from_points(top_left, bottom_right)
if not rect_has_intersection(obstacle_hash, obstacle) and not obstacle.contains_point(start, 20) and not obstacle.contains_point(end, 20):
obstacles.append(obstacle)
break
rectangle(obstacle_hash, obstacle.top_left, obstacle.bottom_right, 255, 20)
rectangle(obstacle_hash, obstacle.top_left, obstacle.bottom_right, 255, FILLED)
rectangle(map, obstacle.top_left, obstacle.bottom_right, [255, 100, 0], 2)
just_obstacles = map.copy()
gauss = gaussian(size=map_rect.area / 10000)
g_offset = gauss.shape[0] / 2 + max_segment
unsearched_area = ones((map.shape[0] + 2 * g_offset, map.shape[1] + 2 * g_offset), dtype=float64)
unsearched_area[g_offset:g_offset + map.shape[0], g_offset:g_offset + map.shape[1]] -= obstacle_hash / 255
# imshow('obstacles', obstacle_hash)
tree = kdtree.create([start])
video_filename = "videos/vid%s.avi" % datetime.datetime.now().strftime("%Y_%m_%d_%H-%M-%S")
video = VideoWriter(video_filename, VideoWriter_fourcc(*'IYUV'), 60, (map.shape[1], map.shape[0]))
for i in range(3000):
print("\r%4d" % i, end="")
x, y = random_point(map_rect)
#unsearched_probabilities = unsearched_area[g_offset:g_offset + map.shape[0], g_offset:g_offset + map.shape[1]]
#x, y = random_point_with_probability(unsearched_probabilities, options)
# circle(map, (x, y), 4, [255, 0, 255], 1)
nn, dist = tree.search_nn((x, y))
dist = math.sqrt(dist)
xnn, ynn = nn.data
if dist > max_segment:
angle = math.atan2((xnn - x), (y - ynn)) + pi / 2.0
# print(angle * 180 / math.pi)
x = int(max_segment * cos(angle) + xnn)
y = int(max_segment * sin(angle) + ynn)
new_point = (x, y)
#nn_point = (xnn, ynn)
neighbors = tree.search_knn(new_point, 50)
cumulative_costs = []
for neighbor, distance in neighbors:
#print("1: %s, 2: %s"%(new_point, neighbor.data))
#square_dist = ((asarray(new_point) - asarray(neighbor.data)) ** 2).sum()
#man_dist = math.sqrt(((asarray(new_point) - asarray(neighbor.data)) ** 2).sum())
#print("d1: %d, d2: %d, d3: %d" % (distance, square_dist, man_dist))
distance = math.sqrt(distance)
distance = distance if distance < max_segment * 3 else 10000
cumulative_costs.append(node_hash[neighbor.data].cumulative_cost + distance)
best_neighbor_index = argmin(cumulative_costs)
best_neighbor = node_hash[neighbors[best_neighbor_index][0].data]
best_cumulative_cost = cumulative_costs[best_neighbor_index]
neighbors.remove(neighbors[best_neighbor_index])
if not line_has_intersection(obstacle_hash, best_neighbor.location, new_point):
tree.add(new_point)
#line(map, nn_point, new_point, [100, 0, 255], 2)
#parent = node_hash[nn_point]
new_node = best_neighbor.addChild(new_point, best_cumulative_cost)
node_hash[new_point] = new_node
for neighbor, distance in neighbors:
neighbor_node = node_hash[neighbor.data]
distance = math.sqrt(distance)
if distance < max_segment * 3 and (new_node.cumulative_cost + distance) < neighbor_node.cumulative_cost:
if not line_has_intersection(obstacle_hash, neighbor_node.location, new_node.location):
rewire(new_node, neighbor_node, distance)
#print("rewired")
distance_to_end = math.sqrt(square(asarray(end) - asarray(new_point)).sum())
"""
if distance_to_end < 50:
#end_node = Node(node_hash[new_point], end)
end_node = node_hash[new_point].addChild(end, node_hash[new_point].cumulative_cost + distance_to_end)
break
"""
#rect = Rectangle(new_point[0] - gauss.shape[1] / 2, new_point[1] - gauss.shape[0] / 2, gauss.shape[1], gauss.shape[0])
#unsearched_area[rect.y + g_offset:rect.bottom_right[1] + g_offset, rect.x + g_offset:rect.bottom_right[0] + g_offset] -= gauss
#unsearched_area = unsearched_area.clip(min=0)
#imshow('unsearched', 1-unsearched_area)# /unsearched_area.max())
if i % 1 == 0:
map = draw_all_lines(just_obstacles.copy(), root)
putText(map, "Iteration: %d" % i, (20, 20), FONT_HERSHEY_SIMPLEX, .7, (50, 255, 50))
imshow('map', map)
video.write(map)
waitKey(1)
# tree.rebalance()
if i % 100 == 0:
tree.rebalance()
map = draw_all_lines(just_obstacles.copy(), root)
neighbors = tree.search_knn(end, 30)
closest_node = None
best_cost = inf
for neighbor, dist in neighbors:
dist = math.sqrt(dist)
node = node_hash[neighbor.data]
if node.cumulative_cost + dist < best_cost:
closest_node = node
best_cost = node.cumulative_cost + dist
current_node = closest_node.addChild(end, 0)
while not current_node.parent is None:
line(map, current_node.location, current_node.parent.location, (255, 255, 0), 2)
current_node = current_node.parent
imshow('map', map)
video.write(map)
waitKey(50)
#imshow('map', map)
#waitKey(0)
video.write(map)
video.release()
time.sleep(2)
def __init__(self, parent=None):
super(TraySetting, self).__init__(parent)
self.setupUi(self)
# 初始化数据
self.__db_helper = DBHelper(self)
self.__config_helper = ConfigHelper(self)
self.__sql_where = self.__config_helper.get_config_key(
self.__config_section_background, "sqlWhere")
self.textEdit_sqlWhere.setText(self.__sql_where)
self.__time_interval = int(
self.__config_helper.get_config_key(
self.__config_section_background, "timeIntervalInMin"))
self.lineEdit_min.setText(str(self.__time_interval))
self.__current_image = None
self.pushButton_save.pressed.connect(self.__save)
self.pushButton_cancel.pressed.connect(self.hide)
# 系统托盘
self.__tray = QtWidgets.QSystemTrayIcon()
self.__tray.setIcon(QtGui.QIcon("images/tranIcon.png"))
self.__tray.setToolTip("壁纸切换")
self.__tray.activated[QSystemTrayIcon.ActivationReason].connect(
self.__on_tray_click)
menu = QtWidgets.QMenu()
# 创建显示器对应壁纸项
self._monitors = get_monitors()
self.__levels = self.__db_helper.get_model_data_list('level')
self.create_monitor_menu(menu)
# 壁纸切换方式
self.__change_type_actions = list()
self.create_change_type_menu(menu)
switch_next = QtWidgets.QAction("切换下一张", self)
switch_next.triggered.connect(self.__change_background)
menu.addAction(switch_next)
# 加载默认参数
type_value = self.__config_helper.get_config_key(
self.__config_section_background, self.__config_key_change_type,
ChangeType.Order.value)
self.__change_type = ChangeType(int(type_value))
self.__update_change_type_action(self.__change_type)
offset = self.__config_helper.get_config_key(
self.__config_section_background,
self.__config_key_last_order_image_offset, 0)
self.__last_order_image_offset = int(offset)
menu.addSeparator()
setting = QtWidgets.QAction("设置", self)
setting.triggered.connect(self.show)
menu.addAction(setting)
close = QtWidgets.QAction("退出", self)
close.triggered.connect(self.close)
menu.addAction(close)
self.__tray.setContextMenu(menu)
self.__tray.show()
threading.Thread(target=self.__change_windows_background_timely,
daemon=True).start()
def monitor():
for m in get_monitors():
return str(m)
import cv2
import numpy as np
import serial
import time
from typing import Dict
import mss
from PIL import Image
from screeninfo import get_monitors
print(f"Welcome to AnimeColor!")
curr_monitor = get_monitors()[0]
# Settings
s_width = curr_monitor.width
s_height = curr_monitor.height
print(f"Detected monitor size {s_width}x{s_height}")
scalingFactor = 0.1
print(f"Using scaling factor {scalingFactor}")
show = False
interval = 100 # milliseconds
print(f"Color check interval {interval}")
# begin
for serial_port_n in range(3, 20):
serial_port = f"COM{serial_port_n}"
# print(f"Trying to connect to Arduino on port {serial_port}")
try:
arduino = serial.Serial(serial_port, 9600, timeout=0)
print(f"Connected to Arduino on port {serial_port}")
break
def flow(self):
screen_id = 1
is_color = False
# get the size of the screen
screen = screeninfo.get_monitors()[screen_id]
width, height = screen.width, screen.height
window_name = 'MonkeyView'
cv2.namedWindow(window_name, cv2.WND_PROP_FULLSCREEN)
cv2.moveWindow(window_name, screen.x - 1, screen.y - 1)
cv2.setWindowProperty(window_name, cv2.WND_PROP_FULLSCREEN,
cv2.WINDOW_FULLSCREEN)
# 创建延迟队列
q = queue.Queue(maxsize=int(self.delay / 20)) # 队列长度等于延迟除以每一帧的计算时间
self.monkeySkin = cv2.imread(
"D:\\Intern\\cvImgPy\\pics\\nbk.png") # 猴子毛发提取
# self.monkeySkin = cv2.medianBlur(self.monkeySkin, 21) # 去噪 消除边缘
self.woodPic = cv2.imread(
"D:\\Intern\\cvImgPy\\pics\\wood.png") # 木头图片
self.cap = cv2.VideoCapture(0) # 从摄像头读取
# self.cap = cv2.VideoCapture('D:\\Intern\\cvImgPy\\pics\\real.MOV') # 选择摄像头，把视频读取删除
while self.cap.isOpened():
starttime = datetime.datetime.now() # 开始计算
ret, self.frame = self.cap.read()
if isinstance(
self.frame,
np.ndarray): # 因为从某一帧开始，读取的视频就不是ndarray格式的了，导致报错，所以加一个判断
# 剪切图像
self.frame = self.frame[0:293, 0:640]
self.frame = self.frame[:, ::-1] # 左右翻转镜像
# 中值去噪，真去噪
# self.frame = cv2.medianBlur(self.frame, 5)
# 刷新背景
self.canvas = np.zeros((height, width, 3), dtype=np.float32)
cv2.rectangle(self.canvas, (self.leftMg, self.upMg),
(self.leftMg + self.bkW, self.upMg + self.bkH),
(1, 1, 1), -1)
# 判断角度有无改变
if self.changed == 1:
self.radian = 2 * math.pi * self.theta / 360
self.sin = math.sin(self.radian)
self.cos = math.cos(self.radian)
self.tan = math.tan(self.radian)
self.changed = 0
# 尺寸变换
self.frame = cv2.resize(
self.frame,
(int(self.bkW * self.scal_x), int(self.bkH * self.scal_y)),
interpolation=cv2.INTER_LINEAR)
# 清晰度变换,均值去噪
self.frame = cv2.blur(self.frame, (self.dim, self.dim))
# 开始修补
self.center = [0.5 * self.frame.shape[1],
self.frame.shape[0]] # 先x后y, mask坐标系
# 制作掩膜
self.makeMask(self.fColor)
# 如果没有手，也空白
# 开始按照手和木头进行分类
# 显示空白
if self.wood == 2 or len(
np.where(self.mask[270] != 0)[0]) < 20:
if self.showRed == 1:
cv2.circle(
self.canvas,
(self.leftMg + self.redX, self.upMg + self.redY),
10, (0, 0, 255), -1)
if self.showBlue == 1:
cv2.circle(
self.canvas,
(self.leftMg + self.blueX, self.upMg + self.blueY),
15, (255, 0, 0), -1)
if self.wood == 3:
cv2.rectangle(
self.canvas, (self.leftMg, self.upMg),
(self.leftMg + self.bkW, self.upMg + self.bkH),
(0, 0, 0), -1)
# 显示手
elif self.wood == 0:
# start = int(np.where(self.mask[self.mask.shape[0] - 1] != 0)[0][0])
# end = int(np.where(self.mask[self.mask.shape[0] - 1] != 0)[0][-1])
#
# # 拟合直线
# self.linefit()
#
# self.monkeySkin = self.monkeySkin[0:self.frame.shape[0], 0:self.frame.shape[1]]
#
# # 分旋转方向，计算直线和交点
# if self.theta > 0:
# # 根据手的左中右位置，修补区域不同
# if start > 0.5 * self.bkW:
# # 没有加斜率不存在的判断，考虑到拟合时有20个点
# # 求交点
# if self.left[0] == self.left[0]: # 判断前面算的斜率是不是NaN
# left_point = self.intersection(self.left)
# else:
# left_point = [start, self.center[1] + int(start * self.tan)]
#
# if self.right[0] == self.right[0]:
# right_point = self.intersection(self.right)
# else:
# right_point = [end, self.center[1] + int(end * self.tan)]
#
# # 求交点旋转后的位置
# lp_rot = self.point_rot(left_point)
# rp_rot = self.point_rot(right_point)
# # 会出问题
# # if rp_rot[0] < 0:
# # print(right_x)
# # print(right)
#
# # 绘制四边形
# start_point = [self.center[0] + int((start - self.center[0]) * self.cos), self.center[1] - int((start - self.center[0]) * self.sin)] # 先x后y
# end_point = [self.center[0] + int((end - self.center[0]) * self.cos), self.center[1] - int((end - self.center[0]) * self.sin)]
#
# # 错误情况处理
# if 'previous_1' in locals().keys():
# if rp_rot[0] < 0 or abs(rp_rot[0] - self.previous_1[0]) > 80: # 根据猴子手的速度不同进行调节，这地方要有调参的
# rp_rot = self.previous_1
# else:
# self.previous_1 = rp_rot
# else:
# self.previous_1 = rp_rot
#
# box = np.array([[start_point, lp_rot, rp_rot, end_point]], dtype = np.int32)
#
# self.makeUpMky(box)
#
#
# elif start <= 0.5 * self.bkW and end >= 0.5 * self.bkW:
#
# if self.right[0] == self.right[0]:
# right_point = self.intersection(self.right)
# else:
# right_point = [end, self.center[1] + int(end * self.tan)]
#
# rp_rot = self.point_rot(right_point)
#
# start_point = self.center
# end_point = [self.center[0] + int((end - self.center[0]) * self.cos), self.center[1] - int((end - self.center[0]) * self.sin)]
#
# # 错误情况处理，暂时没什么要处理的，先留着
# if 'previous_2' in locals().keys():
# if rp_rot[0] < 0:
# rp_rot = self.previous_2
# else:
# self.previous_2 = rp_rot
# else:
# self.previous_2 = rp_rot
#
# box = np.array([[start_point, rp_rot, end_point]], dtype=np.int32)
# # 画三角形
# self.makeUpMky(box)
#
# if self.theta < 0:
# if end < 0.5 * self.bkW:
#
# if self.left[0] == self.left[0]: # 判断前面算的斜率是不是NaN
# left_point = self.intersection(self.left)
# else:
# left_point = [start, self.center[1] + int(start * self.tan)]
#
# if self.right[0] == self.right[0]:
# right_point = self.intersection(self.right)
# else:
# right_point = [end, self.center[1] + int(end * self.tan)]
#
# lp_rot = self.point_rot(left_point)
# rp_rot = self.point_rot(right_point)
#
# start_point = [self.center[0] + int((start - self.center[0]) * self.cos), self.center[1] - int((start - self.center[0]) * self.sin)] # 先x后y
# end_point = [self.center[0] + int((end - self.center[0]) * self.cos), self.center[1] - int((end - self.center[0]) * self.sin)]
#
# # 错误情况处理
# if 'previous_3' in locals().keys():
# if rp_rot[0] < 0 or abs(rp_rot[0] - self.previous_3[0]) > 80: # 根据猴子手的速度不同进行调节，这地方要有调参的
# rp_rot = self.previous_3
# else:
# self.previous_3 = rp_rot
# else:
# self.previous_3 = rp_rot
#
# box = np.array([[start_point, lp_rot, rp_rot, end_point]], dtype=np.int32)
# self.makeUpMky(box)
#
# elif start < 0.5 * self.bkW and end > 0.5 * self.bkW:
# if self.left[0] == self.left[0]: # 判断前面算的斜率是不是NaN
# left_point = self.intersection(self.left)
# else:
# left_point = [start, self.center[1] + int(start * self.tan)]
#
# lp_rot = self.point_rot(left_point)
#
# start_point = self.center
# end_point = [self.center[0] + int((start - self.center[0]) * self.cos), self.center[1] - int((start - self.center[0]) * self.sin)]
#
# # 错误情况处理，暂时没什么要处理的，先留着
# if 'previous_4' in locals().keys():
# if lp_rot[0] < 0:
# lp_rot = self.previous_4
# else:
# self.previous_4 = lp_rot
# else:
# self.previous_4 = lp_rot
#
# box = np.array([[start_point, lp_rot, end_point]], dtype=np.int32)
# # 画三角形
# self.makeUpMky(box)
# # 到此修补完毕
# 旋转变换
self.handRotate(self.theta)
self.copyTo()
if self.showRed == 1:
cv2.circle(
self.canvas,
(self.leftMg + self.redX, self.upMg + self.redY),
10, (0, 0, 255), -1)
if self.showBlue == 1:
cv2.circle(
self.canvas,
(self.leftMg + self.blueX, self.upMg + self.blueY),
15, (255, 0, 0), -1)
# 显示木头
elif self.wood == 1:
# start = int(np.where(self.mask[self.mask.shape[0] - 1] != 0)[0][0])
# end = int(np.where(self.mask[self.mask.shape[0] - 1] != 0)[0][-1])
#
# # 拟合直线
# self.linefit()
#
# self.woodPic = self.woodPic[0:self.frame.shape[0], 0:self.frame.shape[1]]
#
# # 分旋转方向，计算直线和交点
# if self.theta > 0:
# # 根据手的左中右位置，修补区域不同
# if start > 0.5 * self.bkW:
# # 没有加斜率不存在的判断，考虑到拟合时有20个点
# # 求交点
# if self.left[0] == self.left[0]: # 判断前面算的斜率是不是NaN
# left_point = self.intersection(self.left)
# else:
# left_point = [start, self.center[1] + int(start * self.tan)]
#
# if self.right[0] == self.right[0]:
# right_point = self.intersection(self.right)
# else:
# right_point = [end, self.center[1] + int(end * self.tan)]
#
# # 求交点旋转后的位置
# lp_rot = self.point_rot(left_point)
# rp_rot = self.point_rot(right_point)
# # 会出问题
# # if rp_rot[0] < 0:
# # print(right_x)
# # print(right)
#
# # 绘制四边形
# start_point = [self.center[0] + int((start - self.center[0]) * self.cos),
# self.center[1] - int((start - self.center[0]) * self.sin)] # 先x后y
# end_point = [self.center[0] + int((end - self.center[0]) * self.cos),
# self.center[1] - int((end - self.center[0]) * self.sin)]
#
# # 错误情况处理
# if 'previous_1' in locals().keys():
# if rp_rot[0] < 0 or abs(rp_rot[0] - self.previous_1[0]) > 80: # 根据猴子手的速度不同进行调节，这地方要有调参的
# rp_rot = self.previous_1
# else:
# self.previous_1 = rp_rot
# else:
# self.previous_1 = rp_rot
#
# box = np.array([[start_point, lp_rot, rp_rot, end_point]], dtype=np.int32)
#
# self.makeUpMky(box)
#
#
# elif start <= 0.5 * self.bkW and end >= 0.5 * self.bkW:
#
# if self.right[0] == self.right[0]:
# right_point = self.intersection(self.right)
# else:
# right_point = [end, self.center[1] + int(end * self.tan)]
#
# rp_rot = self.point_rot(right_point)
#
# start_point = self.center
# end_point = [self.center[0] + int((end - self.center[0]) * self.cos),
# self.center[1] - int((end - self.center[0]) * self.sin)]
#
# # 错误情况处理，暂时没什么要处理的，先留着
# if 'previous_2' in locals().keys():
# if rp_rot[0] < 0:
# rp_rot = self.previous_2
# else:
# self.previous_2 = rp_rot
# else:
# self.previous_2 = rp_rot
#
# box = np.array([[start_point, rp_rot, end_point]], dtype=np.int32)
# # 画三角形
# self.makeUpMky(box)
#
# if self.theta < 0:
# if end < 0.5 * self.bkW:
#
# if self.left[0] == self.left[0]: # 判断前面算的斜率是不是NaN
# left_point = self.intersection(self.left)
# else:
# left_point = [start, self.center[1] + int(start * self.tan)]
#
# if self.right[0] == self.right[0]:
# right_point = self.intersection(self.right)
# else:
# right_point = [end, self.center[1] + int(end * self.tan)]
#
# lp_rot = self.point_rot(left_point)
# rp_rot = self.point_rot(right_point)
#
# start_point = [self.center[0] + int((start - self.center[0]) * self.cos),
# self.center[1] - int((start - self.center[0]) * self.sin)] # 先x后y
# end_point = [self.center[0] + int((end - self.center[0]) * self.cos),
# self.center[1] - int((end - self.center[0]) * self.sin)]
#
# # 错误情况处理
# if 'previous_3' in locals().keys():
# if rp_rot[0] < 0 or abs(rp_rot[0] - self.previous_3[0]) > 80: # 根据猴子手的速度不同进行调节，这地方要有调参的
# rp_rot = self.previous_3
# else:
# self.previous_3 = rp_rot
# else:
# self.previous_3 = rp_rot
#
# box = np.array([[start_point, lp_rot, rp_rot, end_point]], dtype=np.int32)
# self.makeUpMky(box)
#
# elif start < 0.5 * self.bkW and end > 0.5 * self.bkW:
# if self.left[0] == self.left[0]: # 判断前面算的斜率是不是NaN
# left_point = self.intersection(self.left)
# else:
# left_point = [start, self.center[1] + int(start * self.tan)]
#
# lp_rot = self.point_rot(left_point)
#
# start_point = self.center
# end_point = [self.center[0] + int((start - self.center[0]) * self.cos),
# self.center[1] - int((start - self.center[0]) * self.sin)]
#
# # 错误情况处理，暂时没什么要处理的，先留着
# if 'previous_4' in locals().keys():
# if lp_rot[0] < 0:
# lp_rot = self.previous_4
# else:
# self.previous_4 = lp_rot
# else:
# self.previous_4 = lp_rot
#
# box = np.array([[start_point, lp_rot, end_point]], dtype=np.int32)
# # 画三角形
# self.makeUpMky(box)
# # 到此修补完毕
# 旋转变换
self.handRotate(self.theta)
self.copyTo()
if self.showRed == 1:
cv2.circle(
self.canvas,
(self.leftMg + self.redX, self.upMg + self.redY),
10, (0, 0, 255), -1)
if self.showBlue == 1:
cv2.circle(self.canvas, (self.blueX, self.blueY), 15,
(255, 0, 0), -1)
# 延迟,队列真美妙
if self.delay != 0:
if q.full():
cv2.imshow(window_name, q.get())
q.put(self.canvas)
else:
q.put(self.canvas)
else:
cv2.imshow(window_name, self.canvas)
# cv2.imshow(window_name, self.canvas)
# interval = datetime.datetime.now() - starttime
# print(interval)
else:
break
if cv2.waitKey(1) & 0xFF == ord('q'): # 按q键退出
break
self.cap.release()
cv2.destroyAllWindows()
conf_parser = ap.ArgumentParser(description='Delete all right frame files in folder based on which left frame files remain.')
conf_parser.add_argument("-f", "--folder", help="Folder to work in",
required=False, default= ["./"])
if __name__ == "__main__":
args = conf_parser.parse_args()
files = [f for f in os.listdir(args.folder) if osp.isfile(osp.join(args.folder,f)) and f.endswith(".png")]
files.sort()
rfiles = [f for f in files if "r_" in f]
lfiles = [f for f in files if "l_" in f]
rfiles.sort()
lfiles.sort()
monitors = scr.get_monitors()
main_monitor = monitors[0]
screen_height = main_monitor.height
header_height = 100
resized_height = 250
padding = 10
#assume frames of equal dimensions for right & left
sample_frame = cv2.imread(osp.join(args.folder,lfiles[0]))
resized_width = int(sample_frame.shape[1] * resized_height / sample_frame.shape[0])
new_size = (resized_width,resized_height)
step = int((screen_height - header_height - padding) / (resized_height+padding))
pane_width = 2*resized_width + (3*padding)
pane_height = screen_height - header_height
pane_dims = (pane_height,pane_width,3)
x_left = padding
map_table.add_row(['DOWNLOAD MORE'])
print(map_table)
select = str(input(' Select map: '))
if select == 'DOWNLOAD MORE':
map = download()
else:
map = select
pixel_width = pixel_width(config, map)
restore_session = False
else:
sys.exit(0)
else:
map = download()
pixel_width = pixel_width(config, map)
restore_session = False
for m in get_monitors(): # resets Windows DPI scaling
print('', end='')
root = Tk()
root.tk.call('tk', 'scaling', 1.5)
app = Window(root,
'maps/' + map,
pixel_width,
restore_session,
subwindow=False)
root.attributes('-fullscreen', True)
root.wm_title("Lunar Heightmap Calculator")
root.mainloop()
import math from screeninfo import get_monitors # это можно настроить по желанию lines = 200 # Количество лучей (качество картинки) is_minimap = False # нужно ли рисовать миникарту max_unit = 30 # максимальное количество мобов # то что ниже трогать нельзя!!!!! FPS = 60 # фпс width = get_monitors()[0].width # получение разрешения экрана height = get_monitors()[0].height # size = 32, 32 # размер карты # half_size = size[0] // 2, size[1] // 2 # центр карты и начальнаяпозиция игрока rect_size2d = 60 # размер 2д прямоугольника на карте fow = 60 # область видимости line_step = fow / lines / 50 # угол между лучами line_to_px = width / lines # ширина линии в 3д # всякие нужные цвета white = (255, 255, 255) green = (0, 255, 0) red = (255, 0, 0) gray = (128, 128, 128) dk_gray = (16, 16, 16) black = (0, 0, 0)
def __init__(self, pluginPath, corePath, configFile):
self.pluginPath = pluginPath
self.corePath = corePath
self.workingDir = sys.path[0]
self.configFile = self.corePath + '\\' + configFile
self.PGconfigFile = self.workingDir + '\\' + 'PG_config.ini'
self.PGconfigFileCore = self.corePath + '\\' + 'PG_config.ini'
self.PG_expanded = False
self.current_y_pxpos_elem = 0
self.param_dict = {}
self.section_EC_stat = {}
self.KST = key_stroke_timer.key_stroke_timer(self.configFile)
self.MIN_SIZE_W = 20
self.black_list = ['collapse', 'create', 'hideSection', 'show', 'filterStrategy', 'offsetType']
self.GOC = guard.guard_of_changes(self) # init observer thread
self.GOC.start() # start observer thread
wx.Dialog.__init__(self, None, title='MW Parameter guard', size=UI.WMAIN['size'],
style=wx.SYSTEM_MENU | # wx.CAPTION | # ~wx.CLOSE_BOX |
wx.TAB_TRAVERSAL | wx.STAY_ON_TOP | wx.RESIZE_BORDER) # | wx.TRANSPARENT_WINDOW)
self.SetMinSize((1, 1))
PG_XY = ini_worker.get_param_from_ini(self.PGconfigFileCore, 'UISETTINGS', 'lastWindowPosition')
PG_XY = PG_XY.strip()[1:-1].split(',')
PG_SIZE = ini_worker.get_param_from_ini(self.PGconfigFileCore, 'UISETTINGS', 'lastWindowSize')
PG_SIZE = PG_SIZE.strip()[1:-1].split(',')
self.MAIN_DISPLAY_SIZE = get_monitors()
if len(self.MAIN_DISPLAY_SIZE) == 1:
self.DISPLAY_SIZE = self.MAIN_DISPLAY_SIZE[0]
else:
self.DISPLAY_SIZE = self.MAIN_DISPLAY_SIZE[1]
self.DISPLAY_SIZE = self.MAIN_DISPLAY_SIZE[0]
#self.MoveXY(int(PG_XY[0]), int(PG_XY[1]))
self.MoveXY(int(self.DISPLAY_SIZE.width)-10, 0)
#self.SetSizeWH(int(PG_SIZE[0]), int(PG_SIZE[1]))
self.SetSizeWH(int(PG_SIZE[0]), self.DISPLAY_SIZE.height)
self.Bind(wx.EVT_SIZE, self.OnSize, self)
# self.Bind(wx.EVT_ENTER_WINDOW, self.onMouseOver)
# self.Bind(wx.EVT_LEAVE_WINDOW, self.onMouseLeave)
# self.Bind(wx.EVT_LEFT_DOWN, self.onLMouseDown)
self.Bind(wx.EVT_MOUSE_EVENTS, self.onMouseEvents)
atable = wx.AcceleratorTable([(wx.ACCEL_NORMAL, wx.WXK_ESCAPE, wx.ID_EXIT)])
self.SetAcceleratorTable(atable)
wx.EVT_MENU(self, wx.ID_EXIT, self.OnExit)
self.SetBackgroundColour(wx.Colour(UI.WCOLOR['BG'][0],
UI.WCOLOR['BG'][1],
UI.WCOLOR['BG'][2]))
self.SetTransparent(220)
self.Show()
#fn = self.corePath + '\\bin\\images\\paramGuard.ico'
#self.icon = wx.Icon(fn, wx.BITMAP_TYPE_ICO)
#self.SetIcon(self.icon)
self.section_list = ini_worker.get_sections_list_from_ini(self.configFile) # list
param_indentation = 10 # whitespace
for section in self.section_list:
self.section_EC_stat.update(
{section: ini_worker.get_param_from_ini(self.configFile, section, 'collapse')})
section_params = ini_worker.get_section_from_ini(self.configFile, section)
for param, value in section_params.iteritems():
if param == 'hideSection':
hideSection = value
if not hideSection:
self.param_dict[section] = {}
font = wx.Font(9, wx.DEFAULT, wx.NORMAL, wx.BOLD)
headline = wx.StaticText(self,
label=section,
pos=(UI.THEADERSTART['pos'][0],
UI.THEADERSTART['pos'][1] + self.current_y_pxpos_elem))
headline.SetForegroundColour(UI.TCOLOR['FG']) # set text color
headline.SetFont(font)
headline.Bind(wx.EVT_ENTER_WINDOW, self.onMouseOver)
#headline.Bind(wx.EVT_LEAVE_WINDOW, self.onMouseLeave)
button = wx.Button(self,
name=section,
label="",
pos=(UI.BEXPAND['pos'][0], self.current_y_pxpos_elem + 11),
size=UI.BEXPAND['size'])
button.Bind(wx.EVT_BUTTON, self.expandCollapse)
button.SetBackgroundColour(UI.BCOLOR['BG']) # set color
button.SetToolTipString('Click to expand/collapse section')
button.Bind(wx.EVT_ENTER_WINDOW, self.onMouseOver)
#button.Bind(wx.EVT_LEAVE_WINDOW, self.onMouseLeave)
self.current_y_pxpos_elem += 20
# params in sections (edit boxes)
font = wx.Font(8, wx.DEFAULT, wx.NORMAL, wx.NORMAL)
ui_elem_handler_dict = {}
for param, value in section_params.iteritems():
if type(value) == str:
splitted_value = value.split(';')
if len(splitted_value) > 1:
if splitted_value[1].strip() == 'X':
self.black_list.append(param)
if param not in self.black_list:
text = wx.StaticText(self,
label=param,
pos=(UI.THEADERSTART['pos'][0] + param_indentation,
UI.THEADERSTART['pos'][1] + self.current_y_pxpos_elem))
text.SetForegroundColour(UI.PARAMCOLOR['FG']) # set text color
text.Bind(wx.EVT_ENTER_WINDOW, self.onMouseOver)
#text.Bind(wx.EVT_LEAVE_WINDOW, self.onMouseLeave)
editbox = (wx.TextCtrl(self,
name=section + ' - ' + param,
value=str(value),
pos=(UI.EBOX['pos'][0], UI.THEADERSTART['pos'][1] + self.current_y_pxpos_elem),
size=UI.EBOX['size'],
style=wx.TE_PROCESS_ENTER))
editbox.SetForegroundColour(UI.ECOLOR2['FG']) # set color
editbox.SetBackgroundColour(UI.ECOLOR2['BG']) # set color
editbox.Bind(wx.EVT_TEXT, self.EvtText)
editbox.Bind(wx.EVT_ENTER_WINDOW, self.onMouseOver)
#editbox.Bind(wx.EVT_LEAVE_WINDOW, self.onMouseLeave)
elem_dict = {param: [{'ebox': [editbox, value]},
{'headline': headline},
{'text': text},
{'button': button}]}
ui_elem_handler_dict.update(elem_dict)
self.current_y_pxpos_elem += 20
self.param_dict[section].update(ui_elem_handler_dict)
self.expandCollapse(None, refresh=True)
self.refresh_UI()
self.KST.start()
def setting_transform(self, input_fname):
# 映像開く
video = cv2.VideoCapture(input_fname)
# 開けた確認
if not video.isOpened():
print("video open error")
return
# 映像情報
video_width = int(video.get(cv2.CAP_PROP_FRAME_WIDTH))
video_height = int(video.get(cv2.CAP_PROP_FRAME_HEIGHT))
# モニター情報
monitor_width = get_monitors()[0].width
monitor_height = get_monitors()[0].height
# 座標関係
# 元の大きさでそのまま
original_up_left = [0, 0]
original_up_right = [video_width, 0]
original_under_left = [0, video_height]
original_under_right = [video_width, video_height]
# np化
original_pos = np.float32([
original_up_left,
original_up_right,
original_under_left,
original_under_right,
])
# 変換後の座標
update_up_left = [0, 0]
update_up_right = [monitor_width, 0]
update_under_left = [0, monitor_height]
update_under_right = [monitor_width, monitor_height]
update_array = [
update_up_left, update_up_right, update_under_left,
update_under_right
]
# opencv表示
winname = "transform"
cv2.namedWindow(winname, cv2.WINDOW_NORMAL)
cv2.setWindowProperty(winname, cv2.WND_PROP_FULLSCREEN,
cv2.WINDOW_FULLSCREEN)
# 一枚ずつ表示
while True:
# 画像
ret, img = video.read()
# 読み込みできんかったら映像の最初に移動
if not ret:
video.set(cv2.CAP_PROP_POS_FRAMES, 0)
continue
# キー入力
key = cv2.waitKey(1) & 0xff
# キー入力結果
if key == 13:
# エンターキーで終了
break
elif key == ord('1'):
# 1なら左上の位置をマウスの位置に合わせる
update_array[0] = pyautogui.position()
elif key == ord('2'):
# 2なら右上の位置をマウスの位置に合わせる
update_array[1] = pyautogui.position()
elif key == ord('3'):
# 3なら左下の位置をマウスの位置に合わせる
update_array[2] = pyautogui.position()
elif key == ord('4'):
# 4なら右下の位置をマウスの位置に合わせる
update_array[3] = pyautogui.position()
# 変形後の座標np化
update_pos = np.float32(update_array)
# 変換行列作成
matrix = cv2.getPerspectiveTransform(original_pos, update_pos)
# 変換
update_img = cv2.warpPerspective(img, matrix,
(monitor_width, monitor_height))
# 表示
self.show_img_fullscreen(winname, update_img)
# 閉じ
video.release()
# 画面と次
cv2.destroyAllWindows()
# 大きさとか座標の辞書か
result = {
"fname": input_fname,
"monitor_width": monitor_width,
"monitor_height": monitor_height,
"video_width": video_width,
"video_height": video_height,
"update_up_left": update_array[0],
"update_up_right": update_array[1],
"update_under_left": update_array[2],
"update_under_right": update_array[3]
}
return result
"exodus",
"fields",
"hunting-season",
"lost-beyond",
"entresueno",
]]
dI_list = []
for key, value in wallpaper_links.items():
for i, name in enumerate(value[1]):
url = urllib.parse.urljoin(value[0], name)
content = ReqContent(url).get()
htmlElements = content.find_class("wallpaper-button")
dI_list.append([])
for htmlElement in htmlElements:
dI_list[-1].append(DownloadImage(htmlElement))
print(i, "/", len(value[1]))
img_dir = "/home/kwon-young/Pictures/wallpapers"
monitor_res = get_monitors()[0]
for i, dI_img in enumerate(dI_list):
monitor_list = [str2monitor(x._res) for x in dI_img]
goalIndex = [i for i, x in enumerate(monitor_list) if x.width == monitor_res.width and x.height == monitor_res.height]
if len(goalIndex) == 0:
print("Warning ! res not found for " + dI_img[0]._downloadName)
goalIndex = goalIndex[0]
with open(os.path.join(img_dir, dI_img[goalIndex]._downloadName), "wb") as f:
response = requests.get(dI_img[goalIndex]._downloadUrl)
f.write(response.content)
print(i, "/", len(dI_list))