diff --git a/extensions/fablabchemnitz/contour_scanner_and_trimmer/contour_scanner_and_trimmer.py b/extensions/fablabchemnitz/contour_scanner_and_trimmer/contour_scanner_and_trimmer.py index eaf76036..c4aabcf7 100644 --- a/extensions/fablabchemnitz/contour_scanner_and_trimmer/contour_scanner_and_trimmer.py +++ b/extensions/fablabchemnitz/contour_scanner_and_trimmer/contour_scanner_and_trimmer.py @@ -339,8 +339,8 @@ class ContourScannerAndTrimmer(inkex.EffectExtension): s1x0 = working_set[j]['p0'][0] s1x1 = working_set[j]['p1'][0] - if s0x0 == s1x0 and s0x1 == s1x1: - continue #skip if pointy path is going to be created + #if s0x0 == s1x0 and s0x1 == s1x1: + # continue #skip if pointy path is going to be created if not (s0x0 < s0x1 and s0x1 < s1x0 and s1x0 < s1x1): # make a duplicate set, omitting segments i and j @@ -357,7 +357,8 @@ class ContourScannerAndTrimmer(inkex.EffectExtension): 'p1': pts[-1], 'slope': self.slope(pts[0], pts[-1]), 'id': working_set[i]['id'], - 'originalPathId': working_set[i]['originalPathId'] + 'originalPathId': working_set[i]['originalPathId'], + 'composed_transform': working_set[i]['composed_transform'] }) return (False, new_set) @@ -374,9 +375,9 @@ class ContourScannerAndTrimmer(inkex.EffectExtension): # collect segments, calculate their slopes, order their points left-to-right for line in lineArray: - csp = line.path.to_arrays() - #csp = Path(line.path.transform(line.composed_transform()).to_superpath()).to_arrays() - + #csp = line.path.to_arrays() + csp = Path(line.path.transform(line.getparent().composed_transform())).to_arrays() + #self.msg("csp = {}".format(csp)) x1, y1, x2, y2 = csp[0][1][0], csp[0][1][1], csp[1][1][0], csp[1][1][1] # ensure p0 is left of p1 if x1 < x2: @@ -392,6 +393,7 @@ class ContourScannerAndTrimmer(inkex.EffectExtension): s['slope'] = self.slope(s['p0'], s['p1']) s['id'] = line.attrib['id'] s['originalPathId'] = line.attrib['originalPathId'] + s['composed_transform'] = line.composed_transform() #s['d'] = line.attrib['d'] input_set.append(s) @@ -429,27 +431,27 @@ class ContourScannerAndTrimmer(inkex.EffectExtension): #we finally build a list which contains all overlapping elements we want to drop dropped_ids = [] - for working_id in working_ids: #if the working id is not in the output id we are going to drop it - if working_id not in output_ids: - dropped_ids.append(working_id) + for input_id in input_ids: #if the working id is not in the output id we are going to drop it + if input_id not in output_ids: + dropped_ids.append(input_id) if self.options.show_debug is True: #self.msg("input_set:{}".format(input_set)) - self.msg("input_ids:") + self.msg("input_ids [{}]:".format(len(input_ids))) for input_id in input_ids: self.msg(input_id) self.msg("*"*24) #self.msg("working_set:{}".format(working_set)) - self.msg("working_ids:") + self.msg("working_ids [{}]:".format(len(working_ids))) for working_id in working_ids: self.msg(working_id) self.msg("*"*24) #self.msg("output_set:{}".format(output_set)) - self.msg("output_ids:") + self.msg("output_ids [{}]:".format(len(output_ids))) for output_id in output_ids: self.msg(output_id) self.msg("*"*24) - self.msg("dropped_ids:") + self.msg("dropped_ids [{}]:".format(len(dropped_ids))) for dropped_id in dropped_ids: self.msg(dropped_id) self.msg("*"*24) @@ -905,10 +907,13 @@ class ContourScannerAndTrimmer(inkex.EffectExtension): for output in output_set: if output['id'] == subSplitLine.attrib['id']: #self.msg(output['p0']) - subSplitLine.attrib['d'] = line.attrib['d'] = 'M {},{} L {},{}'.format( + subSplitLine.attrib['d'] = 'M {},{} L {},{}'.format( output['p0'][0], output['p0'][1], output['p1'][0], output['p1'][1]) #we set the path of trimLine using 'd' attribute because if we use trimLine.path the decimals get cut off unwantedly - #subSplitLine.path = line.path = [['M', output['p0']], ['L', output['p1']]] - + #subSplitLine.path = [['M', output['p0']], ['L', output['p1']]] + #self.msg("composed_transform = {}".format(output['composed_transform'])) + #subSplitLine.transform = Transform(-output['composed_transform']) * subSplitLine.transform + subSplitLine.path = subSplitLine.path.transform(-output['composed_transform']) + ''' now we intersect the sub split lines to find the global intersection points using Bentley-Ottmann algorithm (contains self-intersections too!) '''