refactor add_commands() out into commands module

1 files changed, 0 insertions, 130 deletions

diff --git a/lib/svg/realistic_rendering.py b/lib/svg/realistic_rendering.py
deleted file mode 100644
index 73da3a09..00000000
--- a/lib/svg/realistic_rendering.py
+++ /dev/null
@@ -1,130 +0,0 @@
-import simplepath
-import math
-
-from .units import PIXELS_PER_MM
-from ..utils import Point
-
-# The stitch vector path looks like this:
-#  _______
-# (_______)
-#
-# It's 0.32mm high, which is the approximate thickness of common machine
-# embroidery threads.
-
-# 1.216 pixels = 0.32mm
-stitch_height = 1.216
-
-# This vector path starts at the upper right corner of the stitch shape and
-# proceeds counter-clockwise.and contains a placeholder (%s) for the stitch
-# length.
-#
-# It contains two invisible "whiskers" of zero width that go above and below
-# to ensure that the SVG renderer allocates a large enough canvas area when
-# computing the gaussian blur steps.  Otherwise, we'd have to expand the
-# width and height attributes of the <filter> tag to add more buffer space.
-# The width and height are specified in multiples of the bounding box
-# size, It's the bounding box aligned with the global SVG canvas's axes, not
-# the axes of the stitch itself.  That means that having a big enough value
-# to add enough padding on the long sides of the stitch would waste a ton
-# of space on the short sides and significantly slow down rendering.
-stitch_path = "M0,0c0.4,0,0.4,0.3,0.4,0.6c0,0.3,-0.1,0.6,-0.4,0.6v0.2,-0.2h-%sc-0.4,0,-0.4,-0.3,-0.4,-0.6c0,-0.3,0.1,-0.6,0.4,-0.6v-0.2,0.2z"
-
-# This filter makes the above stitch path look like a real stitch with lighting.
-realistic_filter = """
-    <filter
-       style="color-interpolation-filters:sRGB"
-       id="realistic-stitch-filter"
-       x="-0.1"
-       width="1.2"
-       y="-0.1"
-       height="1.2">
-      <feGaussianBlur
-         stdDeviation="1.5"
-         id="feGaussianBlur1542-6"
-         in="SourceAlpha" />
-      <feComponentTransfer
-         id="feComponentTransfer1544-7"
-         result="result1">
-        <feFuncR
-           id="feFuncR1546-5"
-           type="identity" />
-        <feFuncG
-           id="feFuncG1548-3"
-           type="identity" />
-        <feFuncB
-           id="feFuncB1550-5"
-           type="identity"
-           slope="4.5300000000000002" />
-        <feFuncA
-           id="feFuncA1552-6"
-           type="gamma"
-           slope="0.14999999999999999"
-           intercept="0"
-           amplitude="3.1299999999999999"
-           offset="-0.33000000000000002" />
-      </feComponentTransfer>
-      <feComposite
-         in2="SourceAlpha"
-         id="feComposite1558-2"
-         operator="in" />
-      <feGaussianBlur
-         stdDeviation="0.089999999999999997"
-         id="feGaussianBlur1969" />
-      <feMorphology
-         id="feMorphology1971"
-         operator="dilate"
-         radius="0.10000000000000001" />
-      <feSpecularLighting
-         id="feSpecularLighting1973"
-         result="result2"
-         specularConstant="0.70899999"
-         surfaceScale="30">
-        <fePointLight
-           id="fePointLight1975"
-           z="10" />
-      </feSpecularLighting>
-      <feGaussianBlur
-         stdDeviation="0.040000000000000001"
-         id="feGaussianBlur1979" />
-      <feComposite
-         in2="SourceGraphic"
-         id="feComposite1977"
-         operator="arithmetic"
-         k2="1"
-         k3="1"
-         result="result3"
-         k1="0"
-         k4="0" />
-      <feComposite
-         in2="SourceAlpha"
-         id="feComposite1981"
-         operator="in" />
-    </filter>
-"""
-
-
-def realistic_stitch(start, end):
-    """Generate a stitch vector path given a start and end point."""
-
-    end = Point(*end)
-    start = Point(*start)
-
-    stitch_length = (end - start).length()
-    stitch_center = (end + start) / 2.0
-    stitch_direction = (end - start)
-    stitch_angle = math.atan2(stitch_direction.y, stitch_direction.x)
-
-    stitch_length = max(0, stitch_length - 0.2 * PIXELS_PER_MM)
-
-    # create the path by filling in the length in the template
-    path = simplepath.parsePath(stitch_path % stitch_length)
-
-    # rotate the path to match the stitch
-    rotation_center_x = -stitch_length / 2.0
-    rotation_center_y = stitch_height / 2.0
-    simplepath.rotatePath(path, stitch_angle, cx=rotation_center_x, cy=rotation_center_y)
-
-    # move the path to the location of the stitch
-    simplepath.translatePath(path, stitch_center.x - rotation_center_x, stitch_center.y - rotation_center_y)
-
-    return simplepath.formatPath(path)