def doTasks():
"""Execute the commands stored in the lists.
The lists are `itinerary`, `commitlist` and `afteritinerary`.
"""
if _DEBUG:
_msg("Debug: doing delayed tasks.\n"
"itinerary: {0}\n"
"commitlist: {1}\n"
"afteritinerary: {2}\n".format(todo.itinerary,
todo.commitlist,
todo.afteritinerary))
try:
for f, arg in todo.itinerary:
try:
if _DEBUG_inner:
_msg("Debug: executing.\n" "function: {}\n".format(f))
if arg or (arg is False):
f(arg)
else:
f()
except Exception:
_log(traceback.format_exc())
wrn = ("ToDo.doTasks, Unexpected error:\n"
"{0}\n"
"in {1}({2})".format(sys.exc_info()[0], f, arg))
_wrn(wrn)
except ReferenceError:
_wrn("Debug: ToDo.doTasks: "
"queue contains a deleted object, skipping")
todo.itinerary = []
if todo.commitlist:
for name, func in todo.commitlist:
if six.PY2:
if isinstance(name, six.text_type):
name = name.encode("utf8")
if _DEBUG_inner:
_msg("Debug: committing.\n" "name: {}\n".format(name))
try:
name = str(name)
FreeCAD.ActiveDocument.openTransaction(name)
if isinstance(func, list):
for string in func:
FreeCADGui.doCommand(string)
else:
func()
FreeCAD.ActiveDocument.commitTransaction()
except Exception:
_log(traceback.format_exc())
wrn = ("ToDo.doTasks, Unexpected error:\n"
"{0}\n"
"in {1}".format(sys.exc_info()[0], func))
_wrn(wrn)
# Restack Draft screen widgets after creation
if hasattr(FreeCADGui, "Snapper"):
FreeCADGui.Snapper.restack()
todo.commitlist = []
for f, arg in todo.afteritinerary:
try:
if _DEBUG_inner:
_msg("Debug: executing after.\n"
"function: {}\n".format(f))
if arg:
f(arg)
else:
f()
except Exception:
_log(traceback.format_exc())
wrn = ("ToDo.doTasks, Unexpected error:\n"
"{0}\n"
"in {1}({2})".format(sys.exc_info()[0], f, arg))
_wrn(wrn)
todo.afteritinerary = []
def get_svg(obj,
scale=1, linewidth=0.35, fontsize=12,
fillstyle="shape color", direction=None, linestyle=None,
color=None, linespacing=None, techdraw=False, rotation=0,
fillspaces=False, override=True):
"""Return a string containing an SVG representation of the object.
Paramaeters
-----------
scale: float, optional
It defaults to 1.
It allows scaling line widths down, so they are resolution-independent.
linewidth: float, optional
It defaults to 0.35.
fontsize: float, optional
It defaults to 12, which is interpreted as `pt` unit (points).
It is used if the given object contains any text.
fillstyle: str, optional
It defaults to 'shape color'.
direction: Base::Vector3, optional
It defaults to `None`.
It is an arbitrary projection vector or a `WorkingPlane.Plane`
instance.
linestyle: optional
It defaults to `None`.
color: optional
It defaults to `None`.
linespacing: float, optional
It defaults to `None`.
techdraw: bool, optional
It defaults to `False`.
If it is `True`, it sets some options for generating SVG strings
for displaying inside TechDraw.
rotation: float, optional
It defaults to 0.
fillspaces: bool, optional
It defaults to `False`.
override: bool, optional
It defaults to `True`.
"""
# If this is a group, recursively call this function to gather
# all the SVG strings from the contents of the group
if hasattr(obj, "isDerivedFrom"):
if (obj.isDerivedFrom("App::DocumentObjectGroup")
or utils.get_type(obj) == "Layer"):
svg = ""
for child in obj.Group:
svg += get_svg(child,
scale, linewidth, fontsize,
fillstyle, direction, linestyle,
color, linespacing, techdraw,
rotation, fillspaces, override)
return svg
pathdata = []
svg = ""
linewidth = float(linewidth)/scale
if not override:
if hasattr(obj, "ViewObject") and hasattr(obj.ViewObject, "LineWidth"):
if hasattr(obj.ViewObject.LineWidth, "Value"):
lw = obj.ViewObject.LineWidth.Value
else:
lw = obj.ViewObject.LineWidth
linewidth = lw * linewidth
fontsize = (float(fontsize)/scale)/2
if linespacing:
linespacing = float(linespacing)/scale
else:
linespacing = 0.5
# print(obj.Label, "line spacing", linespacing, "scale", scale)
# The number of times the dots are smaller than the arrow size
pointratio = 0.75
plane = None
if direction:
if isinstance(direction, App.Vector):
if direction != App.Vector(0, 0, 0):
plane = WorkingPlane.plane()
plane.alignToPointAndAxis_SVG(App.Vector(0, 0, 0),
direction.negative().negative(),
0)
else:
raise ValueError("'direction' cannot be: Vector(0, 0, 0)")
elif isinstance(direction, WorkingPlane.plane):
plane = direction
stroke = "#000000"
if color and override:
if "#" in color:
stroke = color
else:
stroke = utils.get_rgb(color)
elif App.GuiUp:
# find print color
pc = get_print_color(obj)
if pc:
stroke = utils.get_rgb(pc)
# get line color
elif hasattr(obj, "ViewObject"):
if hasattr(obj.ViewObject, "LineColor"):
stroke = utils.get_rgb(obj.ViewObject.LineColor)
elif hasattr(obj.ViewObject, "TextColor"):
stroke = utils.get_rgb(obj.ViewObject.TextColor)
lstyle = "none"
if override:
lstyle = get_line_style(linestyle, scale)
else:
if hasattr(obj, "ViewObject") and hasattr(obj.ViewObject, "DrawStyle"):
lstyle = get_line_style(obj.ViewObject.DrawStyle, scale)
if not obj:
pass
elif isinstance(obj, Part.Shape):
svg = _svg_shape(svg, obj, plane,
fillstyle, pathdata, stroke, linewidth, lstyle)
elif utils.get_type(obj) in ["Dimension", "LinearDimension"]:
svg = _svg_dimension(obj, plane, scale, linewidth, fontsize,
stroke, pointratio, techdraw, rotation)
elif utils.get_type(obj) == "AngularDimension":
if not App.GuiUp:
_wrn("Export of dimensions to SVG is only available in GUI mode")
if App.GuiUp:
if obj.ViewObject.Proxy:
if hasattr(obj.ViewObject.Proxy, "circle"):
prx = obj.ViewObject.Proxy
# drawing arc
fill = "none"
if obj.ViewObject.DisplayMode == "2D":
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth,
lstyle, fill_opacity=None,
edges=[prx.circle])
else:
if hasattr(prx, "circle1"):
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth,
lstyle, fill_opacity=None,
edges=[prx.circle1])
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth,
lstyle, fill_opacity=None,
edges=[prx.circle2])
else:
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth,
lstyle, fill_opacity=None,
edges=[prx.circle])
# drawing arrows
if hasattr(obj.ViewObject, "ArrowType"):
p2 = get_proj(prx.p2, plane)
p3 = get_proj(prx.p3, plane)
arrowsize = obj.ViewObject.ArrowSize.Value/pointratio
arrowlength = 4*obj.ViewObject.ArrowSize.Value
_v1a = prx.circle.valueAt(prx.circle.FirstParameter
+ arrowlength)
_v1b = prx.circle.valueAt(prx.circle.FirstParameter)
_v2a = prx.circle.valueAt(prx.circle.LastParameter
- arrowlength)
_v2b = prx.circle.valueAt(prx.circle.LastParameter)
u1 = get_proj(_v1a - _v1b, plane)
u2 = get_proj(_v2a - _v2b, plane)
angle1 = -DraftVecUtils.angle(u1)
angle2 = -DraftVecUtils.angle(u2)
if hasattr(obj.ViewObject, "FlipArrows"):
if obj.ViewObject.FlipArrows:
angle1 = angle1 + math.pi
angle2 = angle2 + math.pi
svg += get_arrow(obj,
obj.ViewObject.ArrowType,
p2, arrowsize, stroke, linewidth,
angle1)
svg += get_arrow(obj,
obj.ViewObject.ArrowType,
p3, arrowsize, stroke, linewidth,
angle2)
# drawing text
if obj.ViewObject.DisplayMode == "2D":
_diff = (prx.circle.LastParameter
- prx.circle.FirstParameter)
t = prx.circle.tangentAt(prx.circle.FirstParameter
+ _diff/2.0)
t = get_proj(t, plane)
tangle = DraftVecUtils.angle(t)
if (tangle <= -math.pi/2) or (tangle > math.pi/2):
tangle = tangle + math.pi
_diff = (prx.circle.LastParameter
- prx.circle.FirstParameter)
_va = prx.circle.valueAt(prx.circle.FirstParameter
+ _diff/2.0)
tbase = get_proj(_va, plane)
_v = App.Vector(0, 2.0/scale, 0)
tbase = tbase + DraftVecUtils.rotate(_v, tangle)
# print(tbase)
else:
tangle = 0
tbase = get_proj(prx.tbase, plane)
svg += svgtext.get_text(plane, techdraw,
stroke, fontsize,
obj.ViewObject.FontName,
tangle, tbase, prx.string)
elif utils.get_type(obj) == "Label":
if getattr(obj.ViewObject, "Line", True):
# Some Labels may have no Line property
# Draw multisegment line
proj_points = list(map(lambda x: get_proj(x, plane), obj.Points))
path_dir_list = [format_point(proj_points[0], action='M')]
path_dir_list += map(format_point, proj_points[1:])
path_dir_str = " ".join(path_dir_list)
svg_path = '<path '
svg_path += 'fill="none" '
svg_path += 'stroke="{}" '.format(stroke)
svg_path += 'stroke-width="{}" '.format(linewidth)
svg_path += 'd="{}"'.format(path_dir_str)
svg_path += '/>'
svg += svg_path
# Draw arrow.
# We are different here from 3D view
# if Line is set to 'off', no arrow is drawn
if hasattr(obj.ViewObject, "ArrowType") and len(obj.Points) >= 2:
last_segment = App.Vector(obj.Points[-1] - obj.Points[-2])
_v = get_proj(last_segment, plane)
angle = -DraftVecUtils.angle(_v) + math.pi
svg += get_arrow(obj,
obj.ViewObject.ArrowType,
proj_points[-1],
obj.ViewObject.ArrowSize.Value/pointratio,
stroke, linewidth, angle)
if not App.GuiUp:
_wrn("Export of texts to SVG is only available in GUI mode")
# print text
if App.GuiUp:
fontname = obj.ViewObject.TextFont
position = get_proj(obj.Placement.Base, plane)
rotation = obj.Placement.Rotation
justification = obj.ViewObject.TextAlignment
text = obj.Text
svg += svgtext.get_text(plane, techdraw,
stroke, fontsize, fontname,
rotation, position, text,
linespacing, justification)
elif utils.get_type(obj) in ["Annotation", "DraftText", "Text"]:
# returns an svg representation of a document annotation
if not App.GuiUp:
_wrn("Export of texts to SVG is only available in GUI mode")
if App.GuiUp:
n = obj.ViewObject.FontName
if utils.get_type(obj) == "Annotation":
p = get_proj(obj.Position, plane)
r = obj.ViewObject.Rotation.getValueAs("rad")
t = obj.LabelText
else: # DraftText (old) or Text (new, 0.19)
p = get_proj(obj.Placement.Base, plane)
r = obj.Placement.Rotation
t = obj.Text
j = obj.ViewObject.Justification
svg += svgtext.get_text(plane, techdraw,
stroke, fontsize, n,
r, p, t,
linespacing, j)
elif utils.get_type(obj) == "Axis":
# returns the SVG representation of an Arch Axis system
if not App.GuiUp:
_wrn("Export of axes to SVG is only available in GUI mode")
if App.GuiUp:
vobj = obj.ViewObject
lorig = lstyle
fill = 'none'
rad = vobj.BubbleSize.Value/2
n = 0
for e in obj.Shape.Edges:
lstyle = lorig
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth, lstyle,
fill_opacity=None,
edges=[e])
lstyle = "none"
pos = ["Start"]
if hasattr(vobj, "BubblePosition"):
if vobj.BubblePosition == "Both":
pos = ["Start", "End"]
else:
pos = [vobj.BubblePosition]
for p in pos:
if p == "Start":
p1 = e.Vertexes[0].Point
p2 = e.Vertexes[1].Point
else:
p1 = e.Vertexes[1].Point
p2 = e.Vertexes[0].Point
dv = p2.sub(p1)
dv.normalize()
center = p2.add(dv.scale(rad, rad, rad))
svg += get_circle(plane,
fill, stroke, linewidth, lstyle,
Part.makeCircle(rad, center))
if (hasattr(vobj.Proxy, "bubbletexts")
and len(vobj.Proxy.bubbletexts) >= n):
bubb = vobj.Proxy.bubbletexts
svg += '<text '
svg += 'fill="{}" '.format(stroke)
svg += 'font-size="{}" '.format(rad)
svg += 'style="text-anchor:middle;'
svg += 'text-align:center;'
svg += 'font-family: sans;" '
svg += 'transform="'
svg += 'translate({},{}) '.format(center.x + rad/4.0,
center.y - rad/3.0)
svg += 'scale(1,-1)"> '
svg += '<tspan>'
svg += bubb[n].string.getValues()[0]
svg += '</tspan>\n'
svg += '</text>\n'
n += 1
lstyle = lorig
elif utils.get_type(obj) == "Pipe":
fill = stroke
if obj.Base and obj.Diameter:
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth, lstyle,
fill_opacity=None,
edges=obj.Base.Shape.Edges)
for f in obj.Shape.Faces:
if len(f.Edges) == 1:
if isinstance(f.Edges[0].Curve, Part.Circle):
svg += get_circle(plane,
fill, stroke, linewidth, lstyle,
f.Edges[0])
elif utils.get_type(obj) == "Rebar":
fill = "none"
basewire = obj.Base.Shape.Wires[0].copy()
# Not applying rounding because the results are not correct
# if hasattr(obj, "Rounding") and obj.Rounding:
# basewire = DraftGeomUtils.filletWire(
# basewire, obj.Rounding * obj.Diameter.Value
# )
wires = []
for placement in obj.PlacementList:
wire = basewire.copy()
wire.Placement = placement.multiply(basewire.Placement)
wires.append(wire)
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth, lstyle,
fill_opacity=None,
wires=wires)
elif utils.get_type(obj) == "PipeConnector":
pass
elif utils.get_type(obj) == "Space":
fill_opacity = 1
# returns an SVG fragment for the text of a space
if not App.GuiUp:
_wrn("Export of spaces to SVG is only available in GUI mode")
if App.GuiUp:
vobj = obj.ViewObject
if fillspaces and hasattr(obj, "Proxy"):
if not hasattr(obj.Proxy, "face"):
obj.Proxy.getArea(obj, notouch=True)
if hasattr(obj.Proxy, "face"):
# setting fill
if App.GuiUp:
fill = utils.get_rgb(vobj.ShapeColor,
testbw=False)
fill_opacity = 1 - vobj.Transparency / 100.0
else:
fill = "#888888"
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth,
lstyle, fill_opacity=fill_opacity,
wires=[obj.Proxy.face.OuterWire])
c = utils.get_rgb(vobj.TextColor)
n = vobj.FontName
a = 0
if rotation != 0:
a = math.radians(rotation)
t1 = vobj.Proxy.text1.string.getValues()
t2 = vobj.Proxy.text2.string.getValues()
scale = vobj.FirstLine.Value/vobj.FontSize.Value
f1 = fontsize * scale
if round(plane.axis.getAngle(App.Vector(0,0,1)),2) not in [0,3.14]:
# if not in XY view, place the label at center
p2 = obj.Shape.CenterOfMass
else:
_v = vobj.Proxy.coords.translation.getValue().getValue()
p2 = obj.Placement.multVec(App.Vector(_v))
_h = vobj.Proxy.header.translation.getValue().getValue()
lspc = App.Vector(_h)
p1 = p2 + lspc
j = vobj.TextAlign
t3 = svgtext.get_text(plane, techdraw,
c, f1, n,
a, get_proj(p1, plane), t1,
linespacing, j, flip=True)
svg += t3
if t2:
ofs = App.Vector(0, -lspc.Length, 0)
if a:
Z = App.Vector(0, 0, 1)
ofs = App.Rotation(Z, -rotation).multVec(ofs)
t4 = svgtext.get_text(plane, techdraw,
c, fontsize, n,
a, get_proj(p1, plane).add(ofs), t2,
linespacing, j, flip=True)
svg += t4
elif hasattr(obj, 'Shape'):
# In the past we tested for a Part Feature
# elif obj.isDerivedFrom('Part::Feature'):
#
# however, this doesn't work for App::Links; instead we
# test for a 'Shape'. All Part::Features should have a Shape,
# and App::Links can have one as well.
if obj.Shape.isNull():
return ''
fill_opacity = 1
# setting fill
if obj.Shape.Faces:
if App.GuiUp:
try:
m = obj.ViewObject.DisplayMode
except AttributeError:
m = None
vobj = obj.ViewObject
if m != "Wireframe":
if fillstyle == "shape color":
fill = utils.get_rgb(vobj.ShapeColor,
testbw=False)
fill_opacity = 1 - vobj.Transparency / 100.0
elif fillstyle in ("none",None):
fill = "none"
else:
fill = 'url(#'+fillstyle+')'
svg += get_pattern(fillstyle)
else:
fill = "none"
else:
fill = "#888888"
else:
fill = 'none'
if len(obj.Shape.Vertexes) > 1:
wiredEdges = []
if obj.Shape.Faces:
for i, f in enumerate(obj.Shape.Faces):
# place outer wire first
wires = [f.OuterWire]
wires.extend([w for w in f.Wires if w.hashCode() != f.OuterWire.hashCode()])
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth, lstyle,
fill_opacity=fill_opacity,
wires=f.Wires,
pathname='%s_f%04d' % (obj.Name, i))
wiredEdges.extend(f.Edges)
else:
for i, w in enumerate(obj.Shape.Wires):
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth, lstyle,
fill_opacity=fill_opacity,
edges=w.Edges,
pathname='%s_w%04d' % (obj.Name, i))
wiredEdges.extend(w.Edges)
if len(wiredEdges) != len(obj.Shape.Edges):
for i, e in enumerate(obj.Shape.Edges):
if DraftGeomUtils.findEdge(e, wiredEdges) is None:
svg += get_path(obj, plane,
fill, pathdata, stroke, linewidth,
lstyle, fill_opacity=fill_opacity,
edges=[e],
pathname='%s_nwe%04d' % (obj.Name, i))
else:
# closed circle or spline
if obj.Shape.Edges:
if isinstance(obj.Shape.Edges[0].Curve, Part.Circle):
svg = get_circle(plane,
fill, stroke, linewidth, lstyle,
obj.Shape.Edges[0])
else:
svg = get_path(obj, plane,
fill, pathdata, stroke, linewidth, lstyle,
fill_opacity=fill_opacity,
edges=obj.Shape.Edges)
if (App.GuiUp
and hasattr(obj.ViewObject, "EndArrow")
and obj.ViewObject.EndArrow
and hasattr(obj.ViewObject, "ArrowType")
and len(obj.Shape.Vertexes) > 1):
p1 = get_proj(obj.Shape.Vertexes[-1].Point, plane)
p2 = get_proj(obj.Shape.Vertexes[-2].Point, plane)
angle = -DraftVecUtils.angle(p2 - p1)
arrowsize = obj.ViewObject.ArrowSize.Value/pointratio
svg += get_arrow(obj,
obj.ViewObject.ArrowType,
p1, arrowsize, stroke, linewidth, angle)
# techdraw expects bottom-to-top coordinates
if techdraw:
svg = '<g transform ="scale(1,-1)">\n ' + svg + '</g>\n'
return svg
def _create_objects(doc=None,
font_file="/usr/share/fonts/truetype/dejavu/DejaVuSans.ttf"
):
"""Create the objects of the test file.
Parameters
----------
doc: App::Document, optional
It defaults to `None`, which then defaults to the current
active document, or creates a new document.
"""
if not doc:
doc = App.activeDocument()
if not doc:
doc = App.newDocument()
# Line, wire, and fillet
_msg(16 * "-")
_msg("Line")
Draft.make_line(Vector(0, 0, 0), Vector(500, 500, 0))
t_xpos = -50
t_ypos = -200
_set_text(["Line"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Wire")
Draft.make_wire(
[Vector(500, 0, 0),
Vector(1000, 500, 0),
Vector(1000, 1000, 0)])
t_xpos += 500
_set_text(["Wire"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Fillet")
line_h_1 = Draft.make_line(Vector(1500, 0, 0), Vector(1500, 500, 0))
line_h_2 = Draft.make_line(Vector(1500, 500, 0), Vector(2000, 500, 0))
if App.GuiUp:
line_h_1.ViewObject.DrawStyle = "Dotted"
line_h_2.ViewObject.DrawStyle = "Dotted"
doc.recompute()
Draft.make_fillet([line_h_1, line_h_2], 400)
t_xpos += 900
_set_text(["Fillet"], Vector(t_xpos, t_ypos, 0))
# Circle, arc, arc by 3 points
_msg(16 * "-")
_msg("Circle")
circle = Draft.make_circle(350)
circle.Placement.Base = Vector(2500, 500, 0)
t_xpos += 1050
_set_text(["Circle"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Circular arc")
arc = Draft.make_circle(350, startangle=0, endangle=100)
arc.Placement.Base = Vector(3200, 500, 0)
t_xpos += 800
_set_text(["Circular arc"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Circular arc 3 points")
Draft.make_arc_3points(
[Vector(4600, 0, 0),
Vector(4600, 800, 0),
Vector(4000, 1000, 0)])
t_xpos += 600
_set_text(["Circular arc 3 points"], Vector(t_xpos, t_ypos, 0))
# Ellipse, polygon, rectangle
_msg(16 * "-")
_msg("Ellipse")
ellipse = Draft.make_ellipse(500, 300)
ellipse.Placement.Base = Vector(5500, 250, 0)
t_xpos += 1600
_set_text(["Ellipse"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Polygon")
polygon = Draft.make_polygon(5, 250)
polygon.Placement.Base = Vector(6500, 500, 0)
t_xpos += 950
_set_text(["Polygon"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Rectangle")
rectangle = Draft.make_rectangle(500, 1000, 0)
rectangle.Placement.Base = Vector(7000, 0, 0)
t_xpos += 650
_set_text(["Rectangle"], Vector(t_xpos, t_ypos, 0))
# Text
_msg(16 * "-")
_msg("Text")
text = Draft.make_text(["Testing", "text"], Vector(7700, 500, 0))
if App.GuiUp:
text.ViewObject.FontSize = 100
t_xpos += 700
_set_text(["Text"], Vector(t_xpos, t_ypos, 0))
# Linear dimension
_msg(16 * "-")
_msg("Linear dimension")
line = Draft.make_wire([Vector(8700, 200, 0), Vector(8700, 1200, 0)])
dimension = Draft.make_linear_dimension(Vector(8600, 200, 0),
Vector(8600, 1000, 0),
Vector(8400, 750, 0))
if App.GuiUp:
dimension.ViewObject.ArrowSize = 15
dimension.ViewObject.ExtLines = 1000
dimension.ViewObject.ExtOvershoot = 100
dimension.ViewObject.DimOvershoot = 50
dimension.ViewObject.FontSize = 100
dimension.ViewObject.ShowUnit = False
doc.recompute()
dim_obj = Draft.make_linear_dimension_obj(line, 1, 2, Vector(9000, 750, 0))
if App.GuiUp:
dim_obj.ViewObject.ArrowSize = 15
dim_obj.ViewObject.ArrowType = "Arrow"
dim_obj.ViewObject.ExtLines = 100
dim_obj.ViewObject.ExtOvershoot = 100
dim_obj.ViewObject.DimOvershoot = 50
dim_obj.ViewObject.FontSize = 100
dim_obj.ViewObject.ShowUnit = False
t_xpos += 680
_set_text(["Dimension"], Vector(t_xpos, t_ypos, 0))
# Radius and diameter dimension
_msg(16 * "-")
_msg("Radius and diameter dimension")
arc_h = Draft.make_circle(500, startangle=0, endangle=90)
arc_h.Placement.Base = Vector(9500, 0, 0)
doc.recompute()
dimension_r = Draft.make_radial_dimension_obj(arc_h, 1, "radius",
Vector(9750, 200, 0))
if App.GuiUp:
dimension_r.ViewObject.ArrowSize = 15
dimension_r.ViewObject.FontSize = 100
dimension_r.ViewObject.ShowUnit = False
arc_h2 = Draft.make_circle(450, startangle=-120, endangle=80)
arc_h2.Placement.Base = Vector(10000, 1000, 0)
doc.recompute()
dimension_d = Draft.make_radial_dimension_obj(arc_h2, 1, "diameter",
Vector(10750, 900, 0))
if App.GuiUp:
dimension_d.ViewObject.ArrowSize = 15
dimension_d.ViewObject.FontSize = 100
dimension_d.ViewObject.ShowUnit = False
t_xpos += 950
_set_text(["Radius dimension", "Diameter dimension"],
Vector(t_xpos, t_ypos, 0))
# Angular dimension
_msg(16 * "-")
_msg("Angular dimension")
Draft.make_line(Vector(10500, 300, 0), Vector(11500, 1000, 0))
Draft.make_line(Vector(10500, 300, 0), Vector(11500, 0, 0))
angle1 = -20
angle2 = 40
dimension_a = Draft.make_angular_dimension(Vector(10500, 300, 0),
[angle1, angle2],
Vector(11500, 300, 0))
if App.GuiUp:
dimension_a.ViewObject.ArrowSize = 15
dimension_a.ViewObject.FontSize = 100
t_xpos += 1700
_set_text(["Angle dimension"], Vector(t_xpos, t_ypos, 0))
# BSpline
_msg(16 * "-")
_msg("BSpline")
Draft.make_bspline([
Vector(12500, 0, 0),
Vector(12500, 500, 0),
Vector(13000, 500, 0),
Vector(13000, 1000, 0)
])
t_xpos += 1500
_set_text(["BSpline"], Vector(t_xpos, t_ypos, 0))
# Point
_msg(16 * "-")
_msg("Point")
point = Draft.make_point(13500, 500, 0)
if App.GuiUp:
point.ViewObject.PointSize = 10
t_xpos += 900
_set_text(["Point"], Vector(t_xpos, t_ypos, 0))
# Shapestring
_msg(16 * "-")
_msg("Shapestring")
try:
shape_string = Draft.make_shapestring("Testing", font_file, 100)
shape_string.Placement.Base = Vector(14000, 500)
except Exception:
_wrn("Shapestring could not be created")
_wrn("Possible cause: the font file may not exist")
_wrn(font_file)
rect = Draft.make_rectangle(500, 100)
rect.Placement.Base = Vector(14000, 500)
t_xpos += 600
_set_text(["Shapestring"], Vector(t_xpos, t_ypos, 0))
# Facebinder
_msg(16 * "-")
_msg("Facebinder")
box = doc.addObject("Part::Box", "Cube")
box.Length = 200
box.Width = 500
box.Height = 100
box.Placement.Base = Vector(15000, 0, 0)
if App.GuiUp:
box.ViewObject.Visibility = False
facebinder = Draft.make_facebinder([(box, ("Face1", "Face3", "Face6"))])
facebinder.Extrusion = 10
t_xpos += 780
_set_text(["Facebinder"], Vector(t_xpos, t_ypos, 0))
# Cubic bezier curve, n-degree bezier curve
_msg(16 * "-")
_msg("Cubic bezier")
Draft.make_bezcurve([
Vector(15500, 0, 0),
Vector(15578, 485, 0),
Vector(15879, 154, 0),
Vector(15975, 400, 0),
Vector(16070, 668, 0),
Vector(16423, 925, 0),
Vector(16500, 500, 0)
],
degree=3)
t_xpos += 680
_set_text(["Cubic bezier"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("N-degree bezier")
Draft.make_bezcurve([
Vector(16500, 0, 0),
Vector(17000, 500, 0),
Vector(17500, 500, 0),
Vector(17500, 1000, 0),
Vector(17000, 1000, 0),
Vector(17063, 1256, 0),
Vector(17732, 1227, 0),
Vector(17790, 720, 0),
Vector(17702, 242, 0)
])
t_xpos += 1200
_set_text(["n-Bezier"], Vector(t_xpos, t_ypos, 0))
# Label
_msg(16 * "-")
_msg("Label")
place = App.Placement(Vector(18500, 500, 0), App.Rotation())
label = Draft.make_label(target_point=Vector(18000, 0, 0),
placement=place,
custom_text="Example label",
distance=-250)
label.Text = "Testing"
if App.GuiUp:
label.ViewObject.ArrowSize = 15
label.ViewObject.TextSize = 100
doc.recompute()
t_xpos += 1200
_set_text(["Label"], Vector(t_xpos, t_ypos, 0))
# Orthogonal array and orthogonal link array
_msg(16 * "-")
_msg("Orthogonal array")
rect_h = Draft.make_rectangle(500, 500)
rect_h.Placement.Base = Vector(1500, 2500, 0)
if App.GuiUp:
rect_h.ViewObject.Visibility = False
Draft.make_ortho_array(rect_h,
Vector(600, 0, 0),
Vector(0, 600, 0),
Vector(0, 0, 0),
3,
2,
1,
use_link=False)
t_xpos = 1700
t_ypos = 2200
_set_text(["Array"], Vector(t_xpos, t_ypos, 0))
rect_h_2 = Draft.make_rectangle(500, 100)
rect_h_2.Placement.Base = Vector(1500, 5000, 0)
if App.GuiUp:
rect_h_2.ViewObject.Visibility = False
_msg(16 * "-")
_msg("Orthogonal link array")
Draft.make_ortho_array(rect_h_2,
Vector(800, 0, 0),
Vector(0, 500, 0),
Vector(0, 0, 0),
2,
4,
1,
use_link=True)
t_ypos += 2600
_set_text(["Link array"], Vector(t_xpos, t_ypos, 0))
# Polar array and polar link array
_msg(16 * "-")
_msg("Polar array")
wire_h = Draft.make_wire([
Vector(5500, 3000, 0),
Vector(6000, 3500, 0),
Vector(6000, 3200, 0),
Vector(5800, 3200, 0)
])
if App.GuiUp:
wire_h.ViewObject.Visibility = False
Draft.make_polar_array(wire_h,
8,
200,
Vector(5000, 3000, 0),
use_link=False)
t_xpos = 4600
t_ypos = 2200
_set_text(["Polar array"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Polar link array")
wire_h_2 = Draft.make_wire([
Vector(5500, 6000, 0),
Vector(6000, 6000, 0),
Vector(5800, 5700, 0),
Vector(5800, 5750, 0)
])
if App.GuiUp:
wire_h_2.ViewObject.Visibility = False
Draft.make_polar_array(wire_h_2,
8,
200,
Vector(5000, 6000, 0),
use_link=True)
t_ypos += 3200
_set_text(["Polar link array"], Vector(t_xpos, t_ypos, 0))
# Circular array and circular link array
_msg(16 * "-")
_msg("Circular array")
poly_h = Draft.make_polygon(5, 200)
poly_h.Placement.Base = Vector(8000, 3000, 0)
if App.GuiUp:
poly_h.ViewObject.Visibility = False
Draft.make_circular_array(poly_h,
500,
600,
3,
1,
Vector(0, 0, 1),
Vector(0, 0, 0),
use_link=False)
t_xpos = 7700
t_ypos = 1700
_set_text(["Circular array"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Circular link array")
poly_h_2 = Draft.make_polygon(6, 150)
poly_h_2.Placement.Base = Vector(8000, 6250, 0)
if App.GuiUp:
poly_h_2.ViewObject.Visibility = False
Draft.make_circular_array(poly_h_2,
550,
450,
3,
1,
Vector(0, 0, 1),
Vector(0, 0, 0),
use_link=True)
t_ypos += 3100
_set_text(["Circular link array"], Vector(t_xpos, t_ypos, 0))
# Path array and path link array
_msg(16 * "-")
_msg("Path array")
poly_h = Draft.make_polygon(3, 250)
poly_h.Placement.Base = Vector(10000, 3000, 0)
if App.GuiUp:
poly_h.ViewObject.Visibility = False
bspline_path = Draft.make_bspline([
Vector(10500, 2500, 0),
Vector(11000, 3000, 0),
Vector(11500, 3200, 0),
Vector(12000, 4000, 0)
])
Draft.make_path_array(poly_h, bspline_path, 5, use_link=False)
t_xpos = 10400
t_ypos = 2200
_set_text(["Path array"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Path link array")
poly_h_2 = Draft.make_polygon(4, 200)
poly_h_2.Placement.Base = Vector(10000, 5000, 0)
if App.GuiUp:
poly_h_2.ViewObject.Visibility = False
bspline_path_2 = Draft.make_bspline([
Vector(10500, 4500, 0),
Vector(11000, 6800, 0),
Vector(11500, 6000, 0),
Vector(12000, 5200, 0)
])
Draft.make_path_array(poly_h_2, bspline_path_2, 6, use_link=True)
t_ypos += 2000
_set_text(["Path link array"], Vector(t_xpos, t_ypos, 0))
# Point array
_msg(16 * "-")
_msg("Point array")
poly_h = Draft.make_polygon(3, 250)
poly_h.Placement.Base = Vector(12500, 2500, 0)
point_1 = Draft.make_point(13000, 3000, 0)
point_2 = Draft.make_point(13000, 3500, 0)
point_3 = Draft.make_point(14000, 2500, 0)
point_4 = Draft.make_point(14000, 3000, 0)
add_list, delete_list = Draft.upgrade([point_1, point_2, point_3, point_4])
compound = add_list[0]
if App.GuiUp:
compound.ViewObject.PointSize = 5
Draft.make_point_array(poly_h, compound)
t_xpos = 13000
t_ypos = 2200
_set_text(["Point array"], Vector(t_xpos, t_ypos, 0))
# Clone and mirror
_msg(16 * "-")
_msg("Clone")
wire_h = Draft.make_wire([
Vector(15000, 2500, 0),
Vector(15200, 3000, 0),
Vector(15500, 2500, 0),
Vector(15200, 2300, 0)
])
Draft.make_clone(wire_h, Vector(0, 1000, 0))
t_xpos = 15000
t_ypos = 2100
_set_text(["Clone"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Mirror")
wire_h = Draft.make_wire([
Vector(17000, 2500, 0),
Vector(16500, 4000, 0),
Vector(16000, 2700, 0),
Vector(16500, 2500, 0),
Vector(16700, 2700, 0)
])
Draft.mirror(wire_h, Vector(17100, 2000, 0), Vector(17100, 4000, 0))
t_xpos = 17000
t_ypos = 2200
_set_text(["Mirror"], Vector(t_xpos, t_ypos, 0))
_msg(16 * "-")
_msg("Layer")
layer = Draft.make_layer("Custom layer",
line_color=(0.33, 0.0, 0.49),
shape_color=(0.56, 0.89, 0.56),
line_width=4,
transparency=50)
cube = doc.addObject('Part::Box')
cube.Length = 350
cube.Width = 300
cube.Height = 250
cube.Placement.Base = Vector(14000, 5500, 0)
cone = doc.addObject('Part::Cone')
cone.Radius1 = 400
cone.Height = 600
cone.Angle = 270
cone.Placement.Base = Vector(15000, 6000, 0)
sphere = doc.addObject('Part::Sphere')
sphere.Radius = 450
sphere.Angle1 = -45
sphere.Angle2 = 45
sphere.Angle3 = 300
sphere.Placement.Base = Vector(14000, 7000, 0)
layer.Proxy.addObject(layer, cube)
layer.Proxy.addObject(layer, cone)
layer.Proxy.addObject(layer, sphere)
t_xpos = 14000
t_ypos = 5000
_set_text(["Layer"], Vector(t_xpos, t_ypos, 0))
doc.recompute()
def get_arrow(obj,
arrowtype, point, arrowsize, color, linewidth, angle=0):
"""Get the SVG representation from an arrow."""
svg = ""
if not App.GuiUp or not obj.ViewObject:
return svg
_cx_cy_r = 'cx="{}" cy="{}" r="{}"'.format(point.x, point.y, arrowsize)
_rotate = 'rotate({},{},{})'.format(math.degrees(angle),
point.x, point.y)
_transl = 'translate({},{})'.format(point.x, point.y)
_scale = 'scale({size},{size})'.format(size=arrowsize)
_style = 'style="stroke-miterlimit:4;stroke-dasharray:none"'
if obj.ViewObject.ArrowType == "Circle":
svg += '<circle '
svg += _cx_cy_r + ' '
svg += 'fill="{}" stroke="{}" '.format("none", color)
svg += 'style="stroke-width:{};'.format(linewidth)
svg += 'stroke-miterlimit:4;stroke-dasharray:none" '
svg += 'freecad:skip="1"'
svg += '/>\n'
elif obj.ViewObject.ArrowType == "Dot":
svg += '<circle '
svg += _cx_cy_r + ' '
svg += 'fill="{}" stroke="{}" '.format(color, "none")
svg += _style + ' '
svg += 'freecad:skip="1"'
svg += '/>\n'
elif obj.ViewObject.ArrowType == "Arrow":
svg += '<path '
svg += 'transform="'
svg += _rotate + ' '
svg += _transl + ' '
svg += _scale + '" '
svg += 'freecad:skip="1" '
svg += 'fill="{}" stroke="{}" '.format(color, "none")
svg += _style + ' '
svg += 'd="M 0 0 L 4 1 L 4 -1 Z"'
svg += '/>\n'
elif obj.ViewObject.ArrowType == "Tick":
svg += '<path '
svg += 'transform="'
svg += _rotate + ' '
svg += _transl + ' '
svg += _scale + '" '
svg += 'freecad:skip="1" '
svg += 'fill="{}" stroke="{}" '.format(color, "none")
svg += _style + ' '
svg += 'd="M -1 -2 L 0 2 L 1 2 L 0 -2 Z"'
svg += '/>\n'
elif obj.ViewObject.ArrowType == "Tick-2":
svg += '<line '
svg += 'transform="'
svg += 'rotate({},{},{}) '.format(math.degrees(angle) + 45,
point.x, point.y)
svg += _transl + '" '
svg += 'freecad:skip="1" '
svg += 'fill="{}" stroke="{}" '.format("none", color)
svg += 'style="stroke-dasharray:none;stroke-linecap:square;'
svg += 'stroke-width:{}" '.format(linewidth)
svg += 'x1="-{}" y1="0" '.format(2 * arrowsize)
svg += 'x2="{}" y2="0"'.format(2 * arrowsize)
svg += '/>\n'
else:
_wrn("getSVG: arrow type not implemented")
return svg
def _svg_dimension(obj, plane, scale, linewidth, fontsize,
stroke, pointratio, techdraw, rotation):
"""Return the SVG representation of a linear dimension."""
if not App.GuiUp:
_wrn("'{}': SVG can only be generated "
"in GUI mode".format(obj.Label))
return ""
if not hasattr(obj.ViewObject, "Proxy") or not obj.ViewObject.Proxy:
_err("'{}': doesn't have Proxy, "
"SVG cannot be generated".format(obj.Label))
return ""
vobj = obj.ViewObject
prx = vobj.Proxy
if not hasattr(prx, "p1"):
_err("'{}': doesn't have points, "
"SVG cannot be generated".format(obj.Label))
return ""
ts = len(prx.string) * vobj.FontSize.Value / 4.0
rm = (prx.p3 - prx.p2).Length/2.0 - ts
_diff32 = prx.p3 - prx.p2
_diff23 = prx.p2 - prx.p3
_v32 = DraftVecUtils.scaleTo(_diff32, rm)
_v23 = DraftVecUtils.scaleTo(_diff23, rm)
p2a = get_proj(prx.p2 + _v32, plane)
p2b = get_proj(prx.p3 + _v23, plane)
p1 = get_proj(prx.p1, plane)
p2 = get_proj(prx.p2, plane)
p3 = get_proj(prx.p3, plane)
p4 = get_proj(prx.p4, plane)
tbase = get_proj(prx.tbase, plane)
r = prx.textpos.rotation.getValue().getValue()
_rv = App.Rotation(r[0], r[1], r[2], r[3])
rv = _rv.multVec(App.Vector(1, 0, 0))
angle = -DraftVecUtils.angle(get_proj(rv, plane))
# angle = -DraftVecUtils.angle(p3.sub(p2))
svg = ''
nolines = False
if hasattr(vobj, "ShowLine"):
if not vobj.ShowLine:
nolines = True
# drawing lines
if not nolines:
svg += '<path '
if vobj.DisplayMode == "2D":
tangle = angle
if tangle > math.pi/2:
tangle = tangle-math.pi
# elif (tangle <= -math.pi/2) or (tangle > math.pi/2):
# tangle = tangle + math.pi
if rotation != 0:
# print("dim: tangle:", tangle,
# " rot: ", rotation,
# " text: ", prx.string)
if abs(tangle + math.radians(rotation)) < 0.0001:
tangle += math.pi
_v = App.Vector(0, 2.0/scale, 0)
_rot = DraftVecUtils.rotate(_v, tangle)
tbase = tbase + _rot
if not nolines:
svg += 'd="M ' + str(p1.x) + ' ' + str(p1.y) + ' '
svg += 'L ' + str(p2.x) + ' ' + str(p2.y) + ' '
svg += 'L ' + str(p3.x) + ' ' + str(p3.y) + ' '
svg += 'L ' + str(p4.x) + ' ' + str(p4.y) + '" '
else:
tangle = 0
if rotation != 0:
tangle = -math.radians(rotation)
tbase = tbase + App.Vector(0, -2.0/scale, 0)
if not nolines:
svg += 'd="M ' + str(p1.x) + ' ' + str(p1.y) + ' '
svg += 'L ' + str(p2.x) + ' ' + str(p2.y) + ' '
svg += 'L ' + str(p2a.x) + ' ' + str(p2a.y) + ' '
svg += 'M ' + str(p2b.x) + ' ' + str(p2b.y) + ' '
svg += 'L ' + str(p3.x) + ' ' + str(p3.y) + ' '
svg += 'L ' + str(p4.x) + ' ' + str(p4.y) + '" '
if not nolines:
svg += 'fill="none" stroke="'
svg += stroke + '" '
svg += 'stroke-width="' + str(linewidth) + ' px" '
svg += 'style="stroke-width:' + str(linewidth)
svg += ';stroke-miterlimit:4;stroke-dasharray:none" '
svg += 'freecad:basepoint1="'+str(p1.x)+' '+str(p1.y)+'" '
svg += 'freecad:basepoint2="'+str(p4.x)+' '+str(p4.y)+'" '
svg += 'freecad:dimpoint="'+str(p2.x)+' '+str(p2.y)+'"'
svg += '/>\n'
# drawing dimension and extension lines overshoots
if hasattr(vobj, "DimOvershoot") and vobj.DimOvershoot.Value:
shootsize = vobj.DimOvershoot.Value/pointratio
svg += get_overshoot(p2, shootsize, stroke,
linewidth, angle)
svg += get_overshoot(p3, shootsize, stroke,
linewidth, angle + math.pi)
if hasattr(vobj, "ExtOvershoot") and vobj.ExtOvershoot.Value:
shootsize = vobj.ExtOvershoot.Value/pointratio
shootangle = -DraftVecUtils.angle(p1 - p2)
svg += get_overshoot(p2, shootsize, stroke,
linewidth, shootangle)
svg += get_overshoot(p3, shootsize, stroke,
linewidth, shootangle)
# drawing arrows
if hasattr(vobj, "ArrowType"):
arrowsize = vobj.ArrowSize.Value/pointratio
if hasattr(vobj, "FlipArrows"):
if vobj.FlipArrows:
angle = angle + math.pi
svg += get_arrow(obj,
vobj.ArrowType,
p2, arrowsize, stroke, linewidth,
angle)
svg += get_arrow(obj,
vobj.ArrowType,
p3, arrowsize, stroke, linewidth,
angle + math.pi)
# drawing text
svg += svgtext.get_text(plane, techdraw,
stroke, fontsize, vobj.FontName,
tangle, tbase, prx.string)
return svg
def dim_symbol(symbol=None, invert=False):
"""Return the specified dimension symbol.
Parameters
----------
symbol: int, optional
It defaults to `None`, in which it gets the value from the parameter
database, `get_param("dimsymbol", 0)`.
A numerical value defines different markers
* 0, `SoSphere`
* 1, `SoMarkerSet` with a circle
* 2, `SoSeparator` with a `soCone`
* 3, `SoSeparator` with a `SoFaceSet`
* 4, `SoSeparator` with a `SoLineSet`, calling `dim_dash`
* Otherwise, `SoSphere`
invert: bool, optional
It defaults to `False`.
If it is `True` and `symbol=2`, the cone will be rotated
-90 degrees around the Z axis, otherwise the rotation is positive,
+90 degrees.
Returns
-------
Coin.SoNode
A `Coin.SoSphere`, or `Coin.SoMarkerSet` (circle),
or `Coin.SoSeparator` (cone, face, line)
that will be used as a dimension symbol.
"""
if symbol is None:
symbol = utils.get_param("dimsymbol", 0)
if symbol == 0:
# marker = coin.SoMarkerSet()
# marker.markerIndex = 80
# Returning a sphere means that the bounding box will
# be 3-dimensional; a marker will always be planar seen from any
# orientation but it currently doesn't work correctly
marker = coin.SoSphere()
return marker
elif symbol == 1:
marker = coin.SoMarkerSet()
# Should be the same as
# marker.markerIndex = 10
marker.markerIndex = Gui.getMarkerIndex("circle", 9)
return marker
elif symbol == 2:
marker = coin.SoSeparator()
t = coin.SoTransform()
t.translation.setValue((0, -2, 0))
t.center.setValue((0, 2, 0))
if invert:
t.rotation.setValue(coin.SbVec3f((0, 0, 1)), -math.pi / 2)
else:
t.rotation.setValue(coin.SbVec3f((0, 0, 1)), math.pi / 2)
c = coin.SoCone()
c.height.setValue(4)
marker.addChild(t)
marker.addChild(c)
return marker
elif symbol == 3:
marker = coin.SoSeparator()
c = coin.SoCoordinate3()
c.point.setValues([(-1, -2, 0), (0, 2, 0), (1, 2, 0), (0, -2, 0)])
f = coin.SoFaceSet()
marker.addChild(c)
marker.addChild(f)
return marker
elif symbol == 4:
return dimDash((-1.5, -1.5, 0), (1.5, 1.5, 0))
else:
_wrn(_tr("Symbol not implemented. Use a default symbol."))
return coin.SoSphere()
def make_linear_dimension_obj(edge_object, i1=1, i2=2, dim_line=None):
"""Create a linear dimension from an object.
Parameters
----------
edge_object: Part::Feature
The object which has an edge which will be measured.
It must have a `Part::TopoShape`, and at least one element
in `Shape.Vertexes`, to be able to measure a distance.
i1: int, optional
It defaults to `1`.
It is the index of the first vertex in `edge_object` from which
the measurement will be taken.
The minimum value should be `1`, which will be interpreted
as `'Vertex1'`.
If the value is below `1`, it will be set to `1`.
i2: int, optional
It defaults to `2`, which will be converted to `'Vertex2'`.
It is the index of the second vertex in `edge_object` that determines
the endpoint of the measurement.
If it is the same value as `i1`, the resulting measurement will be
made from the origin `(0, 0, 0)` to the vertex indicated by `i1`.
If the value is below `1`, it will be set to the last vertex
in `edge_object`.
Then to measure the first and last, this could be used
::
make_linear_dimension_obj(edge_object, i1=1, i2=-1)
dim_line: Base::Vector3
It defaults to `None`.
This is a point through which the extension of the dimension line
will pass.
This point controls how close or how far the dimension line is
positioned from the measured segment in `edge_object`.
If it is `None`, this point will be calculated from the intermediate
distance betwwen the vertices defined by `i1` and `i2`.
Returns
-------
App::FeaturePython
A scripted object of type `'LinearDimension'`.
This object does not have a `Shape` attribute, as the text and lines
are created on screen by Coin (pivy).
None
If there is a problem it will return `None`.
"""
_name = "make_linear_dimension_obj"
utils.print_header(_name, "Linear dimension")
found, doc = utils.find_doc(App.activeDocument())
if not found:
_err(_tr("No active document. Aborting."))
return None
if isinstance(edge_object, str):
edge_object_str = edge_object
if isinstance(edge_object, (list, tuple)):
_msg("edge_object: {}".format(edge_object))
_err(_tr("Wrong input: object must not be a list."))
return None
found, edge_object = utils.find_object(edge_object, doc)
if not found:
_msg("edge_object: {}".format(edge_object_str))
_err(_tr("Wrong input: object not in document."))
return None
_msg("edge_object: {}".format(edge_object.Label))
if not hasattr(edge_object, "Shape"):
_err(_tr("Wrong input: object doesn't have a 'Shape' to measure."))
return None
if (not hasattr(edge_object.Shape, "Vertexes")
or len(edge_object.Shape.Vertexes) < 1):
_err(_tr("Wrong input: object doesn't have at least one element "
"in 'Vertexes' to use for measuring."))
return None
_msg("i1: {}".format(i1))
try:
utils.type_check([(i1, int)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be an integer."))
return None
if i1 < 1:
i1 = 1
_wrn(_tr("i1: values below 1 are not allowed; will be set to 1."))
vx1 = edge_object.getSubObject("Vertex" + str(i1))
if not vx1:
_err(_tr("Wrong input: vertex not in object."))
return None
_msg("i2: {}".format(i2))
try:
utils.type_check([(i2, int)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be a vector."))
return None
if i2 < 1:
i2 = len(edge_object.Shape.Vertexes)
_wrn(_tr("i2: values below 1 are not allowed; "
"will be set to the last vertex in the object."))
vx2 = edge_object.getSubObject("Vertex" + str(i2))
if not vx2:
_err(_tr("Wrong input: vertex not in object."))
return None
_msg("dim_line: {}".format(dim_line))
if dim_line:
try:
utils.type_check([(dim_line, App.Vector)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be a vector."))
return None
else:
diff = vx2.Point.sub(vx1.Point)
diff.multiply(0.5)
dim_line = vx1.Point.add(diff)
# TODO: the internal function expects an index starting with 0
# so we need to decrease the value here.
# This should be changed in the future in the internal function.
i1 -= 1
i2 -= 1
new_obj = make_dimension(edge_object, i1, i2, dim_line)
return new_obj
def make_label(target_point=App.Vector(0, 0, 0),
placement=App.Vector(30, 30, 0),
target_object=None,
subelements=None,
label_type="Custom",
custom_text="Label",
direction="Horizontal",
distance=-10,
points=None):
"""Create a Label object containing different types of information.
The current color and text height and font specified in preferences
are used.
Parameters
----------
target_point: Base::Vector3, optional
It defaults to the origin `App.Vector(0, 0, 0)`.
This is the point which is pointed to by the label's leader line.
This point can be adorned with a marker like an arrow or circle.
placement: Base::Placement, Base::Vector3, or Base::Rotation, optional
It defaults to `App.Vector(30, 30, 0)`.
If it is provided, it defines the base point of the textual
label.
The input could be a full placement, just a vector indicating
the translation, or just a rotation.
target_object: Part::Feature or str, optional
It defaults to `None`.
If it exists it should be an object which will be used to provide
information to the label, as long as `label_type` is different
from `'Custom'`.
If it is a string, it must be the `Label` of that object.
Since a `Label` is not guaranteed to be unique in a document,
it will use the first object found with this `Label`.
subelements: str, optional
It defaults to `None`.
If `subelements` is provided, `target_object` should be provided
as well, otherwise it is ignored.
It should be a string indicating a subelement name, either
`'VertexN'`, `'EdgeN'`, or `'FaceN'` which should exist
within `target_object`.
In this case `'N'` is an integer that indicates the specific number
of vertex, edge, or face in `target_object`.
Both `target_object` and `subelements` are used to link the label
to a particular object, or to the particular vertex, edge, or face,
and get information from them.
::
make_label(..., target_object=App.ActiveDocument.Box)
make_label(..., target_object="My box", subelements="Face3")
These two parameters can be can be obtained from the `Gui::Selection`
module.
::
sel_object = Gui.Selection.getSelectionEx()[0]
target_object = sel_object.Object
subelements = sel_object.SubElementNames[0]
label_type: str, optional
It defaults to `'Custom'`.
It indicates the type of information that will be shown in the label.
See the get_label_types function in label.py for supported types.
Only `'Custom'` allows you to manually set the text
by defining `custom_text`. The other types take their information
from the object included in `target`.
- `'Position'` will show the base position of the target object,
or of the indicated `'VertexN'` in `target`.
- `'Length'` will show the `Length` of the target object's `Shape`,
or of the indicated `'EdgeN'` in `target`.
- `'Area'` will show the `Area` of the target object's `Shape`,
or of the indicated `'FaceN'` in `target`.
custom_text: str, or list of str, optional
It defaults to `'Label'`.
If it is a list, each element in the list represents a new text line.
It is the text that will be displayed by the label when
`label_type` is `'Custom'`.
direction: str, optional
It defaults to `'Horizontal'`.
It can be `'Horizontal'`, `'Vertical'`, or `'Custom'`.
It indicates the direction of the straight segment of the leader line
that ends up next to the textual label.
If `'Custom'` is selected, the leader line can be manually drawn
by specifying the value of `points`.
Normally, the leader line has only three points, but with `'Custom'`
you can specify as many points as needed.
distance: int, float, Base::Quantity, optional
It defaults to -10.
It indicates the length of the horizontal or vertical segment
of the leader line.
The leader line is composed of two segments, the first segment is
inclined, while the second segment is either horizontal or vertical
depending on the value of `direction`.
::
T
|
|
o------- L text
The `oL` segment's length is defined by `distance`
while the `oT` segment is automatically calculated depending
on the values of `placement` (L) and `distance` (o).
This `distance` is oriented, meaning that if it is positive
the segment will be to the right and above of the textual
label, depending on if `direction` is `'Horizontal'` or `'Vertical'`,
respectively.
If it is negative, the segment will be to the left
and below of the text.
points: list of Base::Vector3, optional
It defaults to `None`.
It is a list of vectors defining the shape of the leader line;
the list must have at least two points.
This argument must be used together with `direction='Custom'`
to display this custom leader.
However, notice that if the Label's `StraightDirection` property
is later changed to `'Horizontal'` or `'Vertical'`,
the custom point list will be overwritten with a new,
automatically calculated three-point list.
For the object to use custom points, `StraightDirection`
must remain `'Custom'`, and then the `Points` property
can be overwritten by a suitable list of points.
Returns
-------
App::FeaturePython
A scripted object of type `'Label'`.
This object does not have a `Shape` attribute, as the text and lines
are created on screen by Coin (pivy).
None
If there is a problem it will return `None`.
"""
_name = "make_label"
utils.print_header(_name, "Label")
found, doc = utils.find_doc(App.activeDocument())
if not found:
_err(translate("draft", "No active document. Aborting."))
return None
_msg("target_point: {}".format(target_point))
if not target_point:
target_point = App.Vector(0, 0, 0)
try:
utils.type_check([(target_point, App.Vector)], name=_name)
except TypeError:
_err(translate("draft", "Wrong input: must be a vector."))
return None
_msg("placement: {}".format(placement))
if not placement:
placement = App.Placement()
try:
utils.type_check([(placement,
(App.Placement, App.Vector, App.Rotation))],
name=_name)
except TypeError:
_err(
translate(
"draft",
"Wrong input: must be a placement, a vector, or a rotation."))
return None
# Convert the vector or rotation to a full placement
if isinstance(placement, App.Vector):
placement = App.Placement(placement, App.Rotation())
elif isinstance(placement, App.Rotation):
placement = App.Placement(App.Vector(), placement)
if isinstance(target_object, str):
target_object_str = target_object
if target_object:
if isinstance(target_object, (list, tuple)):
_msg("target_object: {}".format(target_object))
_err(translate("draft", "Wrong input: object must not be a list."))
return None
found, target_object = utils.find_object(target_object, doc)
if not found:
_msg("target_object: {}".format(target_object_str))
_err(translate("draft", "Wrong input: object not in document."))
return None
_msg("target_object: {}".format(target_object.Label))
if target_object and subelements:
_msg("subelements: {}".format(subelements))
try:
# Make a list
if isinstance(subelements, str):
subelements = [subelements]
utils.type_check([(subelements, (list, tuple, str))], name=_name)
except TypeError:
_err(
translate(
"draft",
"Wrong input: must be a list or tuple of strings, or a single string."
))
return None
# The subelements list is used to build a special list
# called a LinkSub, which includes the target_object
# and the subelements.
# Single: (target_object, "Edge1")
# Multiple: (target_object, ("Edge1", "Edge2"))
for sub in subelements:
_sub = target_object.getSubObject(sub)
if not _sub:
_err("subelement: {}".format(sub))
_err(
translate("draft",
"Wrong input: subelement not in object."))
return None
_msg("label_type: {}".format(label_type))
if not label_type:
label_type = "Custom"
try:
utils.type_check([(label_type, str)], name=_name)
except TypeError:
_err(translate("draft", "Wrong input: label_type must be a string."))
return None
types = label.get_label_types()
if label_type not in types:
_err(
translate(
"draft",
"Wrong input: label_type must be one of the following: ") +
str(types).strip("[]"))
return None
_msg("custom_text: {}".format(custom_text))
if not custom_text:
custom_text = "Label"
try:
utils.type_check([(custom_text, (str, list))], name=_name)
except TypeError:
_err(
translate(
"draft",
"Wrong input: must be a list of strings or a single string."))
return None
if (type(custom_text) is list
and not all(isinstance(element, str) for element in custom_text)):
_err(
translate(
"draft",
"Wrong input: must be a list of strings or a single string."))
return None
_msg("direction: {}".format(direction))
if not direction:
direction = "Horizontal"
try:
utils.type_check([(direction, str)], name=_name)
except TypeError:
_err(
translate(
"draft",
"Wrong input: must be a string, 'Horizontal', 'Vertical', or 'Custom'."
))
return None
if direction not in ("Horizontal", "Vertical", "Custom"):
_err(
translate(
"draft",
"Wrong input: must be a string, 'Horizontal', 'Vertical', or 'Custom'."
))
return None
_msg("distance: {}".format(distance))
if not distance:
distance = 1
try:
utils.type_check([(distance, (int, float))], name=_name)
except TypeError:
_err(translate("draft", "Wrong input: must be a number."))
return None
if points:
_msg("points: {}".format(points))
_err_msg = translate(
"draft", "Wrong input: must be a list of at least two vectors.")
try:
utils.type_check([(points, (tuple, list))], name=_name)
except TypeError:
_err(_err_msg)
return None
if len(points) < 2:
_err(_err_msg)
return None
if not all(isinstance(p, App.Vector) for p in points):
_err(_err_msg)
return None
new_obj = doc.addObject("App::FeaturePython", "dLabel")
label.Label(new_obj)
new_obj.TargetPoint = target_point
new_obj.Placement = placement
if target_object:
if subelements:
new_obj.Target = [target_object, subelements]
else:
new_obj.Target = [target_object, []]
new_obj.LabelType = label_type
new_obj.CustomText = custom_text
new_obj.StraightDirection = direction
new_obj.StraightDistance = distance
if points:
if direction != "Custom":
_wrn(
translate("draft",
"Direction is not 'Custom'; points won't be used."))
new_obj.Points = points
if App.GuiUp:
ViewProviderLabel(new_obj.ViewObject)
h = utils.get_param("textheight", 0.20)
new_obj.ViewObject.TextSize = h
gui_utils.format_object(new_obj)
gui_utils.select(new_obj)
return new_obj
def get_dxf(obj, direction=None):
"""Return a DXF entity from the given object.
If direction is given, the object is projected in 2D.
"""
plane = None
result = ""
if (obj.isDerivedFrom("Drawing::View")
or obj.isDerivedFrom("TechDraw::DrawView")):
if obj.Source.isDerivedFrom("App::DocumentObjectGroup"):
for o in obj.Source.Group:
result += get_dxf(o, obj.Direction)
else:
result += get_dxf(obj.Source, obj.Direction)
return result
if direction and isinstance(direction, App.Vector):
if direction != App.Vector(0, 0, 0):
plane = WorkingPlane.Plane()
plane.alignToPointAndAxis(App.Vector(0, 0, 0), direction)
if utils.get_type(obj) in ("Dimension", "LinearDimension"):
p1 = _get_proj(obj.Start, plane=plane)
p2 = _get_proj(obj.End, plane=plane)
p3 = _get_proj(obj.Dimline, plane=plane)
result += "0\nDIMENSION\n8\n0\n62\n0\n3\nStandard\n70\n1\n"
result += "10\n"+str(p3.x)+"\n20\n"+str(p3.y)+"\n30\n"+str(p3.z)+"\n"
result += "13\n"+str(p1.x)+"\n23\n"+str(p1.y)+"\n33\n"+str(p1.z)+"\n"
result += "14\n"+str(p2.x)+"\n24\n"+str(p2.y)+"\n34\n"+str(p2.z)+"\n"
elif utils.get_type(obj) == "Annotation":
# Only for App::Annotation
p = _get_proj(obj.Position, plane=plane)
count = 0
for t in obj.LabeLtext:
result += "0\nTEXT\n8\n0\n62\n0\n"
result += "10\n"
result += str(p.x) + "\n20\n"
result += str(p.y + count) + "\n30\n"
result += str(p.z) + "\n"
result += "40\n1\n"
result += "1\n" + str(t) + "\n"
result += "7\nSTANDARD\n"
count += 1
elif hasattr(obj, 'Shape'):
# TODO do this the Draft way, for ex. using polylines and rectangles
if not direction:
direction = App.Vector(0, 0, -1)
if DraftVecUtils.isNull(direction):
direction = App.Vector(0, 0, -1)
try:
d = TechDraw.projectToDXF(obj.Shape, direction)
except Exception:
# TODO: trap only specific exception.
# Impossible to generate DXF from Shape? Which exception is throw?
_wrn("get_dxf: "
"unable to project '{}' to {}".format(obj.Label, direction))
else:
result += d
else:
_wrn("get_dxf: unsupported object, '{}'".format(obj.Label))
return result
def make_ortho_array(obj,
v_x=App.Vector(10, 0, 0),
v_y=App.Vector(0, 10, 0),
v_z=App.Vector(0, 0, 10),
n_x=2,
n_y=2,
n_z=1,
use_link=True):
"""Create an orthogonal array from the given object.
Parameters
----------
obj: Part::Feature
Any type of object that has a `Part::TopoShape`
that can be duplicated.
This means most 2D and 3D objects produced
with any workbench.
v_x, v_y, v_z: Base::Vector3, optional
The vector indicating the vector displacement between two elements
in the specified orthogonal direction X, Y, Z.
By default:
::
v_x = App.Vector(10, 0, 0)
v_y = App.Vector(0, 10, 0)
v_z = App.Vector(0, 0, 10)
Given that this is a vectorial displacement
the next object can appear displaced in one, two or three axes
at the same time.
For example
::
v_x = App.Vector(10, 5, 0)
means that the next element in the X direction will be displaced
10 mm in X, 5 mm in Y, and 0 mm in Z.
A traditional "rectangular" array is obtained when
the displacement vector only has its corresponding component,
like in the default case.
If these values are entered as single numbers instead
of vectors, the single value is expanded into a vector
of the corresponding direction, and the other components are assumed
to be zero.
For example
::
v_x = 15
v_y = 10
v_z = 1
becomes
::
v_x = App.Vector(15, 0, 0)
v_y = App.Vector(0, 10, 0)
v_z = App.Vector(0, 0, 1)
n_x, n_y, n_z: int, optional
The number of copies in the specified orthogonal direction X, Y, Z.
This number includes the original object, therefore, it must be
at least 1.
The values of `n_x` and `n_y` default to 2,
while `n_z` defaults to 1.
This means the array by default is a planar array.
use_link: bool, optional
It defaults to `True`.
If it is `True` the produced copies are not `Part::TopoShape` copies,
but rather `App::Link` objects.
The Links repeat the shape of the original `obj` exactly,
and therefore the resulting array is more memory efficient.
Also, when `use_link` is `True`, the `Fuse` property
of the resulting array does not work; the array doesn't
contain separate shapes, it only has the original shape repeated
many times, so there is nothing to fuse together.
If `use_link` is `False` the original shape is copied many times.
In this case the `Fuse` property is able to fuse
all copies into a single object, if they touch each other.
Returns
-------
Part::FeaturePython
A scripted object with `Proxy.Type='Array'`.
Its `Shape` is a compound of the copies of the original object.
See Also
--------
make_ortho_array2d, make_rect_array, make_rect_array2d
"""
_name = "make_ortho_array"
utils.print_header(_name, _tr("Orthogonal array"))
_msg("v_x: {}".format(v_x))
_msg("v_y: {}".format(v_y))
_msg("v_z: {}".format(v_z))
try:
utils.type_check([(v_x, (int, float, App.Vector)),
(v_y, (int, float, App.Vector)),
(v_z, (int, float, App.Vector))],
name=_name)
except TypeError:
_err(_tr("Wrong input: must be a number or vector."))
return None
_text = "Input: single value expanded to vector."
if not isinstance(v_x, App.Vector):
v_x = App.Vector(v_x, 0, 0)
_wrn(_tr(_text))
if not isinstance(v_y, App.Vector):
v_y = App.Vector(0, v_y, 0)
_wrn(_tr(_text))
if not isinstance(v_z, App.Vector):
v_z = App.Vector(0, 0, v_z)
_wrn(_tr(_text))
_msg("n_x: {}".format(n_x))
_msg("n_y: {}".format(n_y))
_msg("n_z: {}".format(n_z))
try:
utils.type_check([(n_x, int), (n_y, int), (n_z, int)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be an integer number."))
return None
_text = ("Input: number of elements must be at least 1. "
"It is set to 1.")
if n_x < 1:
_wrn(_tr(_text))
n_x = 1
if n_y < 1:
_wrn(_tr(_text))
n_y = 1
if n_z < 1:
_wrn(_tr(_text))
n_z = 1
_msg("use_link: {}".format(bool(use_link)))
# new_obj = make_array.make_array()
new_obj = Draft.makeArray(obj,
arg1=v_x,
arg2=v_y,
arg3=v_z,
arg4=n_x,
arg5=n_y,
arg6=n_z,
use_link=use_link)
return new_obj
def getColorFromStyledItem(styled_item):
"""Get color from the IfcStyledItem.
Returns
-------
float, float, float, int
A tuple with the red, green, blue, and transparency values.
If the `IfcStyledItem` is a `IfcDraughtingPreDefinedColour`
the transparency is set to 0.
The first three values range from 0 to 1.0, while the transparency
varies from 0 to 100.
None
Return `None` if `styled_item` is not of type `'IfcStyledItem'`
or if there is any other problem getting a color.
"""
if styled_item.is_a("IfcStyledRepresentation"):
styled_item = styled_item.Items[0]
if not styled_item.is_a("IfcStyledItem"):
return None
rgb_color = None
transparency = None
col = None
# The `IfcStyledItem` holds presentation style information for products,
# either explicitly for an `IfcGeometricRepresentationItem` being part of
# an `IfcShapeRepresentation` assigned to a product, or by assigning
# presentation information to `IfcMaterial` being assigned
# as other representation for a product.
# In current IFC release (IFC2x3) only one presentation style
# assignment shall be assigned.
# In IFC4 `IfcPresentationStyleAssignment` is deprecated
# In IFC4 multiple styles are assigned to style in 'IfcStyleItem' instead
# print(ifcfile[p])
# print(styled_item)
# print(styled_item.Styles)
if len(styled_item.Styles) == 0:
# IN IFC2x3, only one element in `Styles` should be available.
_wrn("No 'Style' in 'IfcStyleItem', do nothing.")
# ca 100x in 210_King_Merged.ifc
# Empty styles, #4952778=IfcStyledItem(#4952779,(),$)
# this is an error in the IFC file in my opinion
else:
# never seen an ifc with more than one Styles in IfcStyledItem
# the above seams to only apply for IFC2x3, IFC4 can have them
# see https://forum.freecadweb.org/viewtopic.php?f=39&t=33560&p=437056#p437056
# Get the `IfcPresentationStyleAssignment`, there should only be one,
if styled_item.Styles[0].is_a('IfcPresentationStyleAssignment'):
assign_style = styled_item.Styles[0]
else:
# `IfcPresentationStyleAssignment` is deprecated in IFC4,
# in favor of `IfcStyleAssignmentSelect`
assign_style = styled_item
# print(assign_style) # IfcPresentationStyleAssignment
# `IfcPresentationStyleAssignment` can hold various kinds and counts
# of styles, see `IfcPresentationStyleSelect`
if assign_style.Styles[0].is_a("IfcSurfaceStyle"):
_style = assign_style.Styles[0]
# Schependomlaan and Nova and others
# `IfcSurfaceStyleRendering`
# print(_style.Styles[0])
# `IfcColourRgb`
rgb_color = _style.Styles[0].SurfaceColour
# print(rgb_color)
if (_style.Styles[0].is_a('IfcSurfaceStyleShading')
and hasattr(_style.Styles[0], 'Transparency')
and _style.Styles[0].Transparency):
transparency = _style.Styles[0].Transparency * 100
elif assign_style.Styles[0].is_a("IfcCurveStyle"):
if (len(assign_style.Styles) == 2
and assign_style.Styles[1].is_a("IfcSurfaceStyle")):
# Allplan, new IFC export started in 2017
# `IfcDraughtingPreDefinedColour`
# print(assign_style.Styles[0].CurveColour)
# TODO: check this; on index 1, is this what we need?!
rgb_color = assign_style.Styles[1].Styles[0].SurfaceColour
# print(rgb_color)
else:
# 2x Annotations in 210_King_Merged.ifc
# print(ifcfile[p])
# print(assign_style.Styles[0])
# print(assign_style.Styles[0].CurveColour)
rgb_color = assign_style.Styles[0].CurveColour
if rgb_color:
if rgb_color.is_a('IfcDraughtingPreDefinedColour'):
if DEBUG_prod_colors:
_msg(" '{}'= ".format(rgb_color.Name))
col = predefined_to_rgb(rgb_color)
if col:
col = col + (0, )
else:
col = (rgb_color.Red, rgb_color.Green, rgb_color.Blue,
int(transparency) if transparency else 0)
else:
col = None
if DEBUG_prod_colors:
_msg(" {}".format(col))
return col
def make_ortho_array2d(obj,
v_x=App.Vector(10, 0, 0),
v_y=App.Vector(0, 10, 0),
n_x=2,
n_y=2,
use_link=True):
"""Create a 2D orthogonal array from the given object.
This works the same as `make_ortho_array`.
The Z component is ignored so it only considers vector displacements
in X and Y directions.
Parameters
----------
obj: Part::Feature
Any type of object that has a `Part::TopoShape`
that can be duplicated.
This means most 2D and 3D objects produced
with any workbench.
v_x, v_y: Base::Vector3, optional
Vectorial displacement of elements
in the corresponding X and Y directions.
See `make_ortho_array`.
n_x, n_y: int, optional
Number of elements
in the corresponding X and Y directions.
See `make_ortho_array`.
use_link: bool, optional
If it is `True`, create `App::Link` array.
See `make_ortho_array`.
Returns
-------
Part::FeaturePython
A scripted object with `Proxy.Type='Array'`.
Its `Shape` is a compound of the copies of the original object.
See Also
--------
make_ortho_array, make_rect_array, make_rect_array2d
"""
_name = "make_ortho_array2d"
utils.print_header(_name, _tr("Orthogonal array 2D"))
_msg("v_x: {}".format(v_x))
_msg("v_y: {}".format(v_y))
try:
utils.type_check([(v_x, (int, float, App.Vector)),
(v_y, (int, float, App.Vector))],
name=_name)
except TypeError:
_err(_tr("Wrong input: must be a number or vector."))
return None
_text = "Input: single value expanded to vector."
if not isinstance(v_x, App.Vector):
v_x = App.Vector(v_x, 0, 0)
_wrn(_tr(_text))
if not isinstance(v_y, App.Vector):
v_y = App.Vector(0, v_y, 0)
_wrn(_tr(_text))
_msg("n_x: {}".format(n_x))
_msg("n_y: {}".format(n_y))
try:
utils.type_check([(n_x, int), (n_y, int)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be an integer number."))
return None
_text = ("Input: number of elements must be at least 1. "
"It is set to 1.")
if n_x < 1:
_wrn(_tr(_text))
n_x = 1
if n_y < 1:
_wrn(_tr(_text))
n_y = 1
_msg("use_link: {}".format(bool(use_link)))
# new_obj = make_array.make_array()
new_obj = Draft.makeArray(obj,
arg1=v_x,
arg2=v_y,
arg3=n_x,
arg4=n_y,
use_link=use_link)
return new_obj
def _get_path_circ_ellipse(plane, edge, vertex, edata, iscircle, isellipse,
fill, stroke, linewidth, lstyle):
"""Get the edge data from a path that is a circle or ellipse."""
if hasattr(App, "DraftWorkingPlane"):
drawing_plane_normal = App.DraftWorkingPlane.axis
else:
drawing_plane_normal = App.Vector(0, 0, 1)
if plane:
drawing_plane_normal = plane.axis
center = edge.Curve
ax = center.Axis
# The angle between the curve axis and the plane is not 0 nor 180 degrees
_angle = math.degrees(ax.getAngle(drawing_plane_normal))
if round(_angle, 2) not in (0, 180):
edata += get_discretized(edge, plane)
return "edata", edata
# The angle is 0 or 180, coplanar
occversion = Part.OCC_VERSION.split(".")
done = False
if int(occversion[0]) >= 7 and int(occversion[1]) >= 1:
# if using occ >= 7.1, use HLR algorithm
snip = Drawing.projectToSVG(edge, drawing_plane_normal)
if snip:
try:
_a = snip.split('path d="')[1]
_a = _a.split('"')[0]
_a = _a.split("A")[1]
A = "A " + _a
except IndexError:
# TODO: trap only specific exception.
# Check the problem. Split didn't produce a two element list?
_wrn("Circle or ellipse: "
"cannot split the projection snip "
"obtained by 'projectToSVG', "
"continue manually.")
else:
edata += A
done = True
if not done:
if len(edge.Vertexes) == 1 and iscircle:
# Complete circle not only arc
svg = get_circle(plane, fill, stroke, linewidth, lstyle, edge)
# If it's a circle we will return the final SVG string,
# otherwise it will process the `edata` further
return "svg", svg
elif len(edge.Vertexes) == 1 and isellipse:
# Complete ellipse not only arc
# svg = get_ellipse(plane,
# fill, stroke, linewidth,
# lstyle, edge)
# return svg
# Difference in angles
_diff = (center.LastParameter - center.FirstParameter) / 2.0
endpoints = [
get_proj(center.value(_diff), plane),
get_proj(vertex[-1].Point, plane)
]
else:
endpoints = [get_proj(vertex[-1].Point, plane)]
# Arc with more than one vertex
if iscircle:
rx = ry = center.Radius
rot = 0
else: # ellipse
rx = center.MajorRadius
ry = center.MinorRadius
_rot = center.AngleXU * center.Axis * App.Vector(0, 0, 1)
rot = math.degrees(_rot)
if rot > 90:
rot -= 180
if rot < -90:
rot += 180
# Be careful with the sweep flag
_diff = edge.ParameterRange[1] - edge.ParameterRange[0]
_diff = _diff / math.pi
flag_large_arc = (_diff % 2) > 1
# flag_sweep = (center.Axis * drawing_plane_normal >= 0) \
# == (edge.LastParameter > edge.FirstParameter)
# == (edge.Orientation == "Forward")
# Another method: check the direction of the angle
# between tangents
_diff = edge.LastParameter - edge.FirstParameter
t1 = edge.tangentAt(edge.FirstParameter)
t2 = edge.tangentAt(edge.FirstParameter + _diff / 10)
flag_sweep = DraftVecUtils.angle(t1, t2, drawing_plane_normal) < 0
for v in endpoints:
edata += ('A {} {} {} '
'{} {} '
'{} {} '.format(rx, ry, rot, int(flag_large_arc),
int(flag_sweep), v.x, v.y))
return "edata", edata
def make_radial_dimension_obj(edge_object, index=1, mode="radius",
dim_line=None):
"""Create a radial or diameter dimension from an arc object.
Parameters
----------
edge_object: Part::Feature
The object which has a circular edge which will be measured.
It must have a `Part::TopoShape`, and at least one element
must be a circular edge in `Shape.Edges` to be able to measure
its radius.
index: int, optional
It defaults to `1`.
It is the index of the edge in `edge_object` which is going to
be measured.
The minimum value should be `1`, which will be interpreted
as `'Edge1'`. If the value is below `1`, it will be set to `1`.
mode: str, optional
It defaults to `'radius'`; the other option is `'diameter'`.
It determines whether the dimension will be shown as a radius
or as a diameter.
dim_line: Base::Vector3, optional
It defaults to `None`.
This is a point through which the extension of the dimension line
will pass. The dimension line will be a radius or diameter
of the measured arc, extending from the center to the arc itself.
If it is `None`, this point will be set to one unit to the right
of the center of the arc, which will create a dimension line that is
horizontal, that is, parallel to the +X axis.
Returns
-------
App::FeaturePython
A scripted object of type `'LinearDimension'`.
This object does not have a `Shape` attribute, as the text and lines
are created on screen by Coin (pivy).
None
If there is a problem it will return `None`.
"""
_name = "make_radial_dimension_obj"
utils.print_header(_name, "Radial dimension")
found, doc = utils.find_doc(App.activeDocument())
if not found:
_err(_tr("No active document. Aborting."))
return None
if isinstance(edge_object, str):
edge_object_str = edge_object
found, edge_object = utils.find_object(edge_object, doc)
if not found:
_msg("edge_object: {}".format(edge_object_str))
_err(_tr("Wrong input: object not in document."))
return None
_msg("edge_object: {}".format(edge_object.Label))
if not hasattr(edge_object, "Shape"):
_err(_tr("Wrong input: object doesn't have a 'Shape' to measure."))
return None
if (not hasattr(edge_object.Shape, "Edges")
or len(edge_object.Shape.Edges) < 1):
_err(_tr("Wrong input: object doesn't have at least one element "
"in 'Edges' to use for measuring."))
return None
_msg("index: {}".format(index))
try:
utils.type_check([(index, int)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be an integer."))
return None
if index < 1:
index = 1
_wrn(_tr("index: values below 1 are not allowed; will be set to 1."))
edge = edge_object.getSubObject("Edge" + str(index))
if not edge:
_err(_tr("Wrong input: index doesn't correspond to an edge "
"in the object."))
return None
if not hasattr(edge, "Curve") or edge.Curve.TypeId != 'Part::GeomCircle':
_err(_tr("Wrong input: index doesn't correspond to a circular edge."))
return None
_msg("mode: {}".format(mode))
try:
utils.type_check([(mode, str)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be a string, 'radius' or 'diameter'."))
return None
if mode not in ("radius", "diameter"):
_err(_tr("Wrong input: must be a string, 'radius' or 'diameter'."))
return None
_msg("dim_line: {}".format(dim_line))
if dim_line:
try:
utils.type_check([(dim_line, App.Vector)], name=_name)
except TypeError:
_err(_tr("Wrong input: must be a vector."))
return None
else:
center = edge_object.Shape.Edges[index - 1].Curve.Center
dim_line = center + App.Vector(1, 0, 0)
# TODO: the internal function expects an index starting with 0
# so we need to decrease the value here.
# This should be changed in the future in the internal function.
index -= 1
new_obj = make_dimension(edge_object, index, mode, dim_line)
return new_obj
def create_test_file(
file_name="draft_test_objects",
file_path=os.environ["HOME"],
save=False,
font_file="/usr/share/fonts/truetype/dejavu/DejaVuSans.ttf"):
"""Create a complete test file of Draft objects.
It draws a frame with information on the software used to create
the test document, and fills it with every object that can be created.
Parameters
----------
file_name: str, optional
It defaults to `'draft_test_objects'`.
It is the name of the document that is created.
The `file_name` will be appended to `file_path`
to determine the actual path to save. The extension `.FCStd`
will be added automatically.
file_path: str, optional
It defaults to the value of `os.environ['HOME']`
which in Linux is usually `'/home/user'`.
If it is the empty string `''` it will use the value
returned by `App.getUserAppDataDir()`,
for example, `'/home/user/.FreeCAD/'`.
save: bool, optional
It defaults to `False`. If it is `True` the new document
will be saved to disk after creating all objects.
font_file: str, optional
It defaults to `'/usr/share/fonts/truetype/dejavu/DejaVuSans.ttf'`.
It is the full path of a font in the system to be used
to create a `Draft ShapeString`.
If the font is not found, this object is not created.
Returns
-------
App::Document
A reference to the test document that was created.
To Do
-----
Find a reliable way of getting a default font to be able to create
the `Draft ShapeString`.
"""
doc = App.newDocument(file_name)
_msg(16 * "-")
_msg("Filename: {}".format(file_name))
_msg("If the units tests fail, this script may fail as well")
_create_frame()
# Line, wire, and fillet
_msg(16 * "-")
_msg("Line")
Draft.make_line(Vector(0, 0, 0), Vector(500, 500, 0))
t_xpos = -50
t_ypos = -200
_t = Draft.make_text(["Line"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Wire")
Draft.make_wire(
[Vector(500, 0, 0),
Vector(1000, 500, 0),
Vector(1000, 1000, 0)])
t_xpos += 500
_t = Draft.make_text(["Wire"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Fillet")
line_h_1 = Draft.make_line(Vector(1500, 0, 0), Vector(1500, 500, 0))
line_h_2 = Draft.make_line(Vector(1500, 500, 0), Vector(2000, 500, 0))
if App.GuiUp:
line_h_1.ViewObject.DrawStyle = "Dotted"
line_h_2.ViewObject.DrawStyle = "Dotted"
doc.recompute()
Draft.make_fillet([line_h_1, line_h_2], 400)
t_xpos += 900
_t = Draft.make_text(["Fillet"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Circle, arc, arc by 3 points
_msg(16 * "-")
_msg("Circle")
circle = Draft.make_circle(350)
circle.Placement.Base = Vector(2500, 500, 0)
t_xpos += 1050
_t = Draft.make_text(["Circle"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Circular arc")
arc = Draft.make_circle(350, startangle=0, endangle=100)
arc.Placement.Base = Vector(3200, 500, 0)
t_xpos += 800
_t = Draft.make_text(["Circular arc"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Circular arc 3 points")
Draft.make_arc_3points(
[Vector(4600, 0, 0),
Vector(4600, 800, 0),
Vector(4000, 1000, 0)])
t_xpos += 600
_t = Draft.make_text(["Circular arc 3 points"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Ellipse, polygon, rectangle
_msg(16 * "-")
_msg("Ellipse")
ellipse = Draft.make_ellipse(500, 300)
ellipse.Placement.Base = Vector(5500, 250, 0)
t_xpos += 1600
_t = Draft.make_text(["Ellipse"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Polygon")
polygon = Draft.make_polygon(5, 250)
polygon.Placement.Base = Vector(6500, 500, 0)
t_xpos += 950
_t = Draft.make_text(["Polygon"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Rectangle")
rectangle = Draft.make_rectangle(500, 1000, 0)
rectangle.Placement.Base = Vector(7000, 0, 0)
t_xpos += 650
_t = Draft.make_text(["Rectangle"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Text
_msg(16 * "-")
_msg("Text")
text = Draft.make_text(["Testing"], Vector(7700, 500, 0))
if App.GuiUp:
text.ViewObject.FontSize = 100
t_xpos += 700
_t = Draft.make_text(["Text"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Linear dimension
_msg(16 * "-")
_msg("Linear dimension")
dimension = Draft.make_dimension(Vector(8500, 500,
0), Vector(8500, 1000, 0),
Vector(9000, 750, 0))
if App.GuiUp:
dimension.ViewObject.ArrowSize = 15
dimension.ViewObject.ExtLines = 1000
dimension.ViewObject.ExtOvershoot = 100
dimension.ViewObject.FontSize = 100
dimension.ViewObject.ShowUnit = False
t_xpos += 680
_t = Draft.make_text(["Dimension"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Radius and diameter dimension
_msg(16 * "-")
_msg("Radius and diameter dimension")
arc_h = Draft.make_circle(500, startangle=0, endangle=90)
arc_h.Placement.Base = Vector(9500, 0, 0)
doc.recompute()
dimension_r = Draft.make_dimension(arc_h, 0, "radius",
Vector(9750, 200, 0))
if App.GuiUp:
dimension_r.ViewObject.ArrowSize = 15
dimension_r.ViewObject.FontSize = 100
dimension_r.ViewObject.ShowUnit = False
arc_h2 = Draft.make_circle(450, startangle=-120, endangle=80)
arc_h2.Placement.Base = Vector(10000, 1000, 0)
doc.recompute()
dimension_d = Draft.make_dimension(arc_h2, 0, "diameter",
Vector(10750, 900, 0))
if App.GuiUp:
dimension_d.ViewObject.ArrowSize = 15
dimension_d.ViewObject.FontSize = 100
dimension_d.ViewObject.ShowUnit = False
t_xpos += 950
_t = Draft.make_text(["Radius dimension", "Diameter dimension"],
Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Angular dimension
_msg(16 * "-")
_msg("Angular dimension")
Draft.make_line(Vector(10500, 300, 0), Vector(11500, 1000, 0))
Draft.make_line(Vector(10500, 300, 0), Vector(11500, 0, 0))
angle1 = math.radians(40)
angle2 = math.radians(-20)
dimension_a = Draft.make_angular_dimension(Vector(10500, 300, 0),
[angle1, angle2],
Vector(11500, 300, 0))
if App.GuiUp:
dimension_a.ViewObject.ArrowSize = 15
dimension_a.ViewObject.FontSize = 100
t_xpos += 1700
_t = Draft.make_text(["Angle dimension"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# BSpline
_msg(16 * "-")
_msg("BSpline")
Draft.make_bspline([
Vector(12500, 0, 0),
Vector(12500, 500, 0),
Vector(13000, 500, 0),
Vector(13000, 1000, 0)
])
t_xpos += 1500
_t = Draft.make_text(["BSpline"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Point
_msg(16 * "-")
_msg("Point")
point = Draft.make_point(13500, 500, 0)
if App.GuiUp:
point.ViewObject.PointSize = 10
t_xpos += 900
_t = Draft.make_text(["Point"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Shapestring
_msg(16 * "-")
_msg("Shapestring")
try:
shape_string = Draft.make_shapestring("Testing", font_file, 100)
shape_string.Placement.Base = Vector(14000, 500)
except Exception:
_wrn("Shapestring could not be created")
_wrn("Possible cause: the font file may not exist")
_wrn(font_file)
rect = Draft.make_rectangle(500, 100)
rect.Placement.Base = Vector(14000, 500)
t_xpos += 600
_t = Draft.make_text(["Shapestring"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Facebinder
_msg(16 * "-")
_msg("Facebinder")
box = doc.addObject("Part::Box", "Cube")
box.Length = 200
box.Width = 500
box.Height = 100
box.Placement.Base = Vector(15000, 0, 0)
if App.GuiUp:
box.ViewObject.Visibility = False
facebinder = Draft.make_facebinder([(box, ("Face1", "Face3", "Face6"))])
facebinder.Extrusion = 10
t_xpos += 780
_t = Draft.make_text(["Facebinder"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Cubic bezier curve, n-degree bezier curve
_msg(16 * "-")
_msg("Cubic bezier")
Draft.make_bezcurve([
Vector(15500, 0, 0),
Vector(15578, 485, 0),
Vector(15879, 154, 0),
Vector(15975, 400, 0),
Vector(16070, 668, 0),
Vector(16423, 925, 0),
Vector(16500, 500, 0)
],
degree=3)
t_xpos += 680
_t = Draft.make_text(["Cubic bezier"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("N-degree bezier")
Draft.make_bezcurve([
Vector(16500, 0, 0),
Vector(17000, 500, 0),
Vector(17500, 500, 0),
Vector(17500, 1000, 0),
Vector(17000, 1000, 0),
Vector(17063, 1256, 0),
Vector(17732, 1227, 0),
Vector(17790, 720, 0),
Vector(17702, 242, 0)
])
t_xpos += 1200
_t = Draft.make_text(["n-Bezier"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Label
_msg(16 * "-")
_msg("Label")
place = App.Placement(Vector(18500, 500, 0), App.Rotation())
label = Draft.make_label(targetpoint=Vector(18000, 0, 0),
distance=-250,
placement=place)
label.Text = "Testing"
if App.GuiUp:
label.ViewObject.ArrowSize = 15
label.ViewObject.TextSize = 100
doc.recompute()
t_xpos += 1200
_t = Draft.make_text(["Label"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Orthogonal array and orthogonal link array
_msg(16 * "-")
_msg("Orthogonal array")
rect_h = Draft.make_rectangle(500, 500)
rect_h.Placement.Base = Vector(1500, 2500, 0)
if App.GuiUp:
rect_h.ViewObject.Visibility = False
Draft.makeArray(rect_h, Vector(600, 0, 0), Vector(0, 600, 0),
Vector(0, 0, 0), 3, 2, 1)
t_xpos = 1700
t_ypos = 2200
_t = Draft.make_text(["Array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
rect_h_2 = Draft.make_rectangle(500, 100)
rect_h_2.Placement.Base = Vector(1500, 5000, 0)
if App.GuiUp:
rect_h_2.ViewObject.Visibility = False
_msg(16 * "-")
_msg("Orthogonal link array")
Draft.makeArray(rect_h_2,
Vector(800, 0, 0),
Vector(0, 500, 0),
Vector(0, 0, 0),
2,
4,
1,
use_link=True)
t_ypos += 2600
_t = Draft.make_text(["Link array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Polar array and polar link array
_msg(16 * "-")
_msg("Polar array")
wire_h = Draft.make_wire([
Vector(5500, 3000, 0),
Vector(6000, 3500, 0),
Vector(6000, 3200, 0),
Vector(5800, 3200, 0)
])
if App.GuiUp:
wire_h.ViewObject.Visibility = False
Draft.makeArray(wire_h, Vector(5000, 3000, 0), 200, 8)
t_xpos = 4600
t_ypos = 2200
_t = Draft.make_text(["Polar array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Polar link array")
wire_h_2 = Draft.make_wire([
Vector(5500, 6000, 0),
Vector(6000, 6000, 0),
Vector(5800, 5700, 0),
Vector(5800, 5750, 0)
])
if App.GuiUp:
wire_h_2.ViewObject.Visibility = False
Draft.makeArray(wire_h_2, Vector(5000, 6000, 0), 200, 8, use_link=True)
t_ypos += 3200
_t = Draft.make_text(["Polar link array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Circular array and circular link array
_msg(16 * "-")
_msg("Circular array")
poly_h = Draft.make_polygon(5, 200)
poly_h.Placement.Base = Vector(8000, 3000, 0)
if App.GuiUp:
poly_h.ViewObject.Visibility = False
Draft.makeArray(poly_h, 500, 600, Vector(0, 0, 1), Vector(0, 0, 0), 3, 1)
t_xpos = 7700
t_ypos = 1700
_t = Draft.make_text(["Circular array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Circular link array")
poly_h_2 = Draft.make_polygon(6, 150)
poly_h_2.Placement.Base = Vector(8000, 6250, 0)
if App.GuiUp:
poly_h_2.ViewObject.Visibility = False
Draft.makeArray(poly_h_2,
550,
450,
Vector(0, 0, 1),
Vector(0, 0, 0),
3,
1,
use_link=True)
t_ypos += 3100
_t = Draft.make_text(["Circular link array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Path array and path link array
_msg(16 * "-")
_msg("Path array")
poly_h = Draft.make_polygon(3, 250)
poly_h.Placement.Base = Vector(10500, 3000, 0)
if App.GuiUp:
poly_h.ViewObject.Visibility = False
bspline_path = Draft.make_bspline([
Vector(10500, 2500, 0),
Vector(11000, 3000, 0),
Vector(11500, 3200, 0),
Vector(12000, 4000, 0)
])
Draft.makePathArray(poly_h, bspline_path, 5)
t_xpos = 10400
t_ypos = 2200
_t = Draft.make_text(["Path array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Path link array")
poly_h_2 = Draft.make_polygon(4, 200)
poly_h_2.Placement.Base = Vector(10500, 5000, 0)
if App.GuiUp:
poly_h_2.ViewObject.Visibility = False
bspline_path_2 = Draft.make_bspline([
Vector(10500, 4500, 0),
Vector(11000, 6800, 0),
Vector(11500, 6000, 0),
Vector(12000, 5200, 0)
])
Draft.makePathArray(poly_h_2, bspline_path_2, 6, use_link=True)
t_ypos += 2000
_t = Draft.make_text(["Path link array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Point array
_msg(16 * "-")
_msg("Point array")
poly_h = Draft.make_polygon(3, 250)
point_1 = Draft.make_point(13000, 3000, 0)
point_2 = Draft.make_point(13000, 3500, 0)
point_3 = Draft.make_point(14000, 2500, 0)
point_4 = Draft.make_point(14000, 3000, 0)
add_list, delete_list = Draft.upgrade([point_1, point_2, point_3, point_4])
compound = add_list[0]
if App.GuiUp:
compound.ViewObject.PointSize = 5
Draft.makePointArray(poly_h, compound)
t_xpos = 13000
t_ypos = 2200
_t = Draft.make_text(["Point array"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
# Clone and mirror
_msg(16 * "-")
_msg("Clone")
wire_h = Draft.make_wire([
Vector(15000, 2500, 0),
Vector(15200, 3000, 0),
Vector(15500, 2500, 0),
Vector(15200, 2300, 0)
])
Draft.clone(wire_h, Vector(0, 1000, 0))
t_xpos = 15000
t_ypos = 2100
_t = Draft.make_text(["Clone"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
_msg(16 * "-")
_msg("Mirror")
wire_h = Draft.make_wire([
Vector(17000, 2500, 0),
Vector(16500, 4000, 0),
Vector(16000, 2700, 0),
Vector(16500, 2500, 0),
Vector(16700, 2700, 0)
])
Draft.mirror(wire_h, Vector(17100, 2000, 0), Vector(17100, 4000, 0))
t_xpos = 17000
t_ypos = 2200
_t = Draft.make_text(["Mirror"], Vector(t_xpos, t_ypos, 0))
_set_text(_t)
doc.recompute()
if App.GuiUp:
Gui.runCommand("Std_ViewFitAll")
# Export
if not file_path:
file_path = App.getUserAppDataDir()
out_name = os.path.join(file_path, file_name + ".FCStd")
doc.FileName = out_name
if save:
doc.save()
_msg(16 * "-")
_msg("Saved: {}".format(out_name))
return doc
def dim_symbol(symbol=None, invert=False):
"""Return the specified dimension symbol.
Parameters
----------
symbol: int, optional
It defaults to `None`, in which it gets the value from the parameter
database, `get_param("dimsymbol", 0)`.
A numerical value defines different markers
* 0, `SoSphere`
* 1, `SoSeparator` with a `SoLineSet`, a circle (in fact a 24 sided polygon)
* 2, `SoSeparator` with a `soCone`
* 3, `SoSeparator` with a `SoFaceSet`
* 4, `SoSeparator` with a `SoLineSet`, calling `dim_dash`
* Otherwise, `SoSphere`
invert: bool, optional
It defaults to `False`.
If it is `True` and `symbol=2`, the cone will be rotated
-90 degrees around the Z axis, otherwise the rotation is positive,
+90 degrees.
Returns
-------
Coin.SoNode
A `Coin.SoSphere`, or `Coin.SoSeparator` (circle, cone, face, line)
that will be used as a dimension symbol.
"""
if symbol is None:
symbol = utils.get_param("dimsymbol", 0)
if symbol == 0:
# marker = coin.SoMarkerSet()
# marker.markerIndex = 80
# Returning a sphere means that the bounding box will
# be 3-dimensional; a marker will always be planar seen from any
# orientation but it currently doesn't work correctly
marker = coin.SoSphere()
return marker
elif symbol == 1:
marker = coin.SoSeparator()
v = coin.SoVertexProperty()
for i in range(25):
ang = math.radians(i * 15)
v.vertex.set1Value(i, (math.sin(ang), math.cos(ang), 0))
p = coin.SoLineSet()
p.vertexProperty = v
marker.addChild(p)
return marker
elif symbol == 2:
marker = coin.SoSeparator()
t = coin.SoTransform()
t.translation.setValue((0, -2, 0))
t.center.setValue((0, 2, 0))
if invert:
t.rotation.setValue(coin.SbVec3f((0, 0, 1)), -math.pi / 2)
else:
t.rotation.setValue(coin.SbVec3f((0, 0, 1)), math.pi / 2)
c = coin.SoCone()
c.height.setValue(4)
marker.addChild(t)
marker.addChild(c)
return marker
elif symbol == 3:
marker = coin.SoSeparator()
# hints are required otherwise only the bottom of the face is colored
h = coin.SoShapeHints()
h.vertexOrdering = h.COUNTERCLOCKWISE
c = coin.SoCoordinate3()
c.point.setValues([(-1, -2, 0), (0, 2, 0), (1, 2, 0), (0, -2, 0)])
f = coin.SoFaceSet()
marker.addChild(h)
marker.addChild(c)
marker.addChild(f)
return marker
elif symbol == 4:
return dim_dash((-1.5, -1.5, 0), (1.5, 1.5, 0))
else:
_wrn(
translate("draft",
"Symbol not implemented. Using a default symbol."))
return coin.SoSphere()
def calculate_placement(globalRotation,
edge,
offset,
RefPt,
xlate,
align,
normal=None,
mode='Original',
overrideNormal=False):
"""Orient shape to a local coordinate system (tangent, normal, binormal).
Orient shape at parameter offset, normally length.
http://en.wikipedia.org/wiki/Euler_angles (previous version)
http://en.wikipedia.org/wiki/Quaternions
"""
# Start with a null Placement so the translation goes to the right place.
# Then apply the global orientation.
placement = App.Placement()
placement.Rotation = globalRotation
placement.move(RefPt + xlate)
if not align:
return placement
nullv = App.Vector(0, 0, 0)
defNormal = App.Vector(0.0, 0.0, 1.0)
if normal:
defNormal = normal
try:
t = edge.tangentAt(get_parameter_from_v0(edge, offset))
t.normalize()
except:
_wrn(
translate("draft",
"Cannot calculate path tangent. Copy not aligned."))
return placement
if mode in ('Original', 'Tangent'):
if normal is None:
n = defNormal
else:
n = normal
n.normalize()
try:
b = t.cross(n)
b.normalize()
except Exception:
# weird special case, tangent and normal parallel
b = nullv
_wrn(
translate(
"draft",
"Tangent and normal are parallel. Copy not aligned."))
return placement
if overrideNormal:
priority = "XZY"
newRot = App.Rotation(t, b, n, priority) # t/x, b/y, n/z
else:
# must follow X, try to follow Z, Y is what it is
priority = "XZY"
newRot = App.Rotation(t, n, b, priority)
elif mode == 'Frenet':
try:
n = edge.normalAt(get_parameter_from_v0(edge, offset))
n.normalize()
except App.Base.FreeCADError: # no/infinite normals here
n = defNormal
_msg(
translate("draft",
"Cannot calculate path normal, using default."))
try:
b = t.cross(n)
b.normalize()
except Exception:
b = nullv
_wrn(
translate("draft",
"Cannot calculate path binormal. Copy not aligned."))
return placement
priority = "XZY"
newRot = App.Rotation(t, n, b, priority) # t/x, n/y, b/z
else:
_msg(
translate("draft", "AlignMode {} is not implemented").format(mode))
return placement
# Have valid tangent, normal, binormal
newGRot = newRot.multiply(globalRotation)
placement.Rotation = newGRot
return placement
def redraw_3d_view():
"""Force a redraw of 3D view or do nothing if it fails."""
try:
Gui.ActiveDocument.ActiveView.redraw()
except AttributeError as err:
_wrn(err)
def load_texture(filename, size=None, gui=App.GuiUp):
"""Return a Coin.SoSFImage to use as a texture for a 2D plane.
This function only works if the graphical interface is available
as the visual properties that can be applied to a shape
are attributes of the view provider (`obj.ViewObject`).
Parameters
----------
filename: str
A path to a pixel image file (PNG) that can be used as a texture
on the face of an object.
size: tuple of two int, or a single int, optional
It defaults to `None`.
If a tuple is given, the two values define the width and height
in pixels to which the loaded image will be scaled.
If it is a single value, it is used for both dimensions.
If it is `None`, the size will be determined from the `QImage`
created from `filename`.
CURRENTLY the input `size` parameter IS NOT USED.
It always uses the `QImage` to determine this information.
gui: bool, optional
It defaults to the value of `App.GuiUp`, which is `True`
when the interface exists, and `False` otherwise.
This value can be set to `False` to simulate
when the interface is not available.
Returns
-------
coin.SoSFImage
An image object with the appropriate size, number of components
(grayscale, grayscale and transparency, color,
color and transparency), and byte data.
It returns `None` if the interface is not available,
or if there is a problem creating the image.
"""
if gui:
# from pivy import coin
# from PySide import QtGui, QtSvg
try:
p = QtGui.QImage(filename)
if p.isNull():
_wrn("load_texture: " + _tr("image is Null"))
if not os.path.exists(filename):
raise FileNotFoundError(
-1,
_tr("filename does not exist "
"on the system or "
"on the resource file"), filename)
# This is buggy so it was de-activated.
#
# TODO: allow SVGs to use resolutions
# if size and (".svg" in filename.lower()):
# # this is a pattern, not a texture
# if isinstance(size, int):
# size = (size, size)
# svgr = QtSvg.QSvgRenderer(filename)
# p = QtGui.QImage(size[0], size[1],
# QtGui.QImage.Format_ARGB32)
# pa = QtGui.QPainter()
# pa.begin(p)
# svgr.render(pa)
# pa.end()
# else:
# p = QtGui.QImage(filename)
size = coin.SbVec2s(p.width(), p.height())
buffersize = p.byteCount()
width = size[0]
height = size[1]
numcomponents = int(buffersize / (width * height))
img = coin.SoSFImage()
byteList = bytearray()
# The SoSFImage needs to be filled with bytes.
# The pixel information is converted into a Qt color, gray,
# red, green, blue, or transparency (alpha),
# depending on the input image.
for y in range(height):
# line = width*numcomponents*(height-(y));
for x in range(width):
rgba = p.pixel(x, y)
if numcomponents <= 2:
byteList.append(QtGui.qGray(rgba))
if numcomponents == 2:
byteList.append(QtGui.qAlpha(rgba))
elif numcomponents <= 4:
byteList.append(QtGui.qRed(rgba))
byteList.append(QtGui.qGreen(rgba))
byteList.append(QtGui.qBlue(rgba))
if numcomponents == 4:
byteList.append(QtGui.qAlpha(rgba))
# line += numcomponents
_bytes = bytes(byteList)
img.setValue(size, numcomponents, _bytes)
except FileNotFoundError as exc:
_wrn("load_texture: {0}, {1}".format(exc.strerror, exc.filename))
return None
except Exception as exc:
_wrn(str(exc))
_wrn("load_texture: " + _tr("unable to load texture"))
return None
else:
return img
return None
def _create_objects(doc=None,
font_file=None,
hatch_file=None,
hatch_name=None):
"""Create the objects of the test file."""
if not doc:
doc = App.activeDocument()
if not doc:
doc = App.newDocument()
# Drafting ##############################################################
# Line
_msg(16 * "-")
_msg("Line")
Draft.make_line(Vector(0, 0, 0), Vector(500, 500, 0))
_set_text(["Line"], Vector(0, -200, 0))
# Wire
_msg(16 * "-")
_msg("Wire")
Draft.make_wire(
[Vector(1000, 0, 0),
Vector(1500, 250, 0),
Vector(1500, 500, 0)])
_set_text(["Wire"], Vector(1000, -200, 0))
# Fillet
_msg(16 * "-")
_msg("Fillet")
line_1 = Draft.make_line(Vector(2000, 0, 0), Vector(2000, 500, 0))
line_2 = Draft.make_line(Vector(2000, 500, 0), Vector(2500, 500, 0))
if App.GuiUp:
line_1.ViewObject.DrawStyle = "Dotted"
line_2.ViewObject.DrawStyle = "Dotted"
doc.recompute()
Draft.make_fillet([line_1, line_2], 400)
_set_text(["Fillet"], Vector(2000, -200, 0))
# Circular arc
_msg(16 * "-")
_msg("Circular arc")
arc = Draft.make_circle(250, startangle=90, endangle=270)
arc.Placement.Base = Vector(3250, 250, 0)
_set_text(["Circular arc"], Vector(3000, -200, 0))
# Circular arc 3 points
_msg(16 * "-")
_msg("Circular arc 3 points")
Draft.make_arc_3points(
[Vector(4250, 0, 0),
Vector(4000, 250, 0),
Vector(4250, 500, 0)])
_set_text(["Circular arc 3 points"], Vector(4000, -200, 0))
# Circle
_msg(16 * "-")
_msg("Circle")
circle = Draft.make_circle(250)
circle.Placement.Base = Vector(5250, 250, 0)
_set_text(["Circle"], Vector(5000, -200, 0))
# Ellipse
_msg(16 * "-")
_msg("Ellipse")
ellipse = Draft.make_ellipse(250, 150)
ellipse.Placement.Base = Vector(6250, 150, 0)
_set_text(["Ellipse"], Vector(6000, -200, 0))
# Rectangle
_msg(16 * "-")
_msg("Rectangle")
rectangle = Draft.make_rectangle(500, 300, 0)
rectangle.Placement.Base = Vector(7000, 0, 0)
_set_text(["Rectangle"], Vector(7000, -200, 0))
# Polygon
_msg(16 * "-")
_msg("Polygon")
polygon = Draft.make_polygon(5, 250)
polygon.Placement.Base = Vector(8250, 250, 0)
_set_text(["Polygon"], Vector(8000, -200, 0))
# BSpline
_msg(16 * "-")
_msg("BSpline")
Draft.make_bspline([
Vector(9000, 0, 0),
Vector(9100, 200, 0),
Vector(9400, 300, 0),
Vector(9500, 500, 0)
])
_set_text(["BSpline"], Vector(9000, -200, 0))
# Cubic bezier
_msg(16 * "-")
_msg("Cubic bezier")
Draft.make_bezcurve([
Vector(10000, 0, 0),
Vector(10000, 500, 0),
Vector(10500, 0, 0),
Vector(10500, 500, 0)
],
degree=3)
_set_text(["Cubic bezier"], Vector(10000, -200, 0))
# N-degree bezier
_msg(16 * "-")
_msg("N-degree bezier")
Draft.make_bezcurve([
Vector(11000, 0, 0),
Vector(11100, 400, 0),
Vector(11250, 250, 0),
Vector(11400, 100, 0),
Vector(11500, 500, 0)
])
_set_text(["N-degree bezier"], Vector(11000, -200, 0))
# Point
_msg(16 * "-")
_msg("Point")
point = Draft.make_point(12000, 0, 0)
if App.GuiUp:
point.ViewObject.PointSize = 10
_set_text(["Point"], Vector(12000, -200, 0))
# Facebinder
_msg(16 * "-")
_msg("Facebinder")
box = doc.addObject("Part::Box", "Box")
box.Length = 200
box.Width = 500
box.Height = 100
box.Placement.Base = Vector(13000, 0, 0)
if App.GuiUp:
box.ViewObject.Visibility = False
facebinder = Draft.make_facebinder([(box, ("Face1", "Face3", "Face6"))])
facebinder.Extrusion = 10
_set_text(["Facebinder"], Vector(13000, -200, 0))
# Shapestring
_msg(16 * "-")
_msg("Shapestring")
try:
shape_string = Draft.make_shapestring("Testing", font_file, 100)
shape_string.Placement.Base = Vector(14000, 0)
except Exception:
_wrn("Shapestring could not be created")
_wrn("Possible cause: the font file may not exist")
_wrn(font_file)
_set_text(["Shapestring"], Vector(14000, -200, 0))
# Hatch
_msg(16 * "-")
_msg("Hatch")
rectangle = Draft.make_rectangle(500, 300, 0)
rectangle.Placement.Base = Vector(15000, 0, 0)
rectangle.MakeFace = True
if App.GuiUp:
rectangle.ViewObject.Visibility = False
try:
Draft.make_hatch(rectangle,
hatch_file,
hatch_name,
scale=10,
rotation=45)
except Exception:
_wrn("Hatch could not be created")
_wrn("Possible cause: the hatch file may not exist")
_wrn(hatch_file)
_set_text(["Hatch"], Vector(15000, -200, 0))
# Annotation ############################################################
# Text
_msg(16 * "-")
_msg("Text")
text = Draft.make_text(["Testing", "text"], Vector(0, 2100, 0))
if App.GuiUp:
text.ViewObject.FontSize = 100
_set_text(["Text"], Vector(0, 1800, 0))
# Linear dimension
_msg(16 * "-")
_msg("Linear dimension")
dimension = Draft.make_linear_dimension(Vector(1500, 2000, 0),
Vector(1500, 2400, 0),
Vector(1000, 2200, 0))
if App.GuiUp:
dimension.ViewObject.ArrowSize = 15
dimension.ViewObject.ExtLines = 0
dimension.ViewObject.ExtOvershoot = 50
dimension.ViewObject.DimOvershoot = 25
dimension.ViewObject.FontSize = 50
dimension.ViewObject.Decimals = 1
dimension.ViewObject.ShowUnit = False
line = Draft.make_wire([Vector(1500, 2600, 0), Vector(1500, 3000, 0)])
doc.recompute()
dimension = Draft.make_linear_dimension_obj(line, 1, 2,
Vector(1000, 2800, 0))
if App.GuiUp:
dimension.ViewObject.ArrowSize = 15
dimension.ViewObject.ArrowType = "Arrow"
dimension.ViewObject.ExtLines = -50
dimension.ViewObject.ExtOvershoot = 50
dimension.ViewObject.DimOvershoot = 25
dimension.ViewObject.FontSize = 50
dimension.ViewObject.Decimals = 1
dimension.ViewObject.ShowUnit = False
_set_text(["Dimension"], Vector(1000, 1800, 0))
# Radius and diameter dimension
_msg(16 * "-")
_msg("Radius and diameter dimension")
circle = Draft.make_circle(200)
circle.Placement.Base = Vector(2200, 2200, 0)
circle.MakeFace = False
doc.recompute()
dimension = Draft.make_radial_dimension_obj(circle, 1, "radius",
Vector(2300, 2300, 0))
if App.GuiUp:
dimension.ViewObject.ArrowSize = 15
dimension.ViewObject.FontSize = 50
dimension.ViewObject.Decimals = 1
dimension.ViewObject.ShowUnit = False
circle = Draft.make_circle(200)
circle.Placement.Base = Vector(2200, 2800, 0)
circle.MakeFace = False
doc.recompute()
dimension = Draft.make_radial_dimension_obj(circle, 1, "diameter",
Vector(2300, 2900, 0))
if App.GuiUp:
dimension.ViewObject.ArrowSize = 15
dimension.ViewObject.FontSize = 50
dimension.ViewObject.Decimals = 1
dimension.ViewObject.ShowUnit = False
_set_text(["Radius dimension", "Diameter dimension"],
Vector(2000, 1800, 0))
# Angular dimension
_msg(16 * "-")
_msg("Angular dimension")
Draft.make_line(Vector(3000, 2000, 0), Vector(3500, 2000, 0))
Draft.make_line(Vector(3000, 2000, 0), Vector(3500, 2500, 0))
dimension = Draft.make_angular_dimension(Vector(3000, 2000, 0), [0, 45],
Vector(3250, 2250, 0))
if App.GuiUp:
dimension.ViewObject.ArrowSize = 15
dimension.ViewObject.FontSize = 50
dimension.ViewObject.Decimals = 1
_set_text(["Angle dimension"], Vector(3000, 1800, 0))
# Label
_msg(16 * "-")
_msg("Label")
place = App.Placement(Vector(4250, 2250, 0), App.Rotation())
label = Draft.make_label(target_point=Vector(4000, 2000, 0),
placement=place,
custom_text="Example label",
distance=-100)
label.Text = "Testing"
if App.GuiUp:
label.ViewObject.ArrowSize = 15
label.ViewObject.TextSize = 50
doc.recompute()
_set_text(["Label"], Vector(4000, 1800, 0))
# Array #################################################################
# Orthogonal array
_msg(16 * "-")
_msg("Orthogonal array")
rectangle = Draft.make_rectangle(100, 50)
rectangle.Placement.Base = Vector(0, 4000, 0)
if App.GuiUp:
rectangle.ViewObject.Visibility = False
Draft.make_ortho_array(rectangle,
Vector(200, 0, 0),
Vector(0, 150, 0),
Vector(0, 0, 0),
3,
2,
1,
use_link=False)
_set_text(["Orthogonal array"], Vector(0, 3800, 0))
# Orthogonal link array
_msg(16 * "-")
_msg("Orthogonal link array")
rectangle = Draft.make_rectangle(50, 50)
rectangle.Placement.Base = Vector(1000, 4000, 0)
if App.GuiUp:
rectangle.ViewObject.Visibility = False
Draft.make_ortho_array(rectangle,
Vector(200, 0, 0),
Vector(0, 150, 0),
Vector(0, 0, 0),
3,
2,
1,
use_link=True)
_set_text(["Orthogonal link array"], Vector(1000, 3800, 0))
# Polar array
_msg(16 * "-")
_msg("Polar array")
wire = Draft.make_wire(
[Vector(2000, 4050, 0),
Vector(2000, 4000, 0),
Vector(2100, 4000, 0)])
if App.GuiUp:
wire.ViewObject.Visibility = False
Draft.make_polar_array(wire, 4, 90, Vector(2000, 4250, 0), use_link=False)
_set_text(["Polar array"], Vector(2000, 3800, 0))
# Polar link array
_msg(16 * "-")
_msg("Polar link array")
wire = Draft.make_wire(
[Vector(3000, 4050, 0),
Vector(3000, 4000, 0),
Vector(3050, 4000, 0)])
if App.GuiUp:
wire.ViewObject.Visibility = False
Draft.make_polar_array(wire, 4, 90, Vector(3000, 4250, 0), use_link=True)
_set_text(["Polar link array"], Vector(3000, 3800, 0))
# Circular array
_msg(16 * "-")
_msg("Circular array")
polygon = Draft.make_polygon(5, 30)
polygon.Placement.Base = Vector(4250, 4250, 0)
if App.GuiUp:
polygon.ViewObject.Visibility = False
Draft.make_circular_array(polygon,
110,
100,
3,
1,
Vector(0, 0, 1),
Vector(0, 0, 0),
use_link=False)
_set_text(["Circular array"], Vector(4000, 3800, 0))
# Circular link array
_msg(16 * "-")
_msg("Circular link array")
polygon = Draft.make_polygon(6, 30)
polygon.Placement.Base = Vector(5250, 4250, 0)
if App.GuiUp:
polygon.ViewObject.Visibility = False
Draft.make_circular_array(polygon,
110,
100,
3,
1,
Vector(0, 0, 1),
Vector(0, 0, 0),
use_link=True)
_set_text(["Circular link array"], Vector(5000, 3800, 0))
# Path array
_msg(16 * "-")
_msg("Path array")
polygon = Draft.make_polygon(3, 30)
polygon.Placement.Base = Vector(6000, 4000, 0)
if App.GuiUp:
polygon.ViewObject.Visibility = False
spline = Draft.make_bspline([
Vector(6000, 4000, 0),
Vector(6100, 4200, 0),
Vector(6400, 4300, 0),
Vector(6500, 4500, 0)
])
Draft.make_path_array(polygon, spline, 5, use_link=False)
_set_text(["Path array"], Vector(6000, 3800, 0))
# Path link array
_msg(16 * "-")
_msg("Path link array")
polygon = Draft.make_polygon(4, 30)
polygon.Placement.Base = Vector(7000, 4000, 0)
if App.GuiUp:
polygon.ViewObject.Visibility = False
spline = Draft.make_bspline([
Vector(7000, 4000, 0),
Vector(7100, 4200, 0),
Vector(7400, 4300, 0),
Vector(7500, 4500, 0)
])
Draft.make_path_array(polygon, spline, 5, use_link=True)
_set_text(["Path link array"], Vector(7000, 3800, 0))
# Point array
_msg(16 * "-")
_msg("Point array")
polygon = Draft.make_polygon(3, 30)
polygon.Placement.Base = Vector(8000, 4000, 0)
point_1 = Draft.make_point(8030, 4030, 0)
point_2 = Draft.make_point(8030, 4250, 0)
point_3 = Draft.make_point(8470, 4250, 0)
point_4 = Draft.make_point(8470, 4470, 0)
add_list, delete_list = Draft.upgrade([point_1, point_2, point_3, point_4])
compound = add_list[0]
if App.GuiUp:
compound.ViewObject.PointSize = 5
Draft.make_point_array(polygon, compound, use_link=False)
_set_text(["Point array"], Vector(8000, 3800, 0))
# Point link array
_msg(16 * "-")
_msg("Point link array")
polygon = Draft.make_polygon(4, 30)
polygon.Placement.Base = Vector(9000, 4000, 0)
point_1 = Draft.make_point(9030, 4030, 0)
point_2 = Draft.make_point(9030, 4250, 0)
point_3 = Draft.make_point(9470, 4250, 0)
point_4 = Draft.make_point(9470, 4470, 0)
add_list, delete_list = Draft.upgrade([point_1, point_2, point_3, point_4])
compound = add_list[0]
if App.GuiUp:
compound.ViewObject.PointSize = 5
Draft.make_point_array(polygon, compound, use_link=True)
_set_text(["Point link array"], Vector(9000, 3800, 0))
# Miscellaneous #########################################################
# Mirror
_msg(16 * "-")
_msg("Mirror")
wire = Draft.make_wire(
[Vector(0, 6000, 0),
Vector(150, 6200, 0),
Vector(500, 6000, 0)])
Draft.mirror(wire, Vector(0, 6250, 0), Vector(500, 6250, 0))
_set_text(["Mirror"], Vector(0, 5800, 0))
# Clone
_msg(16 * "-")
_msg("Clone")
wire = Draft.make_wire(
[Vector(1000, 6000, 0),
Vector(1150, 6200, 0),
Vector(1500, 6000, 0)])
Draft.make_clone(wire, Vector(0, 300, 0))
_set_text(["Clone"], Vector(1000, 5800, 0))
# Shape2DView
_msg(16 * "-")
_msg("Shape2DView")
place = App.Placement(Vector(2000, 6000, 0),
App.Rotation(Vector(0, 0, 1), Vector(1, 2, 3)))
box = doc.addObject("Part::Box", "Box")
box.Length = 200
box.Width = 500
box.Height = 100
box.Placement = place
if App.GuiUp:
box.ViewObject.Visibility = False
Draft.make_shape2dview(box)
_set_text(["Shape2DView"], Vector(2000, 5800, 0))
# WorkingPlaneProxy
_msg(16 * "-")
_msg("WorkingPlaneProxy")
place = App.Placement(Vector(3250, 6250, 0), App.Rotation())
proxy = Draft.make_workingplaneproxy(place)
if App.GuiUp:
proxy.ViewObject.DisplaySize = 500
proxy.ViewObject.ArrowSize = 50
_set_text(["WorkingPlaneProxy"], Vector(3000, 5800, 0))
# Layer
_msg(16 * "-")
_msg("Layer")
layer = Draft.make_layer("Custom layer",
line_color=(0.33, 0.0, 0.49),
shape_color=(0.56, 0.89, 0.56),
line_width=4,
transparency=50)
box = doc.addObject("Part::Box", "Box")
box.Length = 200
box.Width = 500
box.Height = 100
box.Placement.Base = Vector(4000, 6000, 0)
sphere = doc.addObject("Part::Sphere", "Sphere")
sphere.Radius = 100
sphere.Placement.Base = Vector(4400, 6250, 0)
layer.Proxy.addObject(layer, box)
layer.Proxy.addObject(layer, sphere)
_set_text(["Layer"], Vector(4000, 5800, 0))
doc.recompute()