def score_hour_lines(draw: ImageDraw):
for hour in range(HOURS):
y = hour * HOUR_HEIGHT
draw.line((
(0, y),
(NUM_DAYS * DAY_WIDTH, y),
), fill='grey')
def _render(self, draw: ImageDraw.ImageDraw, image: Image.Image):
rect = (self._position[0], self._position[1],
self._position[0] + self._width, self._position[1] + self._height)
# Border
draw.rectangle(rect, fill=0, outline=1)
# Fill
p_range = abs(self._min_value) + abs(self._max_value)
zero_pct = (0 + abs(self._min_value)) / p_range
zero_pt = (self._position[0] + 2 + (zero_pct * (self._width - 4)),
self._position[1] + 2)
val_pct = self._value / (self._max_value - self._min_value)
fill_rect = (zero_pt[0], zero_pt[1],
zero_pt[0] + (val_pct * (self._width - 4)), zero_pt[1] + self._height - 4)
draw.rectangle(fill_rect, fill=1)
# Draw Zero Indicator
draw.line((zero_pt[0], zero_pt[1] - 1,
zero_pt[0], zero_pt[1] + self._height - 2),
fill=255, width=1)
# Draw Intervals
if self._interval > 0:
for i in range(0, self._max_value + 1, self._interval):
itv_pct = i / p_range
itv_pos = (zero_pt[0] + (itv_pct * (self._width - 4)), zero_pt[1] + (self._height / 2))
draw.line((itv_pos[0], itv_pos[1], itv_pos[0], zero_pt[1] + self._height - 3),
fill=255, width=1)
for i in range(0, self._min_value - 1, -self._interval):
itv_pct = i / p_range
itv_pos = (zero_pt[0] + (itv_pct * (self._width - 4)), zero_pt[1] + (self._height / 2))
draw.line((itv_pos[0], itv_pos[1], itv_pos[0], zero_pt[1] + self._height - 3),
fill=255, width=1)
def generate_image(self, num_digits=30, noise=None):
if noise:
a = np.array(np.random.random_integers(0, 64, (self._height, self._width)), dtype=np.uint8)
else:
a = np.zeros((self._height, self._width), dtype=np.uint8)
im = Image.frombytes('L', (self._width, self._height), a.tobytes())
canvas = ImageDraw(im)
for i in range(num_digits):
import random
x = random.randint(0, self._width - self._char_size)
y = random.randint(0, self._height - self._char_size)
class_index = random.randint(0, self._num_classes - 1)
ch = str(class_index)
character_bitmap = self._factory.get_digit_image(ch)
character_bitmap = character_bitmap.resize(
(self._char_size, self._char_size)
)
canvas.bitmap((x, y), character_bitmap, fill=255)
return im
def _render(self, draw: ImageDraw.ImageDraw, image: Image.Image):
rect = (self._position[0], self._position[1],
self._position[0] + self._width, self._position[1] + self._height)
draw.rectangle(rect,
fill=255 if self._filled else 0,
outline=self._bordered)
def word_wrap(text: str, draw: ImageDraw.ImageDraw, width: int) -> str:
text_width, text_height = draw.multiline_textsize(text, font=font)
if text_width > width:
lines = text.splitlines()
wrapped_text = []
for line in lines:
line_width, _ = draw.textsize(line, font=font)
if line_width > width:
new_line = ''
last_line = new_line
for word in line.split():
if len(new_line) > 0:
new_line += ' '
new_line += word
line_width, _ = draw.textsize(new_line, font=font)
if line_width > width:
wrapped_text.append(last_line)
new_line = word
last_line = new_line
if len(last_line) > 0:
wrapped_text.append(last_line)
else:
wrapped_text.append(line)
return '\n'.join(wrapped_text)
else:
return text
def line(draw: ImageDraw, coord1: Coordinate, coord2: Coordinate):
"""Draws a line between two given Coordinates.
The color of the line depends on the Y value (low = black, high = white)
Arguments:
draw {ImageDraw} -- The ImageDraw to draw on
coord1 {Coordinate} -- Coordinate of the original position
coord2 {Coordinate} -- Coordinate of the next position
"""
# R G B
# low black: 0 0 0
# high white: 225 225 255
# Limit elevation to be between 70 and 120
ll = 70.0
ul = 120.0
pos1 = coord1.coord_3d
pos2 = coord2.coord_3d
elev = max(ll, min(pos1[1], ul))
# The RGB tuple to make the gray for the given elevation
gray = (int(scale(elev, (ll, ul), (0.0, 255.0))), ) * 3
draw.line([(pos1[0], pos1[2]), (pos2[0], pos2[2])], gray, 4)
def color_pix(color):
im = new_im('RGB', (128, 128))
draw = ImageDraw(im, 'RGB')
draw.rectangle((0, 0, 128, 128),
fill=(int(color[1:3], 16), int(color[3:5],
16), int(color[5:], 16)))
return toqpixmap(im)
def do_I_have_to_draw_you_a_picture(self):
""" Return a little thumbs-up / thumbs-down image with text in it.
"""
if self.success:
bytes, color = _thumbs_up_bytes, _thumbs_up_color
else:
bytes, color = _thumbs_down_bytes, _thumbs_down_color
thumb = Image.open(StringIO(bytes))
image = Image.new('RGB', (256, 256), color)
image.paste(thumb.resize((128, 128)), (64, 80))
mapnik_url = 'http://tile.openstreetmap.org/%(zoom)d/%(column)d/%(row)d.png' % self.coord.__dict__
mapnik_img = Image.open(StringIO(urlopen(mapnik_url).read()))
mapnik_img = mapnik_img.convert('L').convert('RGB')
image = Image.blend(image, mapnik_img, .15)
draw = ImageDraw(image)
margin, leading = 8, 12
x, y = margin, margin
for word in self.content.split():
w, h = draw.textsize(word)
if x > margin and x + w > 250:
x, y = margin, y + leading
draw.text((x, y), word, fill=(0x33, 0x33, 0x33))
x += draw.textsize(word + ' ')[0]
return image
def draw_eye_vector(drawer: ImageDraw.ImageDraw, eye_3d_vector: np.ndarray,
solver: PNP_solver.PoseEstimator,
rotation: np.ndarray, translation: np.ndarray, eye_pos: str) -> None:
"""Draw gaze vector eye from eye on a picture drawer
:param drawer: where to draw
:param eye_3d_vector: what vector(in camera coordinate system)
:param solver:
:param rotation: head rotation
:param translation: head translation
:param eye_pos: "l" for left, "r" for right
:return:
"""
if eye_pos == "l":
eye_pos = (solver.model_points_68[36] + solver.model_points_68[39]) / 2.
else:
eye_pos = (solver.model_points_68[42] + solver.model_points_68[45]) / 2.
eye_3d_vector = copy.deepcopy(eye_3d_vector) * -50
# eye coordinate in camera coordinate system is determined
to_camera_matrix = get_world_to_camera_projection_matrix(solver, rotation, translation)
eye_pos = np.matmul(to_camera_matrix, [*eye_pos, 1])
no_rot_vector, _ = cv2.Rodrigues(np.array([[1., 0., 0.], [0., 1., 0.], [0., 0., 1.]]))
vect_start, _ = cv2.projectPoints(eye_pos, no_rot_vector, [0, 0, 0], solver.camera_matrix,
solver.dist_coeefs)
vect_finish, _ = cv2.projectPoints(eye_3d_vector + eye_pos, no_rot_vector, [0, 0, 0],
solver.camera_matrix, solver.dist_coeefs)
drawer.line([*vect_start, vect_start[0] + vect_finish[0], vect_start[1] + vect_finish[1]], fill=(0, 255, 0))
drawer.ellipse([vect_start[0] - 2, vect_start[1] - 2, vect_start[0] + 2, vect_start[1] + 2])
def verification_code(request):
"""
:param request:
:return:
about:生成4位随机验证码图
"""
mode = 'RGB'
size = (100, 34)
color_bg = (get_bg_color(), get_bg_color(), get_bg_color())
# 画布
image = Image.new(mode=mode, size=size, color=color_bg)
# 画笔
image_draw = ImageDraw(image, mode=mode)
image_font = ImageFont.truetype(settings.FONT_PATH, random.randrange(30, 34))
# 绘制文字
code = get_code()
request.session['verification_code'] = code
for i in range(4):
fill = (get_color(), get_color(), get_color())
image_draw.text(xy=(i * random.randrange(18, 28), random.randrange(5)), text=code[i], font=image_font, fill=fill)
for i in range(2):
fill = (get_color(), get_color(), get_color())
xy1 = ((random.randrange(100), random.randrange(50)), (random.randrange(75), random.randrange(25)))
image_draw.line(xy=xy1, fill=fill)
xy2 = ((random.randrange(50), random.randrange(100)), (random.randrange(34), random.randrange(13)))
image_draw.line(xy=xy2, fill=fill)
for i in range(10):
fill = (get_color(), get_color(), get_color())
xy1 = ((random.randrange(100), random.randrange(50)), (random.randrange(75), random.randrange(25)))
image_draw.point(xy=xy1, fill=fill)
# 变成比特流
fp = BytesIO()
image.save(fp, 'png')
return HttpResponse(fp.getvalue(), content_type='image/png')
def add_polygon_to_image(draw: ImageDraw.ImageDraw,
poly_points: list,
scale: float,
line_color: str,
fill_color: str = None) -> None:
"""Draw a polygon on an image
This will draw a polygon on the passed-in image in the specified
colors and scale.
:param draw: The drawable surface to write on
:param poly_points: A sequence of points representing the polygon,
where each point has float members (x, y)
:param scale: Scale to multiply each point to match the image scaling
:param line_color: The color for the outline of the polygon. The string value
must be a color string suitable for use with PIL - see :mod:`PIL.ImageColor`
:param fill_color: The color for the inside of the polygon. The string value
must be a color string suitable for use with PIL - see :mod:`PIL.ImageColor`
"""
if len(poly_points) < 2:
# Need at least 2 points to draw any lines
return
# Convert poly_points to the PIL format and scale them to the image
pil_poly_points = []
for pt in poly_points:
pil_poly_points.append((pt.x * scale, pt.y * scale))
draw.polygon(pil_poly_points, fill=fill_color, outline=line_color)
def getcode(request):
mode = 'RGB'
size = [200, 100]
color_bg = getcolor()
image = Image.new(mode=mode, size=size, color=color_bg)
imagedraw = ImageDraw(image, mode=mode)
iamgefont = ImageFont.truetype(settings.FONT_PATH, 30)
verify_code = 'Come'
for i in range(len(verify_code)):
# file text填充色
fill = getcolor()
imagedraw.text(xy=(30 * i, 30), text=verify_code[i], font=iamgefont, fill=fill)
# 干扰点
for i in range(1000):
xy = (random.randrange(size[0]), random.randrange(size[1]))
fill = getcolor()
imagedraw.point(xy=xy, fill=fill)
# 画圆 xy区域，四元数组 start int end int 圆经过strat和end
start = random.randrange(size[0])
end = random.randrange(size[1])
fill = getcolor()
imagedraw.arc(xy=(0, 0, 200, 100), start=start, end=end, fill=fill)
for i in range(10):
imagedraw.line(xy=(
random.randrange(size[0]), random.randrange(size[1]), (random.randrange(size[0]), random.randrange(size[1]))),
fill=getcolor())
fp = BytesIO()
image.save(fp, 'png')
cache.set('code', verify_code)
return HttpResponse(fp.getvalue(), content_type='image/png')
def add_img_box_to_image(
draw: ImageDraw.ImageDraw,
box: util.ImageRect,
color: str,
text: Union[ImageText, Iterable[ImageText]] = None) -> None:
"""Draw a box on an image and optionally add text.
This will draw the outline of a rectangle to the passed in image
in the specified color and optionally add one or more pieces of text
along the inside edge of the rectangle.
:param draw: The drawable surface to write on
:param box: The ImageBox defining the rectangle to draw
:param color: A color string suitable for use with PIL - see :mod:`PIL.ImageColor`
:param text: The text to display - may be a single ImageText instance,
or any iterable (eg a list of ImageText instances) to display multiple pieces of text.
"""
x1, y1 = box.x_top_left, box.y_top_left
x2, y2 = (box.x_top_left + box.width), (box.y_top_left + box.height)
draw.rectangle([x1, y1, x2, y2], outline=color)
if text is not None:
if isinstance(text, collections.Iterable):
for t in text:
t.render(draw, (x1, y1, x2, y2))
else:
text.render(draw, (x1, y1, x2, y2))
def __draw_header_without_profile_pic(
tweet_info: TweetInfo,
graphic_settings: GraphicSettings,
wip_img: Image.Image,
draw_interface: ImageDraw.ImageDraw,
coordinates: Tuple[int],
header_height: int,
font_header: ImageFont.FreeTypeFont,
) -> int:
"""Draw the graphic's header: username and user tag only.
Parameters
----------
tweet_info : TweetInfo
Dictionary with all the tweet's information.
graphic_settings : GraphicSettings
Dictionary with the graphic's settings.
wip_img : Image.Image
Work-in-progress tweet graphic.
draw_interface : ImageDraw.ImageDraw
Interface used to draw in the Image.
coordinates : Tuple[int]
Initial coordinates at which to draw the header.
header_height : int
Total height of the header.
font_header : ImageFont.FreeTypeFont
Font used for the header.
profile_picture : Image.Image
Profile picture ready to be drawn in the graphic.
Returns
-------
int
Vertical coordinate at which to start drawing the tweet body.
"""
x = coordinates[0]
y = coordinates[1]
username = tweet_info["user_name"]
user_name = wrap(username, 19)
user_tag = tweet_info["user_tag"]
text_color = graphic_settings["color_scheme"][1]
margin = graphic_settings["margin_bottom"]
profile_pic_width = graphic_settings["profile_pic_size"][0]
# Draw the username
user_name = wrap(username, 38)
for line in user_name:
draw_interface.text((x, y), line, font=font_header, fill=text_color)
y += font_header.size + margin
# Draw the user tag
draw_interface.text((x, y), user_tag, font=font_header, fill=text_color)
# Calculate the vertical coordinate at which to start drawing the\
# tweet text
return_y = coordinates[1] + header_height + margin
# Return the current vertical coordinate
return return_y
def build_monster(seed=None, size=None):
#capture random state
rand_state = random.getstate()
if not seed:
seed = md5(str(random.getrandbits(128))).hexdigest()
random.seed(seed)
parts = (
('legs', random.randint(0, 4), random.randint(1, 5)),
('hair', random.randint(0, 4), random.randint(1, 5)),
('arms', random.randint(0, 4), random.randint(1, 5)),
('body', random.randint(0, 4), random.randint(1, 15)),
('eyes', random.randint(0, 4), random.randint(1, 15)),
('mouth', random.randint(0, 4), random.randint(1, 10)),
)
#restore random state
random.setstate(rand_state)
# make a base monster:
monster_im = Image.new('RGB', (120, 120))
monster_id = ImageDraw(monster_im)
monster_id.rectangle((0, 0, 120, 120), fill="white", outline="white")
for part, flip, index in parts:
f = path(__file__).dirname().abspath() / 'parts' / '%s_%d.png' % (part, index)
part_im = Image.open(f)
monster_im.paste(part_im, (0, 0), part_im)
if size:
monster_im = monster_im.resize(size, Image.ANTIALIAS)
return monster_im
def _draw_num(self,
num: int,
draw: ImageDraw,
x_offset: float = 0,
y_offset: float = 0):
for points in self.num_points(num, x_offset, y_offset):
draw.polygon(points, fill=self.fg)
def _render_label_box(
self,
draw: ImageDraw.ImageDraw,
top_left: Tuple[int, int],
text: str,
padding: int = 10,
background_color: Tuple[int, int, int] = (255, 255, 255),
outline_color: Tuple[int, int, int] = (0, 0, 0),
text_color: Tuple[int, int, int] = (0, 0, 0),
):
text_size = draw.textsize(text, font=self.font)
offset_x, offset_y = self.font.getoffset(text)
text_width = text_size[0] + offset_x
text_height = text_size[1] + offset_y
x, y = top_left
bottom_right = (
x + self.border * 2 + padding * 2 + text_width,
y + padding + text_height,
)
box_coords = [top_left, bottom_right]
draw.rectangle(
box_coords,
fill=background_color,
outline=outline_color,
width=self.border,
)
text_coordinate = (
x + self.border + padding - offset_x,
y + self.border + padding - offset_y + 1,
)
draw.text(text_coordinate, text, font=self.font, fill=text_color)
def makeCircleMaskImage(width, height):
center = (width / 2, height / 2)
smallerDimension = min(width, height)
image = Image.new('1', (width, height))
draw = ImageDraw(image)
draw.ellipse(boundingBoxSquare(center, smallerDimension), fill='white')
return image
def draw_title(
draw: ImageDraw.ImageDraw,
title_font: ImageFont.FreeTypeFont,
title: str,
sub_title: Optional[str] = None,
sub_title_font: Optional[ImageFont.FreeTypeFont] = None) -> None:
size_width, size_height = draw.textsize(title, title_font)
x_padding = 20
y_padding = 4
draw.rectangle(((0, 0), (size_width + x_padding, size_height + y_padding)),
fill=0x00)
draw.text(((size_width + x_padding) // 2, (size_height + y_padding) // 2),
title,
fill="white",
font=title_font,
anchor='mm')
if (sub_title):
if (not sub_title_font):
sub_title_font = title_font
sub_title_size_width, _ = draw.textsize(sub_title, sub_title_font)
draw.rectangle(((size_width + x_padding, 0),
(size_width + x_padding + sub_title_size_width + 40,
size_height + y_padding)),
fill=0xff,
outline=0,
width=4)
draw.text(((size_width + x_padding + (sub_title_size_width + 40) // 2),
(size_height + y_padding) // 2),
sub_title,
fill="black",
font=sub_title_font,
anchor='mm')
def run(self): # no need to overwrite parent's init
turtle = self.turtle
colors = self.colors
if self.load_from_cache():
return
self.canvas.begin_new()
im_draw = ImageDraw(self.canvas.pil_image)
color = self.colors["1"]
# Calculate size, and scale to fill the frame
t_width = turtle.rightmost[0] - turtle.leftmost[0]
t_height = turtle.bottommost[1] - turtle.topmost[1]
if t_width / t_height > 1: # fat image scale according to width
scale_factor = self.canvas.c_width / t_width
else:
scale_factor = self.canvas.c_height / t_height
left_margin = (self.canvas.c_width - scale_factor * t_width) / 2
top_margin = (self.canvas.c_height - scale_factor * t_height) / 2
x_shift = left_margin - scale_factor * turtle.leftmost[0]
y_shift = top_margin - scale_factor * turtle.topmost[1]
coordinates = []
for item in turtle.lines:
if self._stop_drawing.isSet():
return
if isinstance(item, PlaceHolder):
coordinates.append(item)
else:
coordinates.append((item[0] * scale_factor + x_shift,
item[1] * scale_factor + y_shift,
item[2] * scale_factor + x_shift,
item[3] * scale_factor + y_shift))
i = 0
for item in coordinates:
if self._stop_drawing.isSet():
return
"Update canvas after each 3000 stroke"
i += 1
if i > 3000:
self.canvas.update_image()
i = 0
if isinstance(item, PlaceHolder): # not a list of coordinates
if item.value in colors:
color = colors[item.value]
else:
im_draw.line(item, color)
self.canvas.update_image()
self.save_to_cache()
def draw_route_frame(self, route: list, frame: int,
draw: ImageDraw.ImageDraw) -> None:
"""Draws single frame of route for single player."""
first_pos = (self.gran * int((route[frame]['x_pos']) + 20),
self.gran * int(route[frame]['y_pos']))
second_pos = (self.gran * int((route[frame + 1]['x_pos']) + 20),
self.gran * int(route[frame + 1]['y_pos']))
draw.line((first_pos, second_pos), fill=255, width=self.gran*1)
def draw_line(draw: ImageDraw.ImageDraw, target, offset=(0, 0), scale=1.0):
vertexes = []
for vertex in target['vertexes']:
x = vertex['x'] * scale + offset[0]
y = vertex['y'] * scale + offset[1]
vertexes.append((int(x), int(y)))
# draw
draw.line(vertexes)
def plot_square(self, route_start: dict,
draw: ImageDraw.ImageDraw) -> None:
"""Plots square to signify player at start of route."""
x_pos, y_pos = route_start['x_pos'], route_start['y_pos']
draw.rectangle((self.gran * (int(x_pos) + self.gran * 10 - 1),
self.gran * (int(y_pos) + 1),
self.gran * (int(x_pos) + self.gran * 10 + 1),
self.gran * (int(y_pos) - 1)), fill=255)
def draw(self, features: List, osm_helper: OsmHelper, camera: Camera,
image_draw: ImageDraw):
for point, text in sorted(features, key=itemgetter(1)):
x, y = camera.gps_to_px(point)
width, height = image_draw.textsize(text, font=self.font)
image_draw.text((x - width // 2, y - height // 2),
text=text,
fill=self.fill,
font=self.font)
def fill_rainbows(image, angle=0):
draw_api = ImageDraw(image)
for col in range(IMG_SIZE):
hue = (col * MAX_HUE / IMG_SIZE + angle) % MAX_HUE
colour_string = "hsl(%d, 100%%, 50%%)" % (hue)
# logging.warning("colour_string: %s" % colour_string)
rgb = ImageColor.getrgb(colour_string)
# logging.warning("rgb: %s" % (rgb,))
draw_api.line([(col, 0), (col, IMG_SIZE)], fill=rgb)
def draw_linestring(image, linestring, color=255):
"""Draw a linestring in the given color at the given location"""
pil_image = fromarray(image)
validated_color = color
draw = ImageDraw(pil_image)
if len(image.shape) > 2 and image.shape[2] > 1:
validated_color = tuple(color)
draw.line(linestring.coords, fill=validated_color)
return np.asarray(pil_image)
def draw_poly(image, polygon, color=255):
"""Draw a polygon in the given color at the given location"""
pil_image = fromarray(image)
validated_color = color
draw = ImageDraw(pil_image)
if len(image.shape) > 2 and image.shape[2] > 1:
validated_color = tuple(color)
draw.polygon(polygon.boundary.coords, fill=validated_color, outline=validated_color)
return np.asarray(pil_image)
def draw_username(
txt_draw: ImageDraw.ImageDraw,
position: Point,
username="******",
fill=TITLE_COLOR,
):
x0 = position.x + MSG_PADDING_H
y0 = position.y + MSG_PADDING_V
txt_draw.text((x0, y0), username, font=FONTS['bold'], fill=fill)
def __init__(self, size=(200, 100), mode='RGB', font_path=settings.FONT_PATH):
self.size = size
mode = mode
bg_color = self.RGB()
self.image = Image.new(mode=mode, size=self.size, color=bg_color)
self.draw = ImageDraw(self.image, mode)
self.font = ImageFont.truetype(font_path, 20)
self.code_length = 4
self.code = self.CAPTCHA()
def draw(self, verbose=False):
""" Draw map out to a PIL.Image and return it.
"""
# image and filename
img = Image.new('RGB', (self.width, self.height), 0x00)
if verbose:
print 'Laying out faces...'
face = icosahedron.vertex2face(icosahedron.latlon2vertex(self.latitude, self.longitude))
face.orient_north(self.latitude, self.longitude)
face.center_on(self.latitude, self.longitude)
face.scale(self.side)
face.translate(img.size[0]/2, img.size[1]/2)
faces = face.arrange_neighbors(self.join)
if verbose:
print 'Drawing faces...'
applied = []
for f, face in icosahedron.faces.items():
if face in faces:
applied += apply_face(img, ['%02d' % f], face, UP, verbose=verbose)
lock = threading.Lock()
pasters = [TilePaster(img, srcPath, affineData, lock, verbose) for (srcPath, affineData) in applied]
for paster in pasters:
paster.start()
while True:
time.sleep(.25)
remaining = sum(map(int, [paster.isAlive() for paster in pasters]))
if remaining == 0:
break
if verbose:
print 'Drawing lines...'
draw = ImageDraw(img)
for face in faces:
for edge in face.edges():
x1, y1 = face.project_vertex(edge.vertexA)
x2, y2 = face.project_vertex(edge.vertexB)
if edge.kind == icosahedron.LAND:
draw.line((x1, y1, x2, y2), fill=(0x00, 0xCC, 0x00, 0x80))
elif edge.kind == icosahedron.WATER:
draw.line((x1, y1, x2, y2), fill=(0x00, 0x66, 0xFF, 0x80))
return img
def __generate_copyright_image(self, size):
text_layer = Image.new('RGBA', size, (255, 255, 255, 0))
draw_object = ImageDraw(text_layer)
opacity = self.count_opacity_num()
position = self.count_copyright_text_position(size)
draw_object.text(position, self.copyright_text, fill=(255, 255, 255, opacity))
return text_layer
def draw_quantity(draw: ImageDraw.ImageDraw,
mid_point: tuple[int, int],
value: str,
unit: str,
fonts: Fonts,
font: str = 'font_sm',
font_unit: str = 'font_xs') -> None:
(x, y) = mid_point
draw.text((x - 7, y), value, font=fonts[font], fill=0, anchor='rs')
draw.text((x + 7, y), unit, font=fonts[font_unit], fill=0, anchor='ls')
def draw_ant(draw: ImageDraw.ImageDraw, ant: Ant):
y, x = ant.position
pos = (np.array([x, y]) + .5) * c.C2P
rot = rotation(-ant.direction * TAU / 8)
start = rot @ np.array([0., -c.C2P / 3]) + pos
end = rot @ np.array([0., c.C2P / 3]) + pos
color = (255, 0, 0) if ant.food else (0, 0, 0)
draw.line(start.tolist() + end.tolist(), fill=color, width=2)
def draw_flag_path(self, image, flag_path):
flag_path = flag_path[0]
pen = ImageDraw(image)
x = 0
while x < len(flag_path) - 1:
x1, y1 = flag_path[x]
x2, y2 = flag_path[x + 1]
pen.line(((x1 * 40) + 20, (y1 * 40) + 20, (x2 * 40) + 20,
(y2 * 40) + 20), "yellow", width=4)
x += 1
def score_hour_lines(draw: ImageDraw):
for hour in range(HOURS):
y = hour * HOUR_HEIGHT
draw.line(
(
(0, y),
(NUM_DAYS * DAY_WIDTH, y),
),
fill='grey'
)
def __init__(self, *args, **kwargs):
global src, dst
self.g = TPS_generate(src, dst)
self.img = Image.new("L", (500, 500), 255)
draw = ImageDraw(self.img)
for d in xrange(10, 250, 10):
draw.ellipse((d, d, 500 - d, 500 - d))
return super(TestImages, self).__init__(*args, **kwargs)
def draw_weekday_names(draw: ImageDraw):
for day_num, day_name in enumerate(calendar.day_abbr):
draw.text(
(
day_num * DAY_WIDTH,
(7 * HOUR_HEIGHT) + (HOUR_HEIGHT / 2)
),
day_name.upper(),
fill='black',
font=SOURCE_CODE_PRO
)
def create_test_image(w, h, c='RGB'):
colors = {
'RGB': {1: '#DDEEFF', 2: '#667788', 3: '#887766'},
'CMYK': {1: (120, 130, 140, 25), 2: (80, 100, 120, 50), 3: (120, 100, 80, 75)},
}
color = colors[c]
img = Image.new(c, (w, h), color=color[1])
d = ImageDraw(img)
d.line((-1, -1) + img.size, fill=color[2], width=2)
d.line((-1, img.size[1], img.size[0], -1), fill=color[3], width=2)
return img
def procesar():
sqs = boto3.resource('sqs')
queue = sqs.get_queue_by_name(QueueName='designMatchQueue')
print 'Queue'
print str(queue.url)
print 'Entra a procesar'
lista_disenios = Connection().db.disenios.find({'estado' : 'En proceso'})
print 'lista_disenios'
print lista_disenios
for disenio in lista_disenios:
disenio = Connection.db.disenios.find_one({'_id' : ObjectId(disenio['_id'])})
if disenio['estado']=='En proceso':
Connection().db.disenios.update({"_id": ObjectId(disenio['_id'])}, {"$set": {'fechaInicioProceso': timezone.now(),
'fechaModificacion': timezone.now(),
'estado': 'Procesando'}})
print 'Procesando disenio... ' + str(disenio['disenioOriginal'])
imageS3 = default_storage.open(disenio['disenioOriginal'])
imagenOrg = Image.open(imageS3)
#Redimensionar
imagenPro = imagenOrg.resize((800,600),Image.ANTIALIAS)
#Marca de agua
watermark = Image.new("RGBA", imagenPro.size)
waterdraw = ImageDraw(watermark, "RGBA")
font = ImageFont.truetype("fonts/DejaVuSans.ttf", 25)
waterdraw.text((50,50), disenio['nombres'] + ' ' + disenio['apellidos'] + ' ' + str(disenio['fechaCreacion']), (255,255,255), font=font)
watermask = watermark.convert("L").point(lambda x: min(x, 100))
watermark.putalpha(watermask)
imagenPro.paste(watermark, None, watermark)
#Nueva extension
nombreImagen = disenio['disenioOriginal'].split('/')[1].split('.')[0]
#time.sleep(90)
nuevaRuta = 'diseniosProcesados/' + nombreImagen + '_procesada.png'
#Guardar local
#imagenPro.save(nuevaRuta)
#Guardar en base
fh = default_storage.open(nuevaRuta, 'w')
imagenPro.save(fh)
fh.close()
print "Imagen guardada en S3 " + nuevaRuta
Connection().db.disenios.update({"_id": ObjectId(disenio['_id'])}, {"$set": {'disenioProcesado': nuevaRuta,
'fechaModificacion': timezone.now(),
'estado': 'Disponible'}})
prompt(disenio)
def render(rgb_from_coords=None, filename="mandelbrot.png"):
"""
Display an image of dimensions MAX_X, MAX_Y, delegating to rgb_from_coords
to choose the colour for the current pixel.
:param rgb_from_coords:Function mapping x, y to (r, g, b).
"""
if rgb_from_coords is None:
raise ValueError("Pass in a callback function (x, y)->(r,g,b).")
img = Image.new("RGB", (MAX_X, MAX_Y))
draw = ImageDraw(img)
t1 = time.time()
for coords in it.product(range(MAX_X), range(MAX_Y)):
rgb = rgb_from_coords(*coords)
draw.point(coords, rgb)
t2 = time.time()
print("Calculation and rendering took", t2-t1, "seconds in total.")
img.save(filename)
def draw_rectangle(colours: dict, class_: TimetableClass, draw: ImageDraw,
start: int, stop: int):
colour = colours[class_.name.split(' - ')[0]]
fill, outline = colour, 'black'
draw.rectangle(
(start, stop),
fill=fill,
outline=outline
)
colour = tuple(min(x - 20, 256) for x in colour)
draw.rectangle(
(
start,
(stop[0], start[1] + (HOUR_HEIGHT * (2/3)))
),
fill=colour,
outline=outline
)
def draw_label(draw: ImageDraw, start: ('x', 'y'), class_: TimetableClass):
unit_name, class_type = class_.name.split(' - ')
unit_initials = ''.join(
word[:1]
for word in unit_name.split()
if word[:1].isupper() or word[:1].isdigit()
)
start = (start[0] + 2, start[1] - 3)
draw.text(
start,
unit_initials,
font=SOURCE_CODE_PRO
)
if class_type in CLASS_TYPES:
class_type = CLASS_TYPES[class_type]
else:
class_type = class_type[:3].upper()
draw.text(
(start[0], start[1] + 20),
class_type,
font=SOURCE_CODE_PRO
)
def do_label(fname):
print "Processing %s" % fname
# remove directory and file extension
label = fname.split('/')[-1].replace(".png", "")
img = Image.open(fname)
img = img.convert("RGBA")
# label
draw = ImageDraw(img, "RGBA")
font = ImageFont.truetype("arial.ttf", 12)
draw.setfont(font)
draw.text((6, 6), label, (0, 0, 0, 255))
draw.text((5, 5), label, (255, 255, 255, 255))
# border
img2 = Image.new("RGBA", img.size, (0, 0, 0, 0))
draw = ImageDraw(img2, "RGBA")
draw.rectangle((0, 0, img.size[0] - 1, img.size[1] - 1), None, (255, 255, 192, 48))
img.paste(img2, img2)
img.save(fname)
def run(self): # no need to overwrite parent's init
turtle = self.turtle
colors = self.colors
if self.load_from_cache():
return
self.canvas.begin_new()
im_draw = ImageDraw(self.canvas.pil_image)
color = self.colors["1"]
# Calculate size, and scale to fill the frame
t_width = turtle.rightmost[0] - turtle.leftmost[0]
t_height = turtle.bottommost[1] - turtle.topmost[1]
if t_width / t_height > 1: # fat image scale according to width
scale_factor = self.canvas.c_width / t_width
else:
scale_factor = self.canvas.c_height / t_height
left_margin = (self.canvas.c_width - scale_factor*t_width) / 2
top_margin = (self.canvas.c_height - scale_factor*t_height) / 2
x_shift = left_margin - scale_factor*turtle.leftmost[0]
y_shift = top_margin - scale_factor*turtle.topmost[1]
coordinates = []
for item in turtle.lines:
if self._stop_drawing.isSet():
return
if isinstance(item, PlaceHolder):
coordinates.append(item)
else:
coordinates.append((item[0]*scale_factor+x_shift,
item[1]*scale_factor+y_shift,
item[2]*scale_factor+x_shift,
item[3]*scale_factor+y_shift))
i = 0
for item in coordinates:
if self._stop_drawing.isSet():
return
"Update canvas after each 3000 stroke"
i += 1
if i > 3000:
self.canvas.update_image()
i = 0
if isinstance(item, PlaceHolder): # not a list of coordinates
if item.value in colors:
color = colors[item.value]
else:
im_draw.line(item, color)
self.canvas.update_image()
self.save_to_cache()
max_z_pos = -sys.maxint - 1
for r_ in blocks:
if(r_.x_pos_real > max_x_pos):
max_x_pos = r_.x_pos_real
elif(r_.x_pos_real < min_x_pos):
min_x_pos = r_.x_pos_real
if(r_.z_pos_real > max_z_pos):
max_z_pos = r_.z_pos_real
elif(r_.z_pos_real < min_z_pos):
min_z_pos = r_.z_pos_real
width = abs(max_z_pos - min_z_pos)+4
height = abs(max_x_pos - min_x_pos)+4
print('width {0}, height {1}'.format(width, height))
img = Image.new("RGB", (width, height), "white")
draw = ImageDraw(img)
for r_ in blocks:
chunk_x = r_.x_pos_chunk
chunk_z = r_.z_pos_chunk
for x_ in range(16):
for z_ in range(16):
draw.point((chunk_z + z_ - min_x_pos + 2, chunk_x + x_ - max_x_pos + 2), r_.color)
draw.point((r_.x_pos_real - min_x_pos + 2, r_.z_pos_real - min_z_pos + 2), "black")
img.save("img.png", "PNG")
def annotate(image, text):
draw = ImageDraw(image)
font = truetype("Helvetica.otf", 16)
draw.text((0, 0), text, (255, 255, 255), font=font)
import dymaxion
import PIL.Image as Image
from PIL.ImageDraw import ImageDraw
min_x, min_y, max_x, max_y = 9999, 9999, -9999, -9999
points = []
img = Image.new("L", (800, 400), 0x00)
draw = ImageDraw(img)
for lat in range(-90, 90, 3):
for lon in range(-180, 180, 3):
x, y = dymaxion.project(lon, lat)
x, y = x, -y # upside-down!
min_x, min_y = min(x, min_x), min(y, min_y)
max_x, max_y = max(x, max_x), max(y, max_y)
# print (lat, lon), '->', (x, y)
points.append((x, y, lat, lon))
print(min_x, min_y), (max_x, max_y)
top, left, bottom, right = 10, 10, img.size[1] - 10, img.size[0] - 10
mx = (right - left) / (max_x - min_x)
my = (bottom - top) / (max_y - min_y)
mx, my = min(mx, my), min(mx, my)
bx = left - mx * min_x
def getalbums(**kwargs):
items = kwargs.get('items', [])
app_id = kwargs.get('app_id', '')
app_secret = kwargs.get('app_secret', '')
try:
oauth = urllib2.urlopen(
'https://graph.facebook.com/oauth/access_token?'
'client_id=%s&client_secret=%s&grant_type=client_credentials' %
(app_id, app_secret))
txt = oauth.read()
access_token = re.search('access_token=(.*)', txt).groups()[0]
except Exception as e:
print e
sys.exit(0)
facebook = hammock.Hammock("https://graph.facebook.com")
# 851 315
# 840 300
# 120 100
images = []
for item in items:
try:
metadata = facebook.__getattr__(item).GET(
"", params={"access_token": access_token}
).json()
feed = facebook.__getattr__(metadata['id']).GET(
"albums", params={"access_token": access_token}
).json()
filtered = [
i for i in feed['data']
if not i['name']
in (
u'Profile Pictures',
u'Cover Photos',
u'Timeline Photos'
)]
shuffle(filtered)
items = []
for album in filtered:
photos = facebook.__getattr__(album['id']).GET(
"photos", params={"access_token": access_token}
).json()
chosen = sample(
photos['data'],
choice(range(1, int(math.ceil(len(filtered) ** 0.5))))
)
items.extend(chosen)
shuffle(items)
for c in items:
print "processing", c['source']
try:
data = StringIO(urllib2.urlopen(c['source']).read())
img = Image.open(data)
if choice((0, 1)):
img = img.resize((
img.size[0] / 2,
img.size[1] / 2),
Image.ANTIALIAS)
if img.size[0] < img.size[1]: # portrait
img = img.crop((
max(img.size[0] / 2 - 120 * choice((1, 2)), 0),
max(img.size[1] / 2 - 105 * choice((2, 3)), 0),
min(img.size[0] / 2 + 120, img.size[0]),
min(img.size[1] / 2 + 105, img.size[1]),
))
else: # landscape
img = img.crop((
max(img.size[0] / 2 - 120 * choice((2, 3)), 0),
max(img.size[1] / 2 - 105 * choice((1, 2)), 0),
min(img.size[0] / 2 + 120, img.size[0]),
min(img.size[1] / 2 + 105, img.size[1]),
))
draw = ImageDraw(img)
draw.rectangle(
[1, 1,
img.size[0] - 2, img.size[1] - 2],
outline="white"
)
draw.rectangle(
[0, 0,
img.size[0] - 1, img.size[1] - 1],
outline="white"
)
images.append(
Rectangle(
0, 0,
img.size[0],
img.size[1],
img
))
except Exception as e:
print e
#pass
except Exception as e:
print e
sys.exit(0)
container = Rectangle(
0, 0,
1440, 500,
Image.open("template.png"))
guillotine_baf_las(container, images)
depth_composite(container, container, 0, 0)
offset = choice(tuple(i for i in range(0, 100, 10)))
crop = container.image.crop((
offset, offset,
851 + offset, 315 + offset
))
draw = ImageDraw(crop)
draw.rectangle(
(0, 0,
crop.size[0] - 1,
crop.size[1] - 1),
outline="white"
)
draw.rectangle(
(1, 1,
crop.size[0] - 2,
crop.size[1] - 2),
outline="white"
)
crop.save(open("result.png", "w"))
import dymaxion
import os, tempfile, subprocess
import PIL.Image as Image
from PIL.ImageDraw import ImageDraw as IDraw
from PIL.ImageStat import Stat as IStat
min_x, min_y, max_x, max_y = 9999, 9999, -9999, -9999
points = []
img = Image.new('RGB', (1440, 900), 0x00)
draw = IDraw(img)
sources = (('world.topo.bathy.200407.3x21600x21600.A1.v', 'world.topo.bathy.200407.3x21600x21600.B1.v', 'world.topo.bathy.200407.3x21600x21600.C1.v', 'world.topo.bathy.200407.3x21600x21600.D1.v'),
('world.topo.bathy.200407.3x21600x21600.A2.v', 'world.topo.bathy.200407.3x21600x21600.B2.v', 'world.topo.bathy.200407.3x21600x21600.C2.v', 'world.topo.bathy.200407.3x21600x21600.D2.v'))
def source(lat, lon):
if lat > 0:
row = 0
else:
row = 1
if lon < -90:
col = 0
elif lon < 0:
col = 1
elif lon < 90:
col = 2
else:
col = 3
image = sources[row][col]
def renderTile(self, width, height, srs, coord):
"""
"""
img = Image.new('RGB', (width, height), colors[0])
draw = ImageDraw(img)
interactivity_array = []
base_zoom = coord.zoom
base_row = coord.row
base_column = coord.column
#We're showing detail for three zooms in from here, as fat pixels (32 pix)
#256 pixels / tile = 8 pixels / tile = 32 pixels (which is 2^5)
tile_pixel_width = 256
#print 'coord:', coord
#print 'base_zoom:', base_zoom
# 256 pixel tile == 2^8 pixel tile, so this is a constant
tile_power_of_two = 8
# we want 8x8 fatbits == 2^3 pixel fatbits
#TODO: use self.cell_size to find log of 2 to x?
pixel_power_of_two = int(log( self.cell_size, 2 ))
fat_pixel_width = 2**pixel_power_of_two
self.fat_pixel_count = 2**(tile_power_of_two - pixel_power_of_two)
# adjust the coord to be the pixel zoom
coord = coord.zoomBy(tile_power_of_two - pixel_power_of_two)
#print "fat_pixel_count: ", fat_pixel_count
#print "coord: ", coord
#print 'over_sample_zoom_tile_width: ', over_sample_zoom_tile_width
#find the fat_pixel with the maximum photo count
max_count = 0
top_count = 0
top_margin = 0
#We should be seeing 64 cells (8x8) output image
for row in range( self.fat_pixel_count ):
for col in range( self.fat_pixel_count ):
ul = coord.right(col).down(row)
lr = ul.right().down()
#Calculate key for the size dict
subquad = Coordinate(ul.row, ul.column, ul.zoom)
#print 'subquad:', subquad
# these values should always be within (0, 256)
x1 = col * fat_pixel_width
x2 = (col + 1) * fat_pixel_width
y1 = row * fat_pixel_width
y2 = (row + 1) * fat_pixel_width
#Draw fat pixel based on the returned color based on count (size) in that subquad in the dictionary
#Implied that no-data is color[0], above where the img is instantiated
enumeration = count_votes( self, subquad )
if max_count < enumeration["photo_count_total"]:
max_count = enumeration["photo_count_total"]
if top_count < enumeration["photo_count0"]:
top_count = enumeration["photo_count0"]
if self.output_format == "utf_grid":
nw = osm.coordinateLocation(subquad)
se = osm.coordinateLocation(subquad.right().down())
lat = (nw.lat - se.lat) / 2 + se.lat
lon = (se.lon - nw.lon) / 2 + nw.lon
interactivity_array.append( { "photo_count_total":enumeration["photo_count_total"],
"woe_id":enumeration["woe_id0"],
#"woe_id_lau":enumeration["woe_id0_lau"],
#"woe_id_adm2":enumeration["woe_id0_adm2"],
#"woe_id_adm1":enumeration["woe_id0_adm1"],
"woe_id_adm0":enumeration["woe_id0_adm0"],
"name":enumeration["name0"],
"photo_count":enumeration["photo_count0"],
"margin":enumeration["margin0"],
"latitude":lat,
"longitude":lon,
"x1": str(nw.lon),
"y1": str(se.lat),
"x2": str(se.lon),
"y2": str(nw.lat),
"row":str(base_row + row),
"col":str(base_column + col),
"zoom": coord.zoom } )
elif self.method == "size_log":
draw.rectangle((x1, y1, x2, y2), size_color_log(int( enumeration[self.input_field]) ))
elif self.method == "size":
draw.rectangle((x1, y1, x2, y2), size_color(int( enumeration[self.input_field]) ))
elif self.method == "unique_id":
draw.rectangle((x1, y1, x2, y2), size_color_unique_id(int( enumeration[self.input_field]) ))
if self.output_format == "utf_grid":
#print "interactivity_array: ", interactivity_array
#grid_utf = create_utf_grid( self, interactivity_array )
grid_utf = { 'grid':['','.'] }
if max_count == 0:
raise NothingToSeeHere()
is_saveable = False
# Are we at the last requested zoom?
if coord.zoom == self.max_zoom:
is_saveable = True
# Are we at the minimum viable zoom but with little to no data?
if (coord.zoom >= self.min_zoom) and (max_count <= self.min_size):
is_saveable = True
# Are we viable zoom, viable count, and no ambiguity as to the 100% within margin the winner?
if (coord.zoom >= (self.min_zoom + 2)) and (max_count > self.max_size) and ((top_count >= (max_count * self.margin_percent)) or ((max_count - top_count) < self.min_size)):
is_saveable = True
# Don't want to dig for needles
#if coord.zoom == 17 and base_row == 50816 and base_column == 21045:
# print '(coord.zoom >= (self.min_zoom + 1)) and ((max_count - top_count) < self.min_size):'
# print coord.zoom,(self.min_zoom + 1),max_count, top_count, self.min_size
if (coord.zoom >= (self.min_zoom + 1)) and ((max_count - top_count) < self.min_size):
#(max_count > self.min_size) and
is_saveable = True
# and (interactivity_array["margin"] >= self.margin_percent)
if is_saveable:
#print "should save to DB"
#print "interactivity_array: ", interactivity_array
saveTileToDatabase( self, interactivity_array )
raise NothingMoreToSeeHere( SaveableResponse(json.dumps(grid_utf)) )
else:
return SaveableResponse(json.dumps(grid_utf))
elif self.output_format == "geojson":
grid_utf = create_utf_grid( self, interactivity_array )
return SaveableResponse(json.dumps(grid_utf))
else:
return img
def renderTile(self, width, height, srs, coord):
# return an object with a PIL-like save() method for a tile
_width, _height = width / self.scale, height / self.scale
img = Image.new("RGB", (_width, _height), (0, 0, 0))
draw = ImageDraw(img)
#
# Prepare query geometry.
#
ul = self.layer.projection.coordinateProj(coord)
lr = self.layer.projection.coordinateProj(coord.down().right())
x_offset, y_offset = -ul.x, -ul.y
x_scale, y_scale = _width / (lr.x - ul.x), _height / (lr.y - ul.y)
transform = x_offset, y_offset, x_scale, y_scale
buf = (lr.x - ul.x) / 2
bbox = (
"ST_SetSRID(ST_Buffer(ST_MakeBox2D(ST_MakePoint(%.3f, %.3f), ST_MakePoint(%.3f, %.3f)), %.3f, 2), 900913)"
% (ul.x, ul.y, lr.x, lr.y, buf)
)
colors = product(range(0, 0xFF, 4), range(0, 0xFF, 4), range(0x66, 0xFF, 4))
#
# Draw the grid itself and note object color keys as we go.
#
objects = {}
db = connect(database="geodata", user="******").cursor()
for (id, type, name, shape) in get_landusages_imposm(db, bbox, *transform):
rgb = colors.next()
objects[rgb] = "land", type, name, id
for geom in getattr(shape, "geoms", [shape]):
for ring in [geom.exterior] + list(geom.interiors):
draw.polygon(list(ring.coords), fill=rgb)
if coord.zoom >= 17:
for (id, type, shape) in get_buildings_imposm(db, bbox, *transform):
rgb = colors.next()
objects[rgb] = "building", name, id
for geom in getattr(shape, "geoms", [shape]):
for ring in [geom.exterior] + list(geom.interiors):
draw.polygon(list(ring.coords), fill=rgb)
if coord.zoom >= 15:
road_lines = get_roads_imposm(db, bbox, *transform)
else:
road_lines = get_mainroads_imposm(db, bbox, *transform) + get_motorways_imposm(db, bbox, *transform)
for (id, type, name, way) in road_lines:
rgb = colors.next()
objects[rgb] = "road", type, name, id
for geom in getattr(way, "geoms", [way]):
stroke = {18: 4, 17: 3}.get(coord.zoom, 2)
draw.line(list(geom.coords), fill=rgb, width=stroke)
db.close()
#
# Collect actual rgb values from image and sort them by frequency
# so we can build up a grid with the most number of one-and-two-digit
# numbers that are also keys into the details array.
#
data = [(r, g, b) for (r, g, b) in img.getdata()]
rgb_counts = {}
for rgb in data:
rgb_counts[rgb] = rgb_counts.get(rgb, 0) + 1
rgb_counts = sorted(rgb_counts.items(), key=itemgetter(1), reverse=True)
rgb_indexes = [key for (key, count) in rgb_counts]
#
# Build a details array and a two-dimensional column-major grid.
#
details = [objects.get(rgb, None) for rgb in rgb_indexes]
grid = []
for row in range(_height):
row, data = data[:_width], data[_width:]
row = [rgb_indexes.index(rgb) for rgb in row]
grid.append(row)
return GridResponse(img.resize((width, height), Image.NEAREST), [details, grid])
