rotated_graph = pylon_graph.copy_and_rotate_around_xy_plane(
pylon_graph, 180)
mirror_graph = pylon_graph.copy_and_offset_with_mirror(
rotated_graph, [0, 0, 0], True)
full_graph = pylon_graph.copy_and_rotate_around_xy_plane(mirror_graph, 90)
final_graph = pylon_graph.sanitise_pylon(full_graph, width[1])
pylon_graph.replace_graph(final_graph)
return pylon_graph
testGraph = mutant()
testGraph.save_graph("test")
analyser = analyser.Analyser('test', "moo", True)
analyser.my_graph = testGraph
analyser.parse_graph()
#using medit to show the graph
meshName = "test.mesh"
cmd = "./population/linuxShow " + meshName
process = subprocess.Popen(cmd,
shell=True,
stdout=subprocess.PIPE,
stdin=subprocess.PIPE)
process.communicate()
#using slffea to show the mesh
#analyser.apply_stresses()
#analyser.create_slf_file()
#analyser.test_slf_file()
#analyser.parse_results()
pylon_graph.node[all_brace_ids[-1]]['label'] = 'ground'
rotated_graph = pylon_graph.copy_and_rotate_around_xy_plane(pylon_graph,180)
mirror_graph = pylon_graph.copy_and_offset_with_mirror(rotated_graph, [0, 0, 0], True)
full_graph = pylon_graph.copy_and_rotate_around_xy_plane(mirror_graph, 90)
final_graph = pylon_graph.sanitise_pylon(full_graph, width[1])
pylon_graph.replace_graph(final_graph)
return pylon_graph
testGraph = mutant()
testGraph.save_graph("test")
analyser = analyser.Analyser('test',"moo",True)
analyser.my_graph=testGraph
analyser.parse_graph()
#using medit to show the graph
meshName = "test.mesh"
cmd = "./population/linuxShow "+meshName
process = subprocess.Popen(cmd, shell=True, stdout=subprocess.PIPE, stdin=subprocess.PIPE)
process.communicate()
#using slffea to show the mesh
#analyser.apply_stresses()
#analyser.create_slf_file()
#analyser.test_slf_file()
#analyser.parse_results()
#analyser.print_stresses()
#analyser.show_analysis()
origin = (0,0,0)
length = 3
tetra = tetGraph()
tetra.regular(origin, length)
#tetra.levels(origin,length,3)
verts = tetra.fourtet(origin,length)
tetra.fourtet(verts[1],length)
tetra.fourtet(verts[2],length)
tetra.fourtet(verts[3],length)
tetra.octet(origin,length)
#tetra.square([0,0,3],3)
tetra.multi4(tetra.square,origin,3)
#tetra.four_aligned(origin,length)
print "final frame: ",str(tetra.g.nodeCounter-1)
#will it blend?
analyser = analyser.Analyser('test',"moo",True)
analyser.myGraph=tetra.g
analyser.parse_graph(tetra.g)
analyser.apply_stresses()
analyser.create_slf_file()
analyser.test_slf_file()
analyser.parse_results()
analyser.print_stresses()
analyser.show_analysis()