def testDivideWire(): w = TestDisplay.makeCircleWire(); #w = TestDisplay.makeSquareWire(); #w = TestDisplay.makeReversedWire(); wr = Wrappers.Wire(w); eg = EdgeGraph(); eg.addWire(w,'BOUND'); print eg.edges #the big test-- split one of the edges e = eg.firstNode().edge; [newEdge1,newEdge2] = eg.divideEdge(e,2.5); print eg.edges e2 = newEdge2.edge; [newEdge3,newEdge4] = eg.divideEdge(e2,0.2333 ); for en in eg.allEdgesRandomOrder(): time.sleep(.1); e = en.newEdge(); TestDisplay.display.showShape( TestDisplay.makeEdgeIndicator(e) ); TestDisplay.display.showShape(e );
def testDivideWire(): w = TestDisplay.makeCircleWire(); #w = TestDisplay.makeSquareWire(); #w = TestDisplay.makeReversedWire(); wr = Wrappers.Wire(w); eg = EdgeGraph(); eg.addWire(w,'BOUND'); print eg.edges #the big test-- split one of the edges e = eg.firstNode().edge; [newEdge1,newEdge2] = eg.divideEdge(e,2.5); print eg.edges e2 = newEdge2.edge; [newEdge3,newEdge4] = eg.divideEdge(e2,0.2333 ); for en in eg.allEdgesRandomOrder(): time.sleep(.1); e = en.newEdge(); TestDisplay.display.showShape( TestDisplay.makeEdgeIndicator(e) ); TestDisplay.display.showShape(e );
startNode = graph.firstNode()
yield startNode
nD = startNode.next
while len(nD) > 0:
nextNode = nD.values()[0]
if nextNode == startNode:
return
yield nextNode
nD = nextNode.next
return
if __name__ == '__main__':
print "Basic Wrappers and Utilities Module"
w = TestDisplay.makeCircleWire()
w = TestDisplay.makeSquareWire()
w = TestDisplay.makeReversedWire()
eg = EdgeGraph()
eg.addWire(w, 'BOUND')
#the big test-- split one of the edges
e = eg.firstNode().edge
newNode = eg.divideEdge(e, 2.5)
e2 = newNode.edge
newNode2 = eg.divideEdge(e2, 0.2333)
for en in followForwardGenerator(eg):
time.sleep(1)
if refVal != None and theVal != None: #if abs(refVal - theVal) <= self.options.machineResolution: if abs(refVal - theVal ) <= 0.000001: return None; return theVal; def comment(self,txt): return self.options.commentFormat % txt; if __name__=='__main__': ###Logging Configuration logging.basicConfig(level=logging.WARN, format='%(asctime)s [%(funcName)s] %(levelname)s %(message)s', stream=sys.stdout) w1 = TestDisplay.makeSquareWire(); w2 = TestDisplay.makeCircleWire(); w3 = TestDisplay.makeReversedWire(); TestDisplay.display.showShape([w1,w2,w3]); o = SlicerConfig.GcodeOptions(); o.setDefaults(); o.computeExtraAxis=False; ge = GcodeExporter(o ); #ge.useArcs = False; for line in ge.gcode([w1,w2,w3]): print line,; TestDisplay.display.run();
for edge in self.edges2():
ew = Edge(edge)
s.append(str(ew))
return "\n".join(s)
def discretePoints(self, deflection):
"discrete points for all of a wire"
for e in self.edges():
for m in Edge(e).discretePoints(deflection):
yield m
if __name__ == '__main__':
print "Basic Wrappers and Utilities Module"
w = TestDisplay.makeSquareWire()
el = EdgeLinkedList(w)
#TestDisplay.display.showShape(w);
#TestDisplay.display.showShape(el.first().edge);
#TestDisplay.display.showShape(el.last().edge);
#for e in el.nodesForward():
# TestDisplay.display.showShape(e.edge);
for e in el.nodesBackward():
TestDisplay.display.showShape(e.edge)
TestDisplay.display.run()
if nextNode == startNode:
return
yield nextNode
nD = nextNode.next
return
def tP(point):
"return a tuple for a point"
return (point.X(), point.Y(), point.Z())
if __name__ == '__main__':
print "Basic Wrappers and Utilities Module"
w = TestDisplay.makeCircleWire()
w = TestDisplay.makeSquareWire()
#w = TestDisplay.makeReversedWire();
wr = Wrappers.Wire(w)
g = networkx.Graph()
for e in wr.edges():
ew = Wrappers.Edge(e)
g.add_edge(tP(ew.firstPoint), tP(ew.lastPoint), {'ew': ew})
TestDisplay.display.showShape(e)
#print g.nodes();
#print g.edges();
print g.get_edge_data((5.0, 0.0, 0.0), (5.0, 5.0, 0.0))
#if abs(refVal - theVal) <= self.options.machineResolution:
if abs(refVal - theVal) <= 0.000001:
return None
return theVal
def comment(self, txt):
return self.options.commentFormat % txt
if __name__ == '__main__':
###Logging Configuration
logging.basicConfig(
level=logging.WARN,
format='%(asctime)s [%(funcName)s] %(levelname)s %(message)s',
stream=sys.stdout)
w1 = TestDisplay.makeSquareWire()
w2 = TestDisplay.makeCircleWire()
w3 = TestDisplay.makeReversedWire()
TestDisplay.display.showShape([w1, w2, w3])
o = SlicerConfig.GcodeOptions()
o.setDefaults()
o.computeExtraAxis = False
ge = GcodeExporter(o)
#ge.useArcs = False;
for line in ge.gcode([w1, w2, w3]):
print line,
TestDisplay.display.run()
for edge in self.edges2(): ew = Edge(edge); s.append( str(ew) ); return "\n".join(s); def discretePoints(self,deflection): "discrete points for all of a wire" for e in self.edges(): for m in Edge(e).discretePoints(deflection): yield m; if __name__=='__main__': print "Basic Wrappers and Utilities Module" w = TestDisplay.makeSquareWire(); el = EdgeLinkedList(w); #TestDisplay.display.showShape(w); #TestDisplay.display.showShape(el.first().edge); #TestDisplay.display.showShape(el.last().edge); #for e in el.nodesForward(): # TestDisplay.display.showShape(e.edge); for e in el.nodesBackward(): TestDisplay.display.showShape(e.edge); TestDisplay.display.run();
from OCC import TopoDS from OCC import TColStd import Wrappers import TestDisplay def listFromArray( stdArray ): results= [] for i in range(stdArray.Lower(),stdArray.Upper() ): results.append(stdArray.Value(i)); return results; if __name__=='__main__': #make test wire, which has two edges [testWire,circleEdge,lineEdge] = TestDisplay.makeKeyHoleWire(); testWire2 = TestDisplay.makeSquareWire(); if testWire2.Closed(): print "testWire2 is closed"; else: print "testWire2 is not closed."; TOLERANCE = 0.00001; curve = BRepAdaptor.BRepAdaptor_CompCurve (testWire); print "CompCurve is parameterized between %0.5f and %0.5f " % ( curve.FirstParameter(), curve.LastParameter() ); print "%d Continuity" % curve.Continuity(); print "%d Intervals(C0)" % curve.NbIntervals(0); print "%d Intervals(C1)" % curve.NbIntervals(1); print "%d Intervals(C2)" % curve.NbIntervals(2); print "%d Intervals(C3)" % curve.NbIntervals(3);
if nextNode == startNode:
return;
yield nextNode;
nD = nextNode.next;
return;
def tP(point):
"return a tuple for a point"
return (point.X(), point.Y(), point.Z() );
if __name__=='__main__':
print "Basic Wrappers and Utilities Module"
w = TestDisplay.makeCircleWire();
w = TestDisplay.makeSquareWire();
#w = TestDisplay.makeReversedWire();
wr = Wrappers.Wire(w);
g = networkx.Graph();
for e in wr.edges():
ew = Wrappers.Edge(e);
g.add_edge(tP(ew.firstPoint),tP(ew.lastPoint),{'ew':ew});
TestDisplay.display.showShape(e);
#print g.nodes();
#print g.edges();
print g.get_edge_data((5.0,0.0,0.0),(5.0,5.0,0.0));
# DrawTo 3,2.2
assert testMoves([edge1, edge2, edge3]) == 3, "There should be Thee Moves"
print "[OK]"
print "Disconnected Edges"
#the correct answer is:
# MoveTo 0,0
# Lineto 1,1
# MoveTo 2,2
# LineTo 3,2.2
assert testMoves([edge1, edge3]) == 4, "Should be four moves"
print "[OK]"
print "Arcs And Lines"
wire = makeTestWire()
#the correct answer is:
# Moveto 40,50
# ArcTo 50,40 with center 40,40, ccw direction
# LineTo 80,40
assert testMoves([wire]) == 3, "Should be 3 moves?"
print "[OK]"
print "Arcs and Lines-- No Arcs"
# should MoveTo 40,50
# draw to 50,40 in a lot of little moves
# draw to 80,40 in one move
assert testMoves([wire], False) > 10, "Should be lots of moves"
print "Square Wire"
assert testMoves([TestDisplay.makeSquareWire()], False) > 3
import Wrappers
import TestDisplay
def listFromArray(stdArray):
results = []
for i in range(stdArray.Lower(), stdArray.Upper()):
results.append(stdArray.Value(i))
return results
if __name__ == '__main__':
#make test wire, which has two edges
[testWire, circleEdge, lineEdge] = TestDisplay.makeKeyHoleWire()
testWire2 = TestDisplay.makeSquareWire()
if testWire2.Closed():
print "testWire2 is closed"
else:
print "testWire2 is not closed."
TOLERANCE = 0.00001
curve = BRepAdaptor.BRepAdaptor_CompCurve(testWire)
print "CompCurve is parameterized between %0.5f and %0.5f " % (
curve.FirstParameter(), curve.LastParameter())
print "%d Continuity" % curve.Continuity()
print "%d Intervals(C0)" % curve.NbIntervals(0)
print "%d Intervals(C1)" % curve.NbIntervals(1)
print "%d Intervals(C2)" % curve.NbIntervals(2)
# DrawTo 3,2.2 assert testMoves([edge1,edge2,edge3]) == 3,"There should be Thee Moves" print "[OK]" print "Disconnected Edges" #the correct answer is: # MoveTo 0,0 # Lineto 1,1 # MoveTo 2,2 # LineTo 3,2.2 assert testMoves([edge1,edge3]) == 4,"Should be four moves" print "[OK]" print "Arcs And Lines" wire = makeTestWire(); #the correct answer is: # Moveto 40,50 # ArcTo 50,40 with center 40,40, ccw direction # LineTo 80,40 assert testMoves([wire]) == 3,"Should be 3 moves?" print "[OK]" print "Arcs and Lines-- No Arcs" # should MoveTo 40,50 # draw to 50,40 in a lot of little moves # draw to 80,40 in one move assert testMoves([wire],False) > 10,"Should be lots of moves" print "Square Wire" assert testMoves([TestDisplay.makeSquareWire()],False) > 3;
nD = startNode.next; while len(nD) > 0: nextNode = nD.values()[0]; if nextNode == startNode: return; yield nextNode; nD = nextNode.next; return; if __name__=='__main__': print "Basic Wrappers and Utilities Module" w = TestDisplay.makeCircleWire(); w = TestDisplay.makeSquareWire(); w = TestDisplay.makeReversedWire(); eg = EdgeGraph(); eg.addWire(w,'BOUND'); #the big test-- split one of the edges e = eg.firstNode().edge; newNode = eg.divideEdge(e,2.5); e2 = newNode.edge; newNode2 = eg.divideEdge(e2,0.2333 ); for en in followForwardGenerator(eg): time.sleep(1);