def send(self):
if not self.connection:
if os.environ.has_key('DOTSTAR_HOST'):
host = os.environ.get('DOTSTAR_HOST')
else:
host = config.get("HOST")
if os.environ.has_key('DOTSTAR_PORT'):
port = os.environ.get('DOTSTAR_PORT')
else:
port = config.get("PORT")
self.connection = Client((host, port))
# Start
out_buffer = bytearray()
out_buffer += bytearray((0x00, 0x00, 0x00, 0x00))
out_buffer += self.data
if self.pixel_count:
footerLen = (self.pixel_count + 15) / 16
else:
footerLen = ((len(self.data) / 4) + 15) / 16
fBuf = bytearray()
for i in range(int(footerLen)):
# This is different than AdaFruit library, which uses zero's in the xfer[2] spi_ioc_transfer struct.
out_buffer.append(0xFF)
# End Frame
self.connection.send(out_buffer)
def on_render(self):
self.surface.fill(config.get("BRAND_BOX_BG"))
font = globals.current_app.get_font(22)
c = config.get("BRAND_TITLE")
text = font.render(config.get("WINDOW_CAPTION"), True, c)
text_pos = text.get_rect()
text_pos.center = self.surface.get_rect().center
self.surface.blit(text, text_pos)
def initialize_grid(self):
"""
Step through all of the calculations to determine the grid size and led size.
:return: None
"""
# Store Grid Size
self.grid_size = Vector2(config.get("GRID_SIZE"))
if self.draw_borders:
self.perimeter_border_size = Vector2(config.get("PERIMETER_BORDER_SIZE"))
else:
self.perimeter_border_size = Vector2(0, 0)
# Calculate cell_size
self.calculate_cell_size(self.max_grid_pixel_size())
# Create Background
self.create_background()
# Calculate LED Size
self.calculate_led_size()
log.info("LED size calculated %s, with borders %s", self.led_size, self.cell_size)
# store led rects, of just the LED rect
self.led_rects = [[None for x in range(int(self.grid_size.y))] for y in range(int(self.grid_size.x))]
# each grid cells rect, includes led borders
self.grid_rects = [[None for x in range(int(self.grid_size.y))] for y in range(int(self.grid_size.x))]
for x in range(int(self.grid_size.x)):
for y in range(int(self.grid_size.y)):
top = self.grid_background_position.y + (self.cell_size.y * y)
left = self.grid_background_position.x + (self.cell_size.x * x)
top += self.border_size.y
left += self.border_size.x
top += self.perimeter_border_size.y
left += self.perimeter_border_size.x
width = self.cell_size.x - (self.border_size.x * 2)
height = self.cell_size.y - (self.border_size.y * 2)
rect = pygame.Rect(left, top, width, height)
self.led_rects[x][y] = rect
top = self.grid_background_position.y + (self.cell_size.y * y) + self.perimeter_border_size.y
left = self.grid_background_position.x + (self.cell_size.x * x) + self.perimeter_border_size.x
width = self.cell_size.x
height = self.cell_size.y
rect = Rect(left, top, width, height)
self.grid_rects[x][y] = rect
def on_render(self):
self.surface.fill((0, 0, 0, 0))
# if self.draw_borders > 0:
self.surface.blit(self.grid_background_surface, self.grid_background_position)
bg_color = config.get("DRAW_BORDERS_COLORS")[self.draw_borders - 1]
# adjust font size for pixel index rendering based on size of the pixel
if self.led_size.x >= 30 and self.led_size.y >= 30:
font = globals.current_app.get_font(18)
else:
font = globals.current_app.get_font(8)
for y in range(int(self.grid_size.y)):
for x in range(int(self.grid_size.x)):
index = globals.mapping_data.get(x, y)
if index is not None:
c, b, g, r = globals.strip_data.get(index)
color = (r, g, b)
else:
color = bg_color
self.led_surface.fill(color)
if index is not None and self.draw_indexes > 0:
text = font.render(str(index), True, self.draw_indexes_colors[self.draw_indexes - 1])
text_pos = text.get_rect()
text_pos.center = self.led_surface.get_rect().center
self.led_surface.blit(text, text_pos)
self.surface.blit(self.led_surface, self.led_rects[x][y])
def __init__(self):
"""
Data model of a strip of LED's and also handles processes received data packets.
:return:
"""
self.grid_size = Vector2(config.get("GRID_SIZE"))
# self.pixel_count = int(self.grid_size.x * self.grid_size.y)
self.pixel_count = globals.mapping_data.pixel_count
# setup initial pixel data
size = self.pixel_count * 4
self.data = bytearray(size)
self.clear_data()
self.spi_index = 0 # current pixel index of the spi_in function
self.updated = None # datetime of last time start frame was received
self.packet_length = 0 # count of number of individual bytes received since last start frame was received.
self._dirty = True # keep track if data has been changed since last update call
# cache blinker signals
self._signal_startrecv = blinker.signal("stripdata.startrecv")
self._signal_updated = blinker.signal("stripdata.updated")
self.header_bytes_found = 0
self.buffer_count = 0
self.buffer = bytearray((0xFF, 0xFF, 0xFF, 0xFF))
def calculate_cell_size(self, max_grid_pixel_size):
"""
Given the max grid pixel size, determine the size of the individual grid cells.
:param max_grid_pixel_size: pygame.math.Vector2 of the max size of the whole grid.
:return: None
"""
width = max_grid_pixel_size.x / float(self.grid_size.x)
height = max_grid_pixel_size.y / float(self.grid_size.y)
# Check that the LED size is at least 1px
if width <= 1.0 or height <= 1.0:
log.error(
"Calculated LED cell size less than 1 pixel. The WINDOW_SIZE is to small to fit "
"the configured GRID_SIZE")
raise Exception("LED size less than 1 pixel")
# Sqaure up the LED
if config.get("SQUARE_LED"):
if width < height:
height = width
else:
width = height
self.cell_size = vector2_to_floor(Vector2(width, height))
def __init__(self):
"""
Data model of a strip of LED's and also handles processes received data packets.
:return:
"""
self.grid_size = Vector2(config.get("GRID_SIZE"))
# self.pixel_count = int(self.grid_size.x * self.grid_size.y)
self.pixel_count = globals.mapping_data.pixel_count
# setup initial pixel data
size = self.pixel_count * 4
self.data = bytearray(size)
self.clear_data()
self.spi_index = 0 # current pixel index of the spi_in function
self.updated = None # datetime of last time start frame was received
self.packet_length = 0 # count of number of individual bytes received since last start frame was received.
self._dirty = True # keep track if data has been changed since last update call
# cache blinker signals
self._signal_startrecv = blinker.signal("stripdata.startrecv")
self._signal_updated = blinker.signal("stripdata.updated")
self.header_bytes_found = 0
self.buffer_count = 0
self.buffer = bytearray((0xFF, 0xFF, 0xFF, 0xFF))
def calculate_cell_size(self, max_grid_pixel_size):
"""
Given the max grid pixel size, determine the size of the individual grid cells.
:param max_grid_pixel_size: pygame.math.Vector2 of the max size of the whole grid.
:return: None
"""
width = max_grid_pixel_size.x / float(self.grid_size.x)
height = max_grid_pixel_size.y / float(self.grid_size.y)
# Check that the LED size is at least 1px
if width <= 1.0 or height <= 1.0:
log.error("Calculated LED cell size less than 1 pixel. The WINDOW_SIZE is to small to fit "
"the configured GRID_SIZE")
raise Exception("LED size less than 1 pixel")
# Sqaure up the LED
if config.get("SQUARE_LED"):
if width < height:
height = width
else:
width = height
self.cell_size = vector2_to_floor(Vector2(width, height))
def create_background(self):
"""
Calculates the background size and position, and creates the surface.
:return: None
"""
# Initial background Size
background_size_px = Vector2(self.grid_size.x * self.cell_size.x,
self.grid_size.y * self.cell_size.y)
# add in perimeter border size
background_size_px.x += (self.perimeter_border_size.x * 2)
background_size_px.y += (self.perimeter_border_size.y * 2)
self.grid_background_surface = pygame.Surface(vector2_to_int(background_size_px))
if self.draw_borders > 0:
color = config.get("DRAW_BORDERS_COLORS")[self.draw_borders - 1]
self.grid_background_surface.fill(color)
grid_background_position_rect = self.grid_background_surface.get_rect()
grid_background_position_rect.centerx = self.layout.size.x / 2
grid_background_position_rect.centery = self.layout.size.y / 2
# Center the grid background in its space
self.grid_background_position = Vector2(grid_background_position_rect.topleft)
def calculate_led_size(self):
"""
Calculate the led size for each cell.
:return: None
"""
if self.draw_borders:
self.border_size = Vector2(config.get("BORDER_SIZE"))
else:
self.border_size = Vector2(0, 0)
width = self.cell_size.x - (self.border_size.x * 2)
height = self.cell_size.y - (self.border_size.y * 2)
self.led_size = vector2_to_floor(Vector2(width, height))
self.led_surface = pygame.Surface(self.led_size)
# Check that the LED size is at least 1px
if self.led_size.x <= 1.0 or self.led_size.y <= 1.0:
log.error(
"LED border size is to large for calculated LED size '(%s, %s) pixels'",
self.cell_size.x, self.cell_size.y)
raise Exception("LED border size is to large.")
def __init__(self, args):
self.args = args
self.mapping_data = MappingData()
self.grid_size = Vector2(config.get("GRID_SIZE"))
self.pixel_count = self.mapping_data.pixel_count
size = self.pixel_count * 4
# data does not include start and end bytes
self.data = bytearray(size)
self.connection = None
print("Data Type:", self.data_type)
if self.args.rate:
self.repeat_mode = "rate"
self.repeat_rate = float(self.args.rate)
print("Repeat Mode: Frequency")
print('Frequency Set:', self.repeat_rate)
else:
self.repeat_mode = "loop"
if self.args.loop:
self.range = range(int(args.loop))
print("Repeat Mode: Loop")
print("Loops Count:", args.loop)
else:
print("Repeat Mode: None, send once")
self.range = range(1)
def on_render(self):
self.surface.fill((0, 0, 0, 0))
# if self.draw_borders > 0:
self.surface.blit(self.grid_background_surface,
self.grid_background_position)
bg_color = config.get("DRAW_BORDERS_COLORS")[self.draw_borders - 1]
# adjust font size for pixel index rendering based on size of the pixel
if self.led_size.x >= 30 and self.led_size.y >= 30:
font = globals.current_app.get_font(18)
else:
font = globals.current_app.get_font(8)
for y in range(int(self.grid_size.y)):
for x in range(int(self.grid_size.x)):
index = globals.mapping_data.get(x, y)
if index is not None:
c, b, g, r = globals.strip_data.get(index)
color = (r, g, b)
else:
color = bg_color
self.led_surface.fill(color)
if index is not None and self.draw_indexes > 0:
text = font.render(
str(index), True,
self.draw_indexes_colors[self.draw_indexes - 1])
text_pos = text.get_rect()
text_pos.center = self.led_surface.get_rect().center
self.led_surface.blit(text, text_pos)
self.surface.blit(self.led_surface, self.led_rects[x][y])
def create_background(self):
"""
Calculates the background size and position, and creates the surface.
:return: None
"""
# Initial background Size
background_size_px = Vector2(self.grid_size.x * self.cell_size.x,
self.grid_size.y * self.cell_size.y)
# add in perimeter border size
background_size_px.x += (self.perimeter_border_size.x * 2)
background_size_px.y += (self.perimeter_border_size.y * 2)
self.grid_background_surface = pygame.Surface(
vector2_to_int(background_size_px))
if self.draw_borders > 0:
color = config.get("DRAW_BORDERS_COLORS")[self.draw_borders - 1]
self.grid_background_surface.fill(color)
grid_background_position_rect = self.grid_background_surface.get_rect()
grid_background_position_rect.centerx = self.layout.size.x / 2
grid_background_position_rect.centery = self.layout.size.y / 2
# Center the grid background in its space
self.grid_background_position = Vector2(
grid_background_position_rect.topleft)
def __init__(self):
"""
Provide the mapping from a single series strip of DotStar pixels to an x, y grid
:return:
"""
self.grid_size = Vector2(config.get("GRID_SIZE"))
self.pixel_count = 0
self.data = [[None for x in range(int(self.grid_size.y))] for y in range(int(self.grid_size.x))]
pixel_mapping = config.get("PIXEL_MAPPING")
if pixel_mapping is not None:
self.custom_mapping(pixel_mapping)
else:
self.prebuilt_mappings()
self.pixel_count = int(self.grid_size.x * self.grid_size.y)
def __init__(self):
"""
Widget to show information about the running screen.
:return:
"""
super(RunningInfo, self).__init__(x=145)
self.layout.margin.set(0, 5, 10, 5)
# LED information widgets
self.led_grid_position_txt = [] # value of grid position
self.led_strip_index_txt = [] # value of strip index
self.led_value_txt = [] # value of strip index color
self.led_color = [] # widget to show color block of strip index color
row_size = 14
left = SizedRows(row_size)
right = SizedRows(row_size)
self.set_left(left)
self.set_right(right)
left.set(self.hd_txt("Information"), 0)
i = 1
left.set(self.lbl_text("Emulator FPS:"), i)
self.emulator_fps_txt = self.val_text("")
right.set(self.emulator_fps_txt, i)
i += 1
left.set(self.lbl_text("Grid size:"), i)
grid_size = Vector2(config.get("GRID_SIZE"))
pixel_count = globals.mapping_data.pixel_count
self.grid_size_txt = self.val_text("({:.0f}, {:.0f}), {:.0f}".format(grid_size.x, grid_size.y, pixel_count))
right.set(self.grid_size_txt, i)
i += 1
left.set(self.lbl_text("Packet Updated:"), i)
self.packet_updated_txt = self.val_text("")
right.set(self.packet_updated_txt, i)
i += 1
left.set(self.lbl_text("Packet length:"), i)
self.packet_length_txt = self.val_text("")
right.set(self.packet_length_txt, i)
i += 1
left.set(self.lbl_text("Packet Rate:"), i)
self.packet_rate = self.val_text("")
right.set(self.packet_rate, i)
i += 2
self.pixel_info_count = 4
self.create_pixel_info(left, right, i)
blinker.signal("dotgrid.select.set").connect(self.on_dotgrid_select_set)
blinker.signal("stripdata.updated").connect(self.on_data_updated)
blinker.signal("ratecounter.updated").connect(self.on_ratecounter_updated)
def __init__(self, use_surface=True):
"""
Main display of DotStar Grid.
Renders each LED in a x, y grid fashion. Each grid cell is a LED. Each grid cell can have its own borders.
The main grid can also have a grid.
Configuration [
'GRID_SIZE': (x, y), # Grid size
'BORDER_SIZE': (x, y), # Pixel size of the border drawn around each LED
'PERIMETER_BORDER_SIZE': (x, y) # Pixel size of the border drawn around the whole grid
'GRID_BACKGROUND_COLOR': (r, g, b) or pygame.Color # Color of the border/background of the grid
'SQUARE_LED': True or False # if True the LED's will be square, else fit to screen.
]
:param use_surface: `bool`, default=True, use a surface to render the widget
:return:
"""
super(DotGridWidget, self).__init__(use_surface=use_surface)
# Add a margin around the grid
self.layout.margin.set(*[5 for i in range(4)])
self.grid_size = None # Number Columns, Rows of the grid
self.cell_size = None # Pixel size of each grid cell
self.led_surface = None # Reusable surface to render LEDs
self.led_size = None # Pixel size of the colored led inside the grid cell
self.border_size = None # Pixel size of the border to draw around the LED inside the grid cell
self.grid_background_position = None # pixel offset of background surface
self.grid_background_surface = None # background surface
self.perimeter_border_size = None # pixel size of perimeter border
self.led_rects = None # Cache the Rects of the LEDs, positioned to this widget
self.grid_rects = None # Cache the Rects of the grid Rects, position to this widget
self.draw_borders = config.get("DRAW_BORDERS") # Borders around each LED can be toggled on and off
self.draw_indexes = config.get("DRAW_INDEXES") # Borders around each LED can be toggled on and off
self.draw_indexes_colors = config.get("DRAW_INDEXES_COLORS")
# connect to signal used to toggle the borders.
blinker.signal("dotgrid.drawborders").connect(self.on_drawborders)
blinker.signal("dotgrid.drawindexes").connect(self.on_drawindexs)
blinker.signal("stripdata.updated").connect(self.on_data_updated)
def prebuilt_mappings(self):
zero_location = config.get("ZERO_LOCATION")
# Top Left
if zero_location == 0:
cardinal = False
left_to_right = True
# Top Right
elif zero_location == 1:
cardinal = False
left_to_right = False
# Bottom Left
elif zero_location == 2:
cardinal = True
left_to_right = True
# Bottom Right
elif zero_location == 3:
cardinal = True
left_to_right = False
# Configuration Error
else:
raise AttributeError(
"invalid ZERO_LOCATION configuration '{}'".format(
zero_location))
# Render the correct pattern
pattern = config.get("PATTERN")
if pattern == 0:
self.vertical(cardinal, left_to_right)
elif pattern == 1:
self.vertical_daisy(cardinal, left_to_right)
elif pattern == 2:
self.horizontal(cardinal, left_to_right)
elif pattern == 3:
self.horizontal_daisy(cardinal, left_to_right)
else:
raise AttributeError(
"invlude PATTERN configuration '{}'".format(pattern))
def __init__(self):
"""
Provide the mapping from a single series strip of DotStar pixels to an x, y grid
:return:
"""
self.grid_size = Vector2(config.get("GRID_SIZE"))
self.pixel_count = 0
self.data = [[None for x in range(int(self.grid_size.y))]
for y in range(int(self.grid_size.x))]
pixel_mapping = config.get("PIXEL_MAPPING")
if pixel_mapping is not None:
self.custom_mapping(pixel_mapping)
else:
self.prebuilt_mappings()
self.pixel_count = int(self.grid_size.x * self.grid_size.y)
def __init__(self, dotgrid):
super(DotGridSelect, self).__init__()
self.dotgrid = dotgrid
self.clear_event = blinker.signal("dotgrid.select.clear")
self.set_event = blinker.signal("dotgrid.select.set")
self.step = 0
self.elapsed = 0
self.speed = config.get("DOT_GRID_SELECT_SPEED")
self.colors = config.get("DOT_GRID_SELECT_COLORS")
self.x = 0
self.y = 0
self.rect = None
self.selected = False
blinker.signal("event.mousebuttondown").connect(self.on_mousebuttondown)
blinker.signal("event.keydown").connect(self.on_keydown)
def confirm_customer_size(pixel_mapping):
rows = len(pixel_mapping)
if rows != int(Vector2(config.get("GRID_SIZE")).y):
raise Exception("Custom PIXEL_MAPPING rows '{}' does not match GRID_SIZE.y '{}'".format(rows, int(
Vector2(config.get("GRID_SIZE")).y)))
columns = []
for y in range(len(pixel_mapping)):
x = len(pixel_mapping[y])
if x not in columns:
columns.append(x)
if len(columns) != 1:
raise Exception("Custom PIXEL_MAPPING columns malformed, all are not of equal length.")
if columns[0] != int(Vector2(config.get("GRID_SIZE")).x):
raise Exception("Custom PIXEL_MAPPING columns '{}' does not match GRID_SIZE.x '{}'".format(columns[0], int(
Vector2(config.get("GRID_SIZE")).x)))
return columns[0], rows
def prebuilt_mappings(self):
zero_location = config.get("ZERO_LOCATION")
# Top Left
if zero_location == 0:
cardinal = False
left_to_right = True
# Top Right
elif zero_location == 1:
cardinal = False
left_to_right = False
# Bottom Left
elif zero_location == 2:
cardinal = True
left_to_right = True
# Bottom Right
elif zero_location == 3:
cardinal = True
left_to_right = False
# Configuration Error
else:
raise AttributeError("invalid ZERO_LOCATION configuration '{}'".format(zero_location))
# Render the correct pattern
pattern = config.get("PATTERN")
if pattern == 0:
self.vertical(cardinal, left_to_right)
elif pattern == 1:
self.vertical_daisy(cardinal, left_to_right)
elif pattern == 2:
self.horizontal(cardinal, left_to_right)
elif pattern == 3:
self.horizontal_daisy(cardinal, left_to_right)
else:
raise AttributeError("invlude PATTERN configuration '{}'".format(pattern))
def __init__(self, rate):
self.mapping_data = MappingData()
self.grid_size = Vector2(config.get("GRID_SIZE"))
self.pixel_count = self.mapping_data.pixel_count
size = self.pixel_count * 4
# data does not include start and end bytes
self.data = bytearray(size)
self.connection = None
self.is_stopped = False
print("Data Type:", self.data_type)
def __init__(self):
"""
Read emulator strip SPI data in a TCP socket.
TCPReader runs in its own thread, and will acquire a lock from strip_data before
writing data.
HOST and PORT set in config.
:return:
"""
super(TCPReader, self).__init__()
self.host = config.get("HOST")
self.port = config.get("PORT")
self.listener = None
# Thread Loop
self.running = True
# Report back to the main thread if we could bind to the port or not. Main thread will not continue
# if port was not bound to.
self.startup = threading.Event()
self.startup_success = False
def __init__(self):
"""
Read emulator strip SPI data in a TCP socket.
TCPReader runs in its own thread, and will acquire a lock from strip_data before
writing data.
HOST and PORT set in config.
:return:
"""
super(TCPReader, self).__init__()
self.host = config.get("HOST")
self.port = config.get("PORT")
self.listener = None
# Thread Loop
self.running = True
# Report back to the main thread if we could bind to the port or not. Main thread will not continue
# if port was not bound to.
self.startup = threading.Event()
self.startup_success = False
def text_panel():
panel = panels.CenterSingle(25)
rows_panel = panels.SizedRows(18, use_surface=True, color=(40, 40, 40))
rows_panel.layout.requested_size = Vector2(500, 400)
panel.set(rows_panel)
filename = os.path.join(MEDIA_PATH, 'about.txt')
with open(filename, 'r') as f:
text = f.read()
text_split = text.split("\n")
widget = TextLabelWidget(config.get("WINDOW_CAPTION"), 18, config.get("BRAND_TITLE"))
widget.layout.margin.set(0, 0, 0, 5)
rows_panel.set(widget, 0)
for i, line in enumerate(text_split):
widget = TextLabelWidget(line, 12, (255, 255, 255))
widget.layout.margin.set(0, 0, 0, 5)
rows_panel.set(widget, i+2)
return panel
def __init__(self):
super(RunningScene, self).__init__()
self.draw_borders = config.get("DRAW_BORDERS")
self.draw_indexes = config.get("DRAW_INDEXES")
self.updated_txt = None
self.led_grid_position_txt = None
self.led_strip_index_txt = None
self.led_value_txt = None
self.led_color = None
two_columns = panels.TwoColumns(config.get("EMU_RUNNING_MIN_RIGHT_COL_WIDTH"))
self.set_panel(two_columns)
self.dotgrid = DotGridWidget()
two_columns.set_left(self.dotgrid)
right = panels.TwoRows(40)
two_columns.set_right(right)
right.set_top(LogoWidget())
right2 = panels.TwoRows(-60)
right.set_bottom(right2)
running_info = RunningInfo()
right2.set_top(running_info)
right2.set_bottom(self.bottom_right_panel())
self.fit()
select = DotGridSelect(self.dotgrid)
self.add_entity(select)
rect = running_info.emulator_fps_txt.layout.global_rect
self.add_entity(RunningFPS(rect))
def text_panel():
panel = panels.CenterSingle(25)
rows_panel = panels.SizedRows(18, use_surface=True, color=(40, 40, 40))
rows_panel.layout.requested_size = Vector2(500, 400)
panel.set(rows_panel)
filename = os.path.join(MEDIA_PATH, 'about.txt')
with open(filename, 'r') as f:
text = f.read()
text_split = text.split("\n")
widget = TextLabelWidget(config.get("WINDOW_CAPTION"), 18,
config.get("BRAND_TITLE"))
widget.layout.margin.set(0, 0, 0, 5)
rows_panel.set(widget, 0)
for i, line in enumerate(text_split):
widget = TextLabelWidget(line, 12, (255, 255, 255))
widget.layout.margin.set(0, 0, 0, 5)
rows_panel.set(widget, i + 2)
return panel
def __init__(self, rect):
"""
Entity to draw the FPS value to the screen. This is an entity, so that it can be updated at a high rate
without redrawing the entire GUI.
:param rect: pygame.Rect on where the FPS should be drawn.
:return:
"""
super(RunningFPS, self).__init__()
self.rect = rect
self.font = globals.current_app.get_font(13)
self.text = None
self.text_pos = None
self.update_rate = config.get("FPS_UPDATE_RATE")
self.elapsed = self.update_rate + 1
def on_draw_indexes(self, sender):
"""
Callback for the Draw Indexes button pressed event.
:param sender: blinker sender
:return: None
"""
self.draw_indexes += 1
if self.draw_indexes > len(config.get("DRAW_INDEXES_COLORS")):
self.draw_indexes = 0
sender.text = self.draw_indexes_text()
sender.redraw()
# Send signal to dotgrid to set the draw_indexes
blinker.signal("dotgrid.drawindexes").send(None, draw_indexes=self.draw_indexes)
def bottom_right_panel(self):
"""
Bottom panel of the right side, menu / buttons.
:return: gui Panel
"""
panel = panels.TwoRows(16, use_surface=True, color=config.get("BRAND_BOX_BG"))
panel.layout.margin.set(0, 5, 0, 5)
text = TextLabelWidget("Menu", 10, (255, 227, 43))
text.layout.margin.left = 4
panel.set_top(text)
bottom = panels.Grid(3, 2)
bottom.layout.margin.set(0, 2, 2, 2)
panel.set_bottom(bottom)
# Buttons
fps_button = ButtonWidget(self.fps_text(), key=pygame.K_f)
bottom.set(fps_button, 0, 0)
blinker.signal("gui.button.pressed").connect(self.on_fps, sender=fps_button)
borders_button = ButtonWidget(self.draw_borders_text(), key=pygame.K_b)
bottom.set(borders_button, 0, 1)
blinker.signal("gui.button.pressed").connect(self.on_border, sender=borders_button)
# edit_button = ButtonWidget("[E] Edit Grid", key=pygame.K_e)
# bottom.set(edit_button, 2, 0)
# blinker.signal("gui.button.pressed").connect(self.on_edit, sender=edit_button)
edit_button = ButtonWidget(self.draw_indexes_text(), key=pygame.K_i)
bottom.set(edit_button, 1, 0)
blinker.signal("gui.button.pressed").connect(self.on_draw_indexes, sender=edit_button)
exit_button = ButtonWidget("[X] Exit", key=pygame.K_x)
bottom.set(exit_button, 2, 1)
blinker.signal("gui.button.pressed").connect(self.on_exit, sender=exit_button, weak=True)
about_button = ButtonWidget("[F1] About", key=pygame.K_F1)
blinker.signal("gui.button.pressed").connect(self.on_about, sender=about_button, weak=True)
bottom.set(about_button, 1, 1)
return panel
def on_border(self, sender):
"""
Callback for the Draw border button pressed event.
:param sender: blinker sender
:return: None
"""
# self.draw_borders = not self.draw_borders
self.draw_borders += 1
if self.draw_borders > len(config.get("DRAW_BORDERS_COLORS")):
self.draw_borders = 0
sender.text = self.draw_borders_text()
sender.redraw()
# Send signal to dotgrid to set the draw_borders
blinker.signal("dotgrid.drawborders").send(None, draw_borders=self.draw_borders)
def calculate_led_size(self):
"""
Calculate the led size for each cell.
:return: None
"""
if self.draw_borders:
self.border_size = Vector2(config.get("BORDER_SIZE"))
else:
self.border_size = Vector2(0, 0)
width = self.cell_size.x - (self.border_size.x * 2)
height = self.cell_size.y - (self.border_size.y * 2)
self.led_size = vector2_to_floor(Vector2(width, height))
self.led_surface = pygame.Surface(self.led_size)
# Check that the LED size is at least 1px
if self.led_size.x <= 1.0 or self.led_size.y <= 1.0:
log.error("LED border size is to large for calculated LED size '(%s, %s) pixels'",
self.cell_size.x, self.cell_size.y)
raise Exception("LED border size is to large.")