def draw(self, wdg, ctx: cairo.Context, *args):
if self.surface:
ctx.fill()
ctx.set_source_surface(self.surface, 0, 0)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
return True
def _draw_cell(self, context: cairo.Context,
cell_value: CrucipixelCellValue, area: Rectangle):
r, g, b = self.crucipixel_cell_value_to_color[cell_value]
context.set_source_rgb(r, g, b)
context.rectangle(area.start.x,
area.start.y,
area.width,
area.height)
context.fill()
if not self.victory_screen and cell_value == CrucipixelCellValue.EMPTY:
# draw the X
r, g, b = self.crucipixel_cell_value_to_color[
CrucipixelCellValue.SELECTED
]
context.set_source_rgb(r, g, b)
context.set_line_cap(cairo.LINE_CAP_ROUND)
delta_x = self.cell_width // 2.8
delta_y = self.cell_height // 2.8
context.move_to(area.start.x + area.width - delta_x,
area.start.y + delta_y)
context.line_to(area.start.x + delta_x,
area.start.y + area.height - delta_y)
context.move_to(area.start.x + area.width - delta_x,
area.start.y + area.width - delta_y)
context.line_to(area.start.x + delta_x,
area.start.y + delta_y)
context.stroke()
def render_picture(ctx: cairo.Context, picture: Picture) -> None:
"""
Render a picture at (0, 0) onto the supplied context (which should use mm
units).
"""
ctx.save()
# Load the picture
image_surface = cairo.ImageSurface.create_for_data(
picture.get_image_bytes(),
cairo.FORMAT_ARGB32,
picture.image_width,
picture.image_height,
)
# Scale and translate the picture according to the scale/crop mode in use.
#
# NB: Pattern matrix maps from page space to pixel space, hence the
# apparently inverted transformation described here.
ctx.set_source_surface(image_surface)
pattern = ctx.get_source()
m = pattern.get_matrix()
m.scale(1 / picture.scale, 1 / picture.scale)
m.translate(-picture.x_offset, -picture.y_offset)
pattern.set_matrix(m)
# Draw the picture (clipped)
ctx.rectangle(0, 0, picture.width, picture.height)
ctx.fill()
ctx.restore()
def draw(self, cr: cairo.Context) -> None:
xc = self._xc
yc = self._yc
radius = self._radius
scale_radius = self._scale_radius
fill_color = self._fill_color
if radius == 0.0:
return
matrix = cr.get_matrix()
dx = 1 / matrix.xx
dy = 1 / matrix.yy
if scale_radius:
radius_scale = 1 / (0.5 * (matrix.xx + matrix.yy))
else:
radius_scale = 1.0
cr.arc(xc, yc, radius_scale * radius, 0, 2 * math.pi)
cr.set_source_rgba(*fill_color)
cr.fill()
self._last_drawn_region = circle_region(
xc, yc, radius_scale * radius + max(dx, dy))
self._last_drawn_radius_scale = radius_scale
def draw_stats(self, context: cairo.Context):
# Draw sunrise, sunset, AQI icon and values
self.draw_icon(context, "rise-set-aqi", (450, 300))
self.draw_text(
context,
position=(505, 337),
text=self.weather.sunrise().astimezone(self.timezone).strftime("%H:%M"),
color=BLACK,
size=32,
)
self.draw_text(
context,
position=(505, 385),
text=self.weather.sunset().astimezone(self.timezone).strftime("%H:%M"),
color=BLACK,
size=32,
)
# Pick AQI text and color
aqi = self.weather.aqi()
if aqi < 50:
color = GREEN
elif aqi < 150:
color = ORANGE
else:
color = RED
text_width = self.draw_text(context, aqi, size=30, weight="bold", noop=True)
self.draw_roundrect(context, 505, 402, text_width + 13, 36, 3)
context.set_source_rgb(*color)
context.fill()
self.draw_text(
context, position=(510, 430), text=aqi, color=WHITE, size=30, weight="bold"
)
def fill(
self,
ctx: cairo.Context,
rng: Generator,
x1: float,
y1: float,
x2: float,
y2: float,
):
with source(ctx, self.stops[-1].to_pattern()):
ctx.fill_preserve()
# Orient the canvas so that our gradient goes straight in direction of +Y.
gradient_angle = angle((x1, y1), (x2, y2)) - (pi / 2)
with translation(ctx, x1, y1), rotation(ctx, gradient_angle), source(
ctx, self.stops[0].to_pattern()):
# We translated and rotated the canvas, so our gradient control
# vector is now from (0, 0) straight up:
grad_control_y = distance((x1, y1), (x2, y2))
# Get a bounding box of what needs to be filled:
start_x, start_y, end_x, end_y = ctx.fill_extents()
ctx.new_path()
for cx, cy, cr in self.pattern.func(
rng,
(start_x, start_y),
(end_x, end_y),
(0, 0),
(0, grad_control_y),
self.dot_radius,
):
ctx.arc(cx, cy, cr, 0, tau)
ctx.fill()
def create_surface(self):
bw, bh = self.size
old_backing = self._backing
#should we honour self.depth here?
self._backing = None
if bw==0 or bh==0:
#this can happen during cleanup
return None
backing = ImageSurface(FORMAT_ARGB32, bw, bh)
self._backing = backing
cr = Context(backing)
if self._alpha_enabled:
cr.set_operator(OPERATOR_CLEAR)
cr.set_source_rgba(1, 1, 1, 0)
else:
cr.set_operator(OPERATOR_SOURCE)
cr.set_source_rgba(1, 1, 1, 1)
cr.rectangle(0, 0, bw, bh)
cr.fill()
if COPY_OLD_BACKING and old_backing is not None:
oldw, oldh = old_backing.get_width(), old_backing.get_height()
sx, sy, dx, dy, w, h = self.gravity_copy_coords(oldw, oldh, bw, bh)
cr.translate(dx-sx, dy-sy)
cr.rectangle(sx, sy, w, h)
cr.clip()
cr.set_operator(OPERATOR_SOURCE)
cr.set_source_surface(old_backing, 0, 0)
cr.paint()
backing.flush()
return cr
def draw_base(self, cr: cairo.Context):
cr.identity_matrix()
cr.set_matrix(self.matrix)
cr.rectangle(-1, -1, 2, 2)
cr.set_source_rgb(*colors[0])
cr.fill()
if self.gtk_mode:
cr.rectangle(-1, .65, .15, .35)
cr.set_source_rgb(*colors[1])
cr.fill()
cr.set_source_rgb(*colors[1])
cr.set_line_width(9e-3)
cr.arc(0, 0, self.radius, 0, 2 * PI)
# cr.stroke()
for theta in np.linspace(0, 2 * PI, self.radio_button + 1):
cr.move_to(0, 0)
x, y = self.radius * np.cos(theta), self.radius * np.sin(theta)
cr.line_to(x, y)
if (x, y) not in self.inter_sections:
self.inter_sections.append((x, y))
cr.stroke()
def draw(self, wdg, ctx: cairo.Context, *args):
if self.surface:
ctx.fill()
ctx.set_source_surface(self.surface, 0, 0)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
# Draw rectangles on the WTE image representing the selected WTU entries
# Allows multiple selections
active_rows: List[Gtk.TreePath] = self.builder.get_object(
'wtu_tree').get_selection().get_selected_rows()[
1] # type: ignore
store: Gtk.ListStore = self.builder.get_object(
'wtu_store') # type: ignore
for x in active_rows:
row = store[x.get_indices()[0]]
ctx.set_line_width(4)
ctx.set_source_rgba(1, 1, 1, 1)
ctx.rectangle(int(row[0]), int(row[1]), int(row[2]),
int(row[3]))
ctx.stroke()
ctx.set_line_width(2)
ctx.set_source_rgba(0, 0, 0, 1)
ctx.rectangle(int(row[0]), int(row[1]), int(row[2]),
int(row[3]))
ctx.stroke()
return True
def draw_highlight_layer(self, layout: Layout, cr: Context):
if isinstance(self.highlight_item, Piece):
self.draw_piece(self.highlight_item, cr, self.highlight_drawing_options)
if isinstance(self.selected_item, Piece):
self.draw_piece(self.selected_item, cr, self.selection_drawing_options)
elif isinstance(self.selected_item, Anchor) and self.selected_item.position:
cr.arc(
self.selected_item.position.x,
self.selected_item.position.y,
3
if any(
piece.placement and anchor_name == piece.anchor_names[0]
for piece, anchor_name in self.selected_item.items()
)
else 1,
0,
math.tau,
)
cr.set_source_rgb(0.2, 0.2, 1)
cr.fill()
elif (
isinstance(self.selected_item, TracksideItem)
and self.selected_item.position
):
self.draw_sensor(
self.selected_item, layout, cr, self.selection_drawing_options
)
def _highlight_border(self, context: cairo.Context, row: int, col: int):
width = self._total_width
height = self._total_height
line_width = 3
row_rectangles = [
Rectangle(Point(1, row * self.cell_height - line_width / 2),
width - 2, line_width),
Rectangle(Point(1, (row + 1) * self.cell_height - line_width / 2),
width - 2, line_width)
]
col_rectangles = [
Rectangle(Point(col * self.cell_width - line_width / 2, 1),
line_width, height - 2),
Rectangle(Point((col + 1) * self.cell_width - line_width / 2, 1),
line_width, height - 2)
]
context.save()
r, g, b = self.highlight_color
context.set_source_rgba(r, g, b, .6)
for row_rectangle in row_rectangles:
context.rectangle(row_rectangle.start.x, row_rectangle.start.y,
row_rectangle.width, row_rectangle.height)
context.fill()
for col_rectangle in col_rectangles:
context.rectangle(col_rectangle.start.x, col_rectangle.start.y,
col_rectangle.width, col_rectangle.height)
context.fill()
context.restore()
def draw(self, wdg, ctx: cairo.Context):
ctx.set_antialias(cairo.Antialias.NONE)
ctx.scale(self.scale, self.scale)
# Background
ctx.set_source_rgb(0, 0, 0)
ctx.rectangle(0, 0, self.width, self.height)
ctx.fill()
matrix_x_flip = cairo.Matrix(-1, 0, 0, 1, BPC_TILE_DIM, 0)
matrix_y_flip = cairo.Matrix(1, 0, 0, -1, 0, BPC_TILE_DIM)
tiles_for_pals = self.animation_context.current()
for i, mapping in enumerate(self.tile_mappings):
tiles_for_frame = tiles_for_pals[mapping.pal_idx]
tile_at_pos = mapping.idx
if 0 < tile_at_pos < len(tiles_for_frame):
tile = tiles_for_frame[tile_at_pos]
if mapping.flip_x:
ctx.transform(matrix_x_flip)
if mapping.flip_y:
ctx.transform(matrix_y_flip)
ctx.set_source_surface(tile, 0, 0)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
if mapping.flip_x:
ctx.transform(matrix_x_flip)
if mapping.flip_y:
ctx.transform(matrix_y_flip)
if (i + 1) % self.tiling_width == 0:
# Move to beginning of next line
ctx.translate(-BPC_TILE_DIM * (self.tiling_width - 1),
BPC_TILE_DIM)
else:
# Move to next tile in line
ctx.translate(BPC_TILE_DIM, 0)
def draw(self, wdg, ctx: cairo.Context, *args):
if self.surface:
wdg.set_size_request(self.surface.get_width(),
self.surface.get_height())
ctx.fill()
ctx.set_source_surface(self.surface, 0, 0)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
entry_tree: Gtk.TreeView = self.builder.get_object('entry_tree')
active_rows: List[Gtk.TreePath] = entry_tree.get_selection(
).get_selected_rows()[1]
for x in active_rows:
prop = self.entries[x.get_indices()[0]].get_properties()
if self.font.get_entry_image_size() > 12:
ctx.set_line_width(4)
ctx.set_source_rgba(0, 0, 0, 1)
ctx.rectangle((prop["char"]%16)*self.font.get_entry_image_size()*IMAGE_ZOOM, \
(prop["char"]//16)*self.font.get_entry_image_size()*IMAGE_ZOOM, prop["width"]*IMAGE_ZOOM, self.font.get_entry_image_size()*IMAGE_ZOOM)
ctx.stroke()
ctx.set_line_width(2)
if self.font.get_entry_image_size() > 12:
ctx.set_source_rgba(1, 1, 1, 1)
else:
ctx.set_source_rgba(1, 0, 0, 1)
ctx.rectangle((prop["char"]%16)*self.font.get_entry_image_size()*IMAGE_ZOOM, \
(prop["char"]//16)*self.font.get_entry_image_size()*IMAGE_ZOOM, prop["width"]*IMAGE_ZOOM, self.font.get_entry_image_size()*IMAGE_ZOOM)
ctx.stroke()
return True
def selection_draw_callback(self, ctx: cairo.Context, x: int, y: int):
if self.interaction_mode == DrawerInteraction.CHUNKS:
# Draw a chunk
chunks_at_frame = self.animation_context.current()[self.edited_layer]
ctx.set_source_surface(
chunks_at_frame[self.interaction_chunks_selected_id], x, y
)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
elif self.interaction_mode == DrawerInteraction.COL:
# Draw collision
if self.interaction_col_solid:
ctx.set_source_rgba(1, 0, 0, 1)
ctx.rectangle(
x, y,
BPC_TILE_DIM,
BPC_TILE_DIM
)
ctx.fill()
elif self.interaction_mode == DrawerInteraction.DAT:
# Draw data
if self.interaction_dat_value > 0:
ctx.select_font_face("monospace", cairo.FONT_SLANT_NORMAL, cairo.FONT_WEIGHT_NORMAL)
ctx.set_font_size(6)
ctx.set_source_rgb(1, 1, 1)
ctx.move_to(x, y + BPC_TILE_DIM - 2)
ctx.show_text(f"{self.interaction_dat_value:02x}")
def on_draw(self, wd, cr: cairo.Context, sc=None, lw=None, al=None):
# setup scale
if sc is None:
sc = self.sc
lw = self.lw
al = self.al
cr.identity_matrix()
cr.scale(self.width * sc, self.height * sc)
tx = (sc - 1) / (sc * 2)
cr.translate(-tx, 0)
self.background(cr)
# triangle
p = [0.0, 1.0]
for r0, r1 in self.reverse_line(): # iterate thought rows
pc = p.copy()
for n, _ in enumerate(r0):
if n % 2:
continue
if (r0[n] and r1[n]) and (r0[n + 1] and r1[n]):
self.draw_triag(cr, pc)
pc[0] += 2 * self.dx
p = [p[0] + self.dx, p[1] - self.dy]
cr.set_line_width(lw)
cr.set_source_rgb(0, 0, 0)
cr.stroke_preserve()
cr.set_source_rgba(*colors[4], al)
cr.fill()
def draw(self, ctx: cairo.Context, relative_to=(0, 0)):
x, y = self.pos - relative_to
pat = self.color.to_pattern(x, y, self.size)
with source(ctx, pat):
ctx.arc(x, y, self.size, 0, math.tau)
ctx.fill()
def draw_precip_curve(
self,
context: cairo.Context,
points: List[Tuple[int, int]],
bottom: int,
color,
curviness: float = 7,
):
# Draw the top curves
for i, point in enumerate(points):
if i == 0:
context.move_to(*point)
else:
last_point = points[i - 1]
context.curve_to(
last_point[0] + curviness,
last_point[1],
point[0] - curviness,
point[1],
point[0],
point[1],
)
# Draw the rest and fill
context.line_to(points[-1][0], bottom)
context.line_to(points[0][0], bottom)
context.close_path()
context.set_source_rgb(*color)
context.fill()
def draw_pieces(self):
if not self.num_pieces:
# Nothing to draw.
return
if (self.resized() or self.pieces != self.prev_pieces
or self.pieces_overlay is None):
# Need to recreate the cache drawing
self.pieces_overlay = ImageSurface(FORMAT_ARGB32, self.width,
self.height)
ctx = Context(self.pieces_overlay)
if self.pieces:
pieces = self.pieces
elif self.num_pieces:
# Completed torrents do not send any pieces so create list using 'completed' state.
pieces = [COLOR_STATES.index('completed')] * self.num_pieces
start_pos = 0
piece_width = self.width / len(pieces)
pieces_colors = [[
color / 65535
for color in self.gtkui_config['pieces_color_%s' % state]
] for state in COLOR_STATES]
for state in pieces:
ctx.set_source_rgb(*pieces_colors[state])
ctx.rectangle(start_pos, 0, piece_width, self.height)
ctx.fill()
start_pos += piece_width
self.cr.set_source_surface(self.pieces_overlay)
self.cr.paint()
def cairo_paint_from_source(self, set_source_fn, source, x: int, y: int,
iw: int, ih: int, width: int, height: int,
options):
""" must be called from UI thread """
backing = self._backing
log("cairo_paint_surface%s backing=%s, paint box line width=%i",
(set_source_fn, source, x, y, iw, ih, width, height, options),
backing, self.paint_box_line_width)
if not backing:
return
gc = Context(backing)
if self.paint_box_line_width:
gc.save()
gc.rectangle(x, y, width, height)
gc.clip()
gc.set_operator(OPERATOR_CLEAR)
gc.rectangle(x, y, width, height)
gc.fill()
gc.set_operator(OPERATOR_SOURCE)
gc.translate(x, y)
if iw != width or ih != height:
gc.scale(width / iw, height / ih)
gc.rectangle(0, 0, width, height)
set_source_fn(gc, source, 0, 0)
gc.paint()
if self.paint_box_line_width:
gc.restore()
encoding = options.get("encoding")
self.cairo_paint_box(gc, encoding, x, y, width, height)
def _draw(self, widget: Gtk.Widget, ctx: Context):
height = widget.get_allocated_height()
ctx.scale(20, height)
ctx.rectangle(0, 0, 1, 1)
set_rgb(ctx, self.color)
ctx.fill()
def draw(self, wdg, ctx: cairo.Context, *args):
if self.surface:
wdg.set_size_request(self.surface.get_width(), self.surface.get_height())
ctx.fill()
ctx.set_source_surface(self.surface, 0, 0)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
return True
def draw_dot(context: cairo.Context, dot: symbols.Dot) -> None:
"""draw a filled circle"""
context.set_line_width(dot.thickness)
_set_color(context, dot.color)
context.arc(dot.center[0], dot.center[1], dot.radius, 0.0, 2.0 * np.pi)
context.stroke_preserve()
context.fill()
def on_draw(self, index: int, widget: Gtk.DrawingArea, ctx: cairo.Context):
w16 = self._surfaces[index]
ctx.set_source_rgb(0, 0, 0)
ctx.rectangle(0, 0, *widget.get_size_request())
ctx.fill()
ctx.set_source_surface(w16)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
def do_render(self, model: Dazzle.GraphModel, x_begin: int, x_end: int,
y_begin: float, y_end: float, cairo_context: cairo.Context,
area: cairo.RectangleInt) -> None:
model_iter = Dazzle.GraphModelIter()
cairo_context.save()
if model.get_iter_first(model_iter):
chunk = area.width / (model.props.max_samples - 1) / 2.0
last_x = self._calc_x(model_iter, x_begin, x_end, area.width)
last_y = float(area.height)
cairo_context.move_to(last_x, area.height)
while Dazzle.GraphModel.iter_next(model_iter):
x = self._calc_x(model_iter, x_begin, x_end, area.width)
y = self._calc_y(model_iter, y_begin, y_end, area.height,
self._column)
cairo_context.curve_to(last_x + chunk, last_y, last_x + chunk,
y, x, y)
last_x = x
last_y = y
cairo_context.set_line_width(self._line_width)
cairo_context.set_source_rgba(self._stacked_color_rgba.red,
self._stacked_color_rgba.green,
self._stacked_color_rgba.blue,
self._stacked_color_rgba.alpha)
cairo_context.rel_line_to(0, area.height)
cairo_context.stroke_preserve()
cairo_context.close_path()
cairo_context.fill()
if model.get_iter_first(model_iter):
chunk = area.width / (model.props.max_samples - 1) / 2.0
last_x = self._calc_x(model_iter, x_begin, x_end, area.width)
last_y = float(area.height)
cairo_context.move_to(last_x, last_y)
while Dazzle.GraphModel.iter_next(model_iter):
x = self._calc_x(model_iter, x_begin, x_end, area.width)
y = self._calc_y(model_iter, y_begin, y_end, area.height,
self._column)
cairo_context.curve_to(last_x + chunk, last_y, last_x + chunk,
y, x, y)
last_x = x
last_y = y
cairo_context.set_source_rgba(self._stroke_color_rgba.red,
self._stroke_color_rgba.green,
self._stroke_color_rgba.blue,
self._stacked_color_rgba.alpha)
cairo_context.stroke()
cairo_context.restore()
def draw_trains(self, layout: Layout, cr: Context):
for train in layout.trains.values():
car_start = train.position
annotation = train.meta.get("annotation")
for i, car in enumerate(train.cars):
front_bogey_offset, rear_bogey_offset = car.bogey_offsets
bogey_spacing = rear_bogey_offset - front_bogey_offset
front_bogey_position = car_start - front_bogey_offset
front_bogey_xy = self.transform_track_point(front_bogey_position)
rear_bogey_position, rear_bogey_xy = self.point_back(
front_bogey_position, bogey_spacing
)
cr.save()
cr.translate(front_bogey_xy[0], front_bogey_xy[1])
cr.rotate(
math.pi
+ math.atan2(
front_bogey_xy[1] - rear_bogey_xy[1],
front_bogey_xy[0] - rear_bogey_xy[0],
)
)
cr.set_source_rgb(*hex_to_rgb(train.meta.get("color", "#a0a0ff")))
if i == 0 and annotation:
cr.move_to(0, -10)
cr.set_font_size(5)
cr.show_text(annotation)
cr.set_line_width(4)
cr.move_to(-front_bogey_offset, 0)
cr.line_to(car.length - front_bogey_offset, 0)
cr.stroke()
cr.set_line_width(6)
cr.move_to(1 - front_bogey_offset, 0)
cr.line_to(car.length - front_bogey_offset - 1, 0)
cr.stroke()
if i == 0 and train.lights_on:
cr.set_source_rgba(1, 1, 0.2, 0.5)
for y in (-2.5, 2.5):
cr.move_to(-front_bogey_offset - 1, y)
cr.arc(
-front_bogey_offset - 1,
y,
10,
6 / 7 * math.pi,
math.pi * 8 / 7,
)
cr.close_path()
cr.fill()
cr.restore()
car_start = rear_bogey_position - (car.length - rear_bogey_offset + 1)
def draw(self, wdg, ctx: cairo.Context, do_translates=True):
ctx.set_antialias(cairo.Antialias.NONE)
ctx.scale(self.scale, self.scale)
chunk_width = self.tiling_width * DPCI_TILE_DIM
chunk_height = self.tiling_height * DPCI_TILE_DIM
# Background
if not self.use_pink_bg:
ctx.set_source_rgb(0, 0, 0)
else:
ctx.set_source_rgb(1.0, 0, 1.0)
ctx.rectangle(
0, 0, self.width_in_chunks * self.tiling_width * DPCI_TILE_DIM,
self.height_in_chunks * self.tiling_height * DPCI_TILE_DIM)
ctx.fill()
# Layers
for chunks_at_frame in self.animation_context.current():
for i, chunk_at_pos in enumerate(self.mappings):
if 0 < chunk_at_pos < len(chunks_at_frame):
chunk = chunks_at_frame[chunk_at_pos]
ctx.set_source_surface(chunk, 0, 0)
ctx.get_source().set_filter(cairo.Filter.NEAREST)
ctx.paint()
if (i + 1) % self.width_in_chunks == 0:
# Move to beginning of next line
if do_translates:
ctx.translate(
-chunk_width * (self.width_in_chunks - 1),
chunk_height)
else:
# Move to next tile in line
if do_translates:
ctx.translate(chunk_width, 0)
# Move back to beginning
if do_translates:
ctx.translate(0, -chunk_height * self.height_in_chunks)
break
size_w, size_h = self.draw_area.get_size_request()
size_w /= self.scale
size_h /= self.scale
# Selection
self.selection_plugin.set_size(self.tiling_width * DPCI_TILE_DIM,
self.tiling_height * DPCI_TILE_DIM)
self.selection_plugin.draw(ctx, size_w, size_h, self.mouse_x,
self.mouse_y)
# Tile Grid
if self.draw_tile_grid:
self.tile_grid_plugin.draw(ctx, size_w, size_h, self.mouse_x,
self.mouse_y)
# Chunk Grid
if self.draw_chunk_grid:
self.chunk_grid_plugin.draw(ctx, size_w, size_h, self.mouse_x,
self.mouse_y)
return True
def create_image(context: cairo.Context, cells: CellBlock,
cell_sizes: Dict[CellBlock, float]) -> None:
context.rectangle(0, 0, WIDTH, HEIGHT)
context.set_source_rgb(1, 1, 1)
context.fill()
context.set_source_rgb(0, 0, 0)
for (x, y), cell_state in cells.items():
context.arc(x * 16, y * 16, cell_sizes[cell_state], 0, 2 * pi)
context.fill()
def draw(self, cr: Context, drawing_options: DrawingOptions):
cr.set_source_rgb(*drawing_options.rail_color)
cr.rectangle(-1, -1, 2, 2)
cr.fill()
cr.set_source_rgb(
*(SENSOR_ACTIVATED if self.activated else SENSOR_NORMAL))
cr.arc(0, 0, 0.8, 0, math.tau)
cr.fill()
def draw_squares(self, cr: cairo.Context, color=colors[2]):
cr.set_line_width(self.lw)
cr.set_source_rgba(*self.lc)
nx, ny = self.normalize_coord(*np.where(self.M))
for x, y in zip(nx, ny):
nx, ny = self.normalize_coord(x, y)
cr.rectangle(x, y, self.norm_box_size[0], self.norm_box_size[1])
cr.stroke_preserve()
cr.set_source_rgba(*color)
cr.fill()
def draw_one_rect(ctx: cairo.Context, rect: PColoredRectangle) -> None:
ctx.move_to(rect.x, rect.y)
x2 = rect.x + rect.width
y2 = rect.y + rect.height
ctx.line_to(x2, rect.y)
ctx.line_to(x2, y2)
ctx.line_to(rect.x, y2)
ctx.close_path()
ctx.set_source_rgba(rect.r, rect.g, rect.b, rect.a)
ctx.fill()
class Canvas:
def __init__(self, width, height):
self.xform = lambda x, y: (x, y)
self.img = ImageSurface(FORMAT_RGB24, width, height)
self.ctx = Context(self.img)
self.ctx.move_to(0, 0)
self.ctx.line_to(width, 0)
self.ctx.line_to(width, height)
self.ctx.line_to(0, height)
self.ctx.line_to(0, 0)
self.ctx.set_source_rgb(1, 1, 1)
self.ctx.fill()
self.width = width
self.height = height
def fit(self, left, top, right, bottom):
xoff = left
yoff = top
xscale = self.width / float(right - left)
yscale = self.height / float(bottom - top)
if abs(xscale) > abs(yscale):
xscale *= abs(yscale) / abs(xscale)
elif abs(xscale) < abs(yscale):
yscale *= abs(xscale) / abs(yscale)
self.xform = lambda x, y: ((x - xoff) * xscale, (y - yoff) * yscale)
def dot(self, x, y, size=4, fill=(.5, .5, .5)):
x, y = self.xform(x, y)
self.ctx.arc(x, y, size/2., 0, 2*pi)
self.ctx.set_source_rgb(*fill)
self.ctx.fill()
def line(self, points, stroke=(.5, .5, .5), width=1):
self.ctx.move_to(*self.xform(*points[0]))
for (x, y) in points[1:]:
self.ctx.line_to(*self.xform(x, y))
self.ctx.set_source_rgb(*stroke)
self.ctx.set_line_cap(LINE_CAP_ROUND)
self.ctx.set_line_width(width)
self.ctx.stroke()
def save(self, filename):
self.img.write_to_png(filename)
def draw_alerts(self, context: cairo.Context):
# Load weather alerts
alerts = self.weather.active_alerts()
for alert in alerts:
alert["color"] = RED
# Add holidays
for holiday_date, holiday_name in holidays.items():
days_until = (holiday_date - datetime.date.today()).days
if 0 <= days_until <= 14:
alerts.append(
{
"text": holiday_name,
"subtext": (
"in %i days" % days_until if days_until != 1 else "tomorrow"
),
"color": BLUE,
}
)
# Add no alert pill if there weren't any
if not alerts:
alerts = [{"text": "No Alerts", "color": BLACK}]
top = 265
left = 5
for alert in alerts:
text = alert["text"].upper()
text_width = self.draw_text(
context,
text,
position=(0, 0),
size=20,
weight="bold",
noop=True,
)
self.draw_roundrect(context, left, top, text_width + 15, 30, 4)
context.set_source_rgb(*alert["color"])
context.fill()
left += self.draw_text(
context,
text,
position=(left + 8, top + 23),
size=20,
color=WHITE,
weight="bold",
)
if alert.get("subtext"):
subtext_width = self.draw_text(
context,
alert["subtext"],
position=(left + 20, top + 26),
size=15,
color=BLACK,
)
else:
subtext_width = 0
left += 30 + subtext_width
def on_draw(self, widget: Widget, context: cairo.Context):
self.guide_line.set_shape_from_context(context)
shape = self.guide_line.shape
self.guide_line.set_translate(shape.width + 10, shape.height + 10)
context.save()
context.set_source_rgb(1, 1, 1)
if self.guide_line.orientation == Orientation.HORIZONTAL:
context.rectangle(10, shape.height + 10, shape.width, 20)
else:
context.rectangle(shape.width + 10, 10, 20, shape.height)
context.fill()
context.restore()
super().on_draw(widget, context)
def _highlight_border(self, context: cairo.Context, row: int, col: int):
width = self._total_width
height = self._total_height
line_width = 3
row_rectangles = [
Rectangle(
Point(1, row * self.cell_height - line_width / 2),
width - 2,
line_width
),
Rectangle(
Point(1, (row + 1) * self.cell_height - line_width / 2),
width - 2,
line_width
)
]
col_rectangles = [
Rectangle(
Point(col * self.cell_width - line_width / 2, 1),
line_width,
height - 2
),
Rectangle(
Point((col + 1) * self.cell_width - line_width / 2, 1),
line_width,
height - 2
)
]
context.save()
r, g, b = self.highlight_color
context.set_source_rgba(r, g, b, .6)
for row_rectangle in row_rectangles:
context.rectangle(row_rectangle.start.x,
row_rectangle.start.y,
row_rectangle.width,
row_rectangle.height)
context.fill()
for col_rectangle in col_rectangles:
context.rectangle(col_rectangle.start.x,
col_rectangle.start.y,
col_rectangle.width,
col_rectangle.height)
context.fill()
context.restore()
def on_draw(self, widget: Widget, context: cairo.Context):
start_x, start_y = context.get_current_point()
context.set_font_size(self.font_size)
context.move_to(0, 0)
if not self.is_shape_set:
self.set_shape_from_context(context)
shape = self.shape
start = shape.start
padding = self.padding
h = shape.height - 2 * padding
label = self.label
context.set_source_rgb(*self.background_color)
shape.draw_on_context(context)
context.fill_preserve()
context.set_line_width(1)
context.set_source_rgb(*self.label_color)
context.stroke()
if self.disabled:
context.set_source_rgba(1, 1, 1, .7)
context.move_to(start.x + padding-1,
start.y + padding + h+1)
context.show_text(label)
context.set_source_rgba(*self.label_color, .9)
else:
context.set_source_rgb(*self.label_color)
context.move_to(start.x + padding,
start.y + padding + h)
context.show_text(label)
if self.disabled:
context.set_source_rgba(1, 1, 1, .7)
context.move_to(0, 0)
shape.draw_on_context(context)
context.fill()
def renderText(self, surface,
text, y_offset, size,
shade, w=(2,3), wrap=True):
if len(text) < 1:
return
def setdesc(l, size):
l.set_font_description(
FontDescription(
self.font + " " + str(size)))
origin = Context(surface)
origin.translate(self.w * (w[1] - w[0]) /
(w[1] * 2), y_offset)
box = CairoContext(origin)
# Start laying out text
layout = box.create_layout()
setdesc(layout, size)
width = self.w * w[0] / w[1]
if wrap:
layout.set_width(width * pango.SCALE)
else:
layout.set_width(-1)
layout.set_alignment(pango.ALIGN_CENTER)
layout.set_text(text)
# Resize text to make sure it doesn't exceed width.
wi, n = layout.get_pixel_size()
if wi > width:
s = size * width / wi
setdesc(layout, s)
layout.set_width(width * pango.SCALE)
# Draw a transparent pane behind the text
origin.set_source_rgba(1, 1, 1, 0.7)
origin.rectangle(*layout.get_pixel_extents()[1])
origin.fill()
# Draw text
origin.set_source_rgb(shade, shade, shade)
box.update_layout(layout)
box.show_layout(layout)
pen.y += face.glyph.advance.y
L.flush()
return L
if __name__ == '__main__':
from PIL import Image
n_words = 200
H, W, dpi = 600, 800, 72.0
I = ImageSurface(FORMAT_A8, W, H)
ctxI = Context(I)
ctxI.rectangle(0,0,800,600)
ctxI.set_source_rgba (0.9, 0.9, 0.9, 0)
ctxI.fill()
S = random.normal(0,1,n_words)
S = (S-S.min())/(S.max()-S.min())
S = sort(1-sqrt(S))[::-1]
sizes = (12 + S*48).astype(int).tolist()
def spiral():
eccentricity = 1.5
radius = 8
step = 0.1
t = 0
while True:
t += step
yield eccentricity*radius*t*cos(t), radius*t*sin(t)
drawn_regions = Region()
def _paint_panel(self, key, width, height, panel_h):
self.db.IUD("update web_stat_panels set HEIGHT = %s where ID = %s" % (panel_h, key))
self.db.commit()
color_x_line = (0.7, 0.7, 0.7)
color_x_line_2 = (0.9, 0.9, 0.9)
color_y_line = (0.9, 0.9, 0.9)
color_y_line_date = (0.7, 0.7, 0.7)
color_border = (0.5, 0.5, 0.5)
left = 40
right = 10
bottom = 15
var_ids = "0"
series = [0, 0, 0, 0]
typ = 0
for row in self.db.select(
"select SERIES_1, SERIES_2, SERIES_3, SERIES_4, TYP " " from web_stat_panels " " where ID = " + str(key)
):
series = row
var_ids = "%s, %s, %s, %s" % row[0:4]
typ = row[4]
width, height = int(width), int(height)
if width <= 0:
width = 300
if height <= 0:
height = 150
interval = self.param("range")
delta_x = 1
if interval == "-6 hour":
delta_x = 6 * 3600
elif interval == "-12 hour":
delta_x = 12 * 3600
elif interval == "-1 day":
delta_x = 24 * 3600
elif interval == "-3 day":
delta_x = 3 * 24 * 3600
elif interval == "-7 day":
delta_x = 7 * 24 * 3600
elif interval == "-14 day":
delta_x = 14 * 24 * 3600
elif interval == "-30 day":
delta_x = 30 * 24 * 3600
elif interval == "-90 day":
delta_x = 3 * 30 * 24 * 3600
elif interval == "-180 day":
delta_x = 6 * 30 * 24 * 3600
elif interval == "-360 day":
delta_x = 12 * 30 * 24 * 3600
min_x = int(self.param("start")) - delta_x // 2
max_x = min_x + delta_x
min_x_q = min_x - delta_x # // 100
max_x_q = max_x + delta_x # // 100
max_y = -9999
min_y = 9999
# Делаем полную выборку данных. Выкидываем подозрительные точки и
# собираем статистику.
prev_vals = [-9999] * 4
chart_data = [[], [], [], []]
zoom_step = delta_x / (width * 5)
if zoom_step < 1 or typ != 0:
zoom_step = 1
x_min_max_values = []
mi_x = max_x_q
ma_x = min_x_q
tt = -100
for row in self.db.select(
"select UNIX_TIMESTAMP(CHANGE_DATE) D, MIN(VALUE) + (MAX(VALUE) - MIN(VALUE)) VALUE, VARIABLE_ID "
" from core_variable_changes "
" where VARIABLE_ID in (%s) "
" and CHANGE_DATE >= FROM_UNIXTIME(%s) "
" and CHANGE_DATE <= FROM_UNIXTIME(%s) "
" group by 3, ROUND(UNIX_TIMESTAMP(CHANGE_DATE) / %s)"
" order by 3, 1 " % (var_ids, min_x_q, max_x_q, zoom_step)
):
ind = series.index(row[2])
chart_data[ind] += [row]
if row[0] > min_x and row[0] < max_x:
max_y = max(max_y, row[1])
min_y = min(min_y, row[1])
if tt == -100:
tt = row[2]
if tt != row[2]:
v = [tt, mi_x, ma_x]
x_min_max_values += [v]
mi_x = max_x_q
ma_x = min_x_q
tt = row[2]
if row[0] < mi_x:
mi_x = row[0]
if row[0] > ma_x:
ma_x = row[0]
if tt != -1:
v = [tt, mi_x, ma_x]
x_min_max_values += [v]
# print(x_min_max_values)
# print(series)
"""
for row in self.db.select("select UNIX_TIMESTAMP(CHANGE_DATE) D, VALUE, VARIABLE_ID, ID "
" from core_variable_changes "
" where VARIABLE_ID in (" + var_ids + ") "
" and CHANGE_DATE >= FROM_UNIXTIME(%s) "
" and CHANGE_DATE <= FROM_UNIXTIME(%s) "
"order by CHANGE_DATE " % (min_x_q, max_x_q)):
"""
"""
try:
self.db.IUD("set @rn := 0")
sql = ("select UNIX_TIMESTAMP(CHANGE_DATE) D, VALUE, VARIABLE_ID, ID "
" from core_variable_changes "
" where VARIABLE_ID in (" + var_ids + ") "
" and CHANGE_DATE >= FROM_UNIXTIME(%s) "
" and CHANGE_DATE <= FROM_UNIXTIME(%s) "
"order by CHANGE_DATE " % (min_x_q, max_x_q))
for c in self.db.select("select count(*) c "
" from core_variable_changes "
" where VARIABLE_ID in (" + var_ids + ") "
" and CHANGE_DATE >= FROM_UNIXTIME(%s) "
" and CHANGE_DATE <= FROM_UNIXTIME(%s) " % (min_x_q, max_x_q)):
cou = c[0]
ccc = 1000 * 4
if cou > ccc:
sql = ("select UNIX_TIMESTAMP(CHANGE_DATE) D, VALUE, VARIABLE_ID, ID, @rn := @rn + 1 rownum "
" from core_variable_changes "
" where VARIABLE_ID in (" + var_ids + ") "
" and CHANGE_DATE >= FROM_UNIXTIME(%s) "
" and CHANGE_DATE <= FROM_UNIXTIME(%s) "
"having mod(rownum, %s) = 0 "
"order by VARIABLE_ID, CHANGE_DATE " % (min_x_q, max_x_q, math.ceil(cou / ccc)))
for row in self.db.select(sql):
ind = series.index(row[2])
prev_vals[ind] = row[1]
if abs(prev_vals[ind] - row[1]) < 10:
chart_data[ind] += [row]
if row[0] > min_x and row[0] < max_x:
max_y = max(max_y, row[1])
min_y = min(min_y, row[1])
prev_vals[ind] = row[1]
except:
pass
"""
if min_y is None or max_y is None or min_y == 9999 or max_y == -9999 or min_y == max_y:
max_y = 1
min_y = 0
min_y = math.floor(min_y)
max_y = math.ceil(max_y)
if typ == 2:
if min_y < 0 and max_y < 0:
max_y = 0
elif min_y > 0 and max_y > 0:
min_y = 0
# Определяем цвета
colors = [[1, 0, 0], [0, 0.65, 0.31], [0, 0, 1], [1, 0, 1]]
off_y = (max_y - min_y) / 10
min_y -= off_y
max_y += off_y
try:
kx = (max_x - min_x) / (width - left - right)
ky = (max_y - min_y) / (height - bottom)
if ky == 0:
ky = 1
except:
kx, ky = 1, 1
img = ImageSurface(FORMAT_ARGB32, width, height)
ctx = Context(img)
width -= right
ctx.set_line_width(1)
# Рисуем сетку
ctx.set_font_size(12)
try:
b_w, b_h = ctx.text_extents("00-00-0000")[2:4]
# Метки на оси Y
count = math.ceil(max_y) - math.ceil(min_y)
space_count = math.ceil(count / ((height - bottom) / (b_h * 1.5)))
sc = 0
for i in range(math.ceil(min_y), math.ceil(max_y)):
if sc == 0:
y = height - bottom + (min_y - i) / ky
ctx.set_source_rgb(*(color_x_line))
ctx.move_to(left, y)
ctx.line_to(width, y)
ctx.stroke()
ctx.set_source_rgb(0, 0, 0)
num = str(i)
tw, th = ctx.text_extents(num)[2:4]
ctx.move_to(left - 5 - tw, y + th // 2)
ctx.show_text(num)
sc = space_count
sc -= 1
# Метки на оси Х
x_step = 3600
if interval == "-6 hour" or interval == "-12 hour" or interval == "-1 day":
# Дополнительно метки часов
x_step = 3600
for i in range(math.ceil(min_x / x_step), math.ceil(max_x / x_step)):
x = (i * x_step - min_x) / kx + left
ctx.set_source_rgb(*(color_x_line_2))
ctx.move_to(x, 0)
ctx.line_to(x, height - bottom)
ctx.stroke()
num = datetime.datetime.fromtimestamp(i * x_step).strftime("%H")
tw, th = ctx.text_extents(num)[2:4]
ctx.move_to(x + 2, height - bottom - 3)
ctx.set_source_rgb(*(color_x_line))
ctx.show_text(num)
x_step = 3600 * 24
space_count = 1
count = math.ceil(max_x / x_step) - math.ceil(min_x / x_step)
try:
if (width / count) < b_w:
space_count = 2
except:
pass
sc = 0
tz = 3600 * 2
tx_prev = -100
for i in range(math.ceil(min_x / x_step), math.ceil(max_x / x_step) + 1):
if sc == 0:
d_i = datetime.datetime.fromtimestamp(i * x_step)
x = (i * x_step - min_x - tz) / kx + left
ctx.set_source_rgb(0, 0, 0)
num = d_i.strftime("%d-%m-%Y %H")
x -= (int(d_i.strftime("%H")) * 3600 - tz) / kx
tw, th = ctx.text_extents(num)[2:4]
tx = x - tw // 2
ctx.move_to(tx, height - bottom + th + 5)
if tx - tx_prev > tw:
ctx.show_text(num)
tx_prev = tx
ctx.set_source_rgb(*(color_y_line_date))
else:
ctx.set_source_rgb(*(color_y_line))
if x >= left and x < width:
ctx.move_to(x, 0)
ctx.line_to(x, height - bottom)
ctx.stroke()
sc = space_count
sc -= 1
except Exception as e:
pass
# Рисуем верхний и правый бордер
ctx.set_source_rgb(*color_border)
ctx.move_to(left, 0)
ctx.line_to(width, 0)
ctx.line_to(width, height - bottom)
ctx.stroke()
# Рисуем сами графики
ctx.rectangle(left, 0, width - left, height)
ctx.clip()
is_first = True
currVarID = -1
prevX = -1
if typ == 0: # Линейная
for ind in range(4):
"""
if len(chart_data[ind]) > 0:
for i in range(len(chart_data[ind]) - 1):
chart_data[ind][i] = list(chart_data[ind][i])
r1 = chart_data[ind][i]
r2 = chart_data[ind][i + 1]
chart_data[ind][i][0] += (r2[0] - r1[0]) / 2
chart_data[ind][i][1] += (r2[1] - r1[1]) / 2
"""
ctx.set_source_rgb(*colors[ind])
is_first = True
for row in chart_data[ind]:
x = (row[0] - min_x) / kx + left
y = height - bottom - (row[1] - min_y) / ky
if is_first:
ctx.move_to(x, y)
else:
if row[0] - prevX > 10000:
ctx.move_to(x, y)
else:
ctx.line_to(x, y)
prevX = row[0]
is_first = False
ctx.stroke()
elif typ == 1: # Точечная
for ind in range(4):
if chart_data[ind]:
ctx.set_source_rgb(*colors[ind])
for row in chart_data[ind]:
x = (row[0] - min_x) / kx + left
y = height - bottom - (row[1] - min_y) / ky
ctx.rectangle(x - 3, y - 3, 6, 6)
ctx.fill()
elif typ == 2: # Столбчатая
cy = height - bottom - (-min_y) / ky
for ind in range(4):
for row in chart_data[ind]:
if currVarID != row[2]:
ctx.fill()
for i in range(4):
if series[i] == row[2]:
ctx.set_source_rgb(*colors[i])
x = (row[0] - min_x) / kx + left
y = height - bottom - (row[1] - min_y) / ky
ctx.rectangle(x - 5, y, 10, cy - y)
currVarID = row[2]
ctx.fill()
else: # Линейчастая
# one_vals = self._get_one_val(series, min_x_q, max_x_q)
one_vals = self._get_one_val(series, x_min_max_values, min_x_q, max_x_q)
for ind in range(4):
if series[ind]:
is_now = True
for r in one_vals[ind]:
if r[4] == 1:
chart_data[ind].insert(0, r)
else:
chart_data[ind] += [r]
is_now = False
if is_now:
if len(chart_data[ind]) > 0:
r = list(chart_data[ind][len(chart_data[ind]) - 1])
r[0] = datetime.datetime.now().timestamp()
chart_data[ind] += [r]
color = colors[ind]
color_fill = color.copy()
color_fill += [0.3]
is_first = True
y0 = height - bottom + min_y / ky
for row in chart_data[ind]:
x = (row[0] - min_x) / kx + left
y = height - bottom - (row[1] - min_y) / ky
if is_first:
is_first = False
else:
ctx.set_source_rgb(*color)
ctx.move_to(prevX, prevY)
ctx.line_to(x, prevY)
ctx.line_to(x, y)
ctx.stroke()
ctx.set_source_rgba(*color_fill)
rx, ry, rw, rh = prevX, y0, x - prevX, prevY - y0
ctx.rectangle(rx, ry, rw, rh)
ctx.fill()
prevX, prevY = x, y
# Рисуем оси
ctx.set_source_rgb(0, 0, 0)
ctx.move_to(left, 0)
ctx.line_to(left, height - bottom)
ctx.line_to(width, height - bottom)
ctx.stroke()
# ---------------------------
del ctx
byt = BytesIO()
img.write_to_png(byt)
byt.seek(0)
return byt.read()
def on_draw(self, widget: Widget, context: cairo.Context):
self.min_size = 200, 150
super().on_draw(widget, context)
context.save()
context.set_font_size(self.font_size)
if self._table_extents is None:
self._update_table_extents(context)
skip = max(self.skip, 0)
how_many = self.how_many
table_extents = self._table_extents
title_extents = self._table_extents.title_extents
expected_height = title_extents.total_height + self.margin
entries = self.entries
base = skip
up_to = skip
over = False
while up_to < len(entries) and not over:
expected_height += table_extents[up_to].total_height
over = expected_height >= self._max_height
if not over:
up_to += 1
while base > 0 and not over:
expected_height += table_extents[base-1].total_height
over = expected_height >= self._max_height
if not over:
base -= 1
how_many = up_to - base
skip = base
self.base = base
entries = self.entries[skip:skip + how_many]
def table_extents_iterator():
return table_extents.iter_over(
skip, how_many
)
start_x, start_y = context.get_current_point()
start_y += title_extents.total_height
h = title_extents.total_height
self.title_height = h
for (index, cell), data in zip(enumerate(title_extents), self.title):
context.save()
offset = title_extents.get_cell_data_left(index)
context.rectangle(start_x + offset, start_y - h, cell.width, 2*h)
context.clip()
context.move_to(
start_x + offset,
start_y
)
context.show_text(data)
context.restore()
# start_y += self.margin
curr_x, curr_y = start_x, start_y# + title_extents.total_height
for line_index, (line_extent, entry) in enumerate(zip(table_extents_iterator(), entries)):
h = line_extent.total_height
curr_y += h
if curr_y + self.margin >= self._max_height:
break
for (cell_index, cell), data in zip(enumerate(line_extent), entry):
context.save()
offset = line_extent.get_cell_data_left(cell_index)
context.rectangle(curr_x + offset, curr_y - h, cell.width, 2*h)
context.clip()
context.move_to(
curr_x + offset,
curr_y
)
context.show_text(data)
context.restore()
curr_x = start_x
end_x = table_extents.entries_width
curr_y = start_y + self.margin
end_y = table_extents.get_height_up_to(skip, how_many) + start_y + self.margin + 1
self.table_height = end_y
self.table_width = end_x
for line in table_extents_iterator():
context.move_to(curr_x, curr_y)
context.line_to(end_x, curr_y)
context.stroke()
curr_y += line.total_height
context.move_to(curr_x, curr_y)
context.line_to(end_x, curr_y)
context.stroke()
curr_x = start_x
curr_y = start_y - 1 + self.margin
if self._how_many > 0:
line = table_extents[0]
for cell in line:
context.move_to(curr_x, curr_y)
context.line_to(curr_x, end_y)
context.stroke()
curr_x += cell.total_width + 2 * self.margin
context.move_to(curr_x, curr_y)
context.line_to(curr_x, end_y)
context.stroke()
if self._to_highlight is not None:
r, g, b = global_constants.highlight
context.set_source_rgba(r, g, b, .6)
index = self._to_highlight
base = start_y + table_extents.get_height_up_to(skip, index) + self.margin
h = table_extents.get_height_of(skip, how_many, index)
context.rectangle(start_x, base, table_extents.entries_width, h)
context.fill()
context.restore()
self._shown = how_many
ctx.fill_preserve()
ctx.set_source_rgb(0,1,0)
ctx.stroke()
start, end = 0, 0
for i in range(len(outline.contours)):
end = outline.contours[i]
ctx.new_path()
ctx.set_source_rgb(0,0,1)
for j in range(start, end+1):
if ( Curve_Tag[j] == FT_Curve_Tag_On ):
point = outline.points[j]
ctx.move_to(point[0],point[1])
ctx.arc(point[0], point[1], 40, 0, 2 * math.pi)
ctx.fill()
ctx.new_path()
ctx.set_source_rgb(1,0,0)
for j in range(start, end+1):
if ( Curve_Tag[j] != FT_Curve_Tag_On ):
point = outline.points[j]
ctx.move_to(point[0],point[1])
ctx.arc(point[0], point[1], 10, 0, 2 * math.pi)
ctx.fill()
points = outline.points[start:end+1]
points.append(points[0])
tags = outline.tags[start:end+1]
tags.append(tags[0])
