def render(self, width, height, st, at):
color = self.color or self.style.color
rv = Render(width, height)
if color is None or width <= 0 or height <= 0:
return rv
SIZE = 10
si = renpy.display.im.SolidImage(color, SIZE, SIZE)
sr = render(si, SIZE, SIZE, st, at)
rv.forward = Matrix2D(1.0 * SIZE / width, 0, 0, 1.0 * SIZE / height)
rv.reverse = Matrix2D(1.0 * width / SIZE, 0, 0, 1.0 * height / SIZE)
rv.blit(sr, (0, 0))
return rv
def render(self, width, height, st, at):
color = self.color or self.style.color
rv = Render(width, height)
if color is None or width <= 0 or height <= 0:
return rv
SIZE = 10
if width < SIZE or height < SIZE:
tex = renpy.display.draw.solid_texture(width, height, color)
else:
tex = renpy.display.draw.solid_texture(SIZE, SIZE, color)
rv.forward = Matrix2D(1.0 * SIZE / width, 0, 0, 1.0 * SIZE / height)
rv.reverse = Matrix2D(1.0 * width / SIZE, 0, 0, 1.0 * height / SIZE)
rv.blit(tex, (0, 0))
return rv
def draw(x0, x1, y0, y1):
# Compute the coordinates of the left, right, top, and
# bottom sides of the region, for both the source and
# destination surfaces.
# left side.
if x0 >= 0:
dx0 = x0
sx0 = x0
else:
dx0 = dw + x0
sx0 = sw + x0
# right side.
if x1 > 0:
dx1 = x1
sx1 = x1
else:
dx1 = dw + x1
sx1 = sw + x1
# top side.
if y0 >= 0:
dy0 = y0
sy0 = y0
else:
dy0 = dh + y0
sy0 = sh + y0
# bottom side
if y1 > 0:
dy1 = y1
sy1 = y1
else:
dy1 = dh + y1
sy1 = sh + y1
# Quick exit.
if sx0 == sx1 or sy0 == sy1:
return
# Compute sizes.
csw = sx1 - sx0
csh = sy1 - sy0
cdw = dx1 - dx0
cdh = dy1 - dy0
if csw <= 0 or csh <= 0 or cdh <= 0 or cdw <= 0:
return
# Get a subsurface.
cr = crend.subsurface((sx0, sy0, csw, csh))
# Scale or tile if we have to.
if csw != cdw or csh != cdh:
if self.tile:
newcr = Render(cdw, cdh)
newcr.xclipping = True
newcr.yclipping = True
for x in xrange(0, cdw, csw):
for y in xrange(0, cdh, csh):
newcr.blit(cr, (x, y))
cr = newcr
else:
newcr = Render(cdw, cdh)
newcr.forward = Matrix2D(1.0 * csw / cdw, 0, 0, 1.0 * csh / cdh)
newcr.reverse = Matrix2D(1.0 * cdw / csw, 0, 0, 1.0 * cdh / csh)
newcr.blit(cr, (0, 0))
cr = newcr
# Blit.
rv.blit(cr, (dx0, dy0))
return
def draw(x0, x1, y0, y1):
# Compute the coordinates of the left, right, top, and
# bottom sides of the region, for both the source and
# destination surfaces.
# left side.
if x0 >= 0:
dx0 = x0
sx0 = x0
else:
dx0 = dw + x0
sx0 = sw + x0
# right side.
if x1 > 0:
dx1 = x1
sx1 = x1
else:
dx1 = dw + x1
sx1 = sw + x1
# top side.
if y0 >= 0:
dy0 = y0
sy0 = y0
else:
dy0 = dh + y0
sy0 = sh + y0
# bottom side
if y1 > 0:
dy1 = y1
sy1 = y1
else:
dy1 = dh + y1
sy1 = sh + y1
# Quick exit.
if sx0 == sx1 or sy0 == sy1:
return
# Compute sizes.
csw = sx1 - sx0
csh = sy1 - sy0
cdw = dx1 - dx0
cdh = dy1 - dy0
if csw <= 0 or csh <= 0 or cdh <= 0 or cdw <= 0:
return
# Get a subsurface.
cr = crend.subsurface((sx0, sy0, csw, csh))
# Scale or tile if we have to.
if csw != cdw or csh != cdh:
if self.tile:
newcr = Render(cdw, cdh)
newcr.clipping = True
for x in xrange(0, cdw, csw):
for y in xrange(0, cdh, csh):
newcr.blit(cr, (x, y))
cr = newcr
else:
newcr = Render(cdw, cdh)
newcr.forward = Matrix2D(1.0 * csw / cdw, 0, 0, 1.0 * csh / cdh)
newcr.reverse = Matrix2D(1.0 * cdw / csw, 0, 0, 1.0 * cdh / csh)
newcr.blit(cr, (0, 0))
cr = newcr
# Blit.
rv.blit(cr, (dx0, dy0))
return
def draw(x0, x1, y0, y1):
# Compute the coordinates of the left, right, top, and
# bottom sides of the region, for both the source and
# destination surfaces.
# left side.
if x0 >= 0:
dx0 = x0
sx0 = x0
else:
dx0 = dw + x0
sx0 = sw + x0
# right side.
if x1 > 0:
dx1 = x1
sx1 = x1
else:
dx1 = dw + x1
sx1 = sw + x1
# top side.
if y0 >= 0:
dy0 = y0
sy0 = y0
else:
dy0 = dh + y0
sy0 = sh + y0
# bottom side
if y1 > 0:
dy1 = y1
sy1 = y1
else:
dy1 = dh + y1
sy1 = sh + y1
# Quick exit.
if sx0 == sx1 or sy0 == sy1:
return
# Compute sizes.
csw = sx1 - sx0
csh = sy1 - sy0
cdw = dx1 - dx0
cdh = dy1 - dy0
if csw <= 0 or csh <= 0 or cdh <= 0 or cdw <= 0:
return
# Get a subsurface.
cr = crend.subsurface((sx0, sy0, csw, csh))
# Scale or tile if we have to.
if csw != cdw or csh != cdh:
if self.tile:
ctw, cth = cdw, cdh
xtiles = max(1, cdw // csw + (1 if cdw % csw else 0))
ytiles = max(1, cdh // csh + (1 if cdh % csh else 0))
if cdw % csw or cdh % csh:
# Area is not an exact integer number of tiles
if self.tile == "integer":
if cdw % csw / float(csw) < self.tile_ratio:
xtiles = max(1, xtiles - 1)
if cdh % csh / float(csh) < self.tile_ratio:
ytiles = max(1, ytiles - 1)
# Set size of the used tiles (ready to scale)
ctw, cth = csw * xtiles, csh * ytiles
newcr = Render(ctw, cth)
newcr.xclipping = True
newcr.yclipping = True
for x in range(0, xtiles):
for y in range(0, ytiles):
newcr.blit(cr, (x * csw, y * csh))
csw, csh = ctw, cth
cr = newcr
if csw != cdw or csh != cdh:
# Subsurface needs scaling
newcr = Render(cdw, cdh)
newcr.forward = Matrix2D(1.0 * csw / cdw, 0, 0,
1.0 * csh / cdh)
newcr.reverse = Matrix2D(1.0 * cdw / csw, 0, 0,
1.0 * cdh / csh)
newcr.blit(cr, (0, 0))
cr = newcr
# Blit.
rv.blit(cr, (dx0, dy0))
return
