def import_connector(do_accept,connectorName):
# initialize connection
remote = mmRemote();
remote.connect();
setConnectorPath(connectorName)
# find center of current selection, and then shoot ray from below this point, straight upwards, and
# hope that it hits outer shell
centroid = mm.get_face_selection_centroid(remote)
sel_ctr = centroid
(bFound, selFrame) = mm.find_ray_hit(remote, mm.addv3(sel_ctr, (0,-10,0)), (0,1,0) )
# exit out of selection tool
mm.clear_face_selection(remote)
# import part we want to position at selection
cwd = os.getcwd()
socketPath = os.path.join(cwd,'socket',connectorName)
new_objs = mm.append_objects_from_file(remote, socketPath);
# rename part
mm.set_object_name(remote, new_objs[0], ConnectorName() )
# select new part
mm.select_objects(remote, new_objs)
# get bbox of part, so that we can put origin at bottom of cylinder if desired (assume file authored that way)
(min,max) = mm.get_selected_bounding_box(remote)
partTop = ( (min[0]+max[0])/2, max[1], (min[2]+max[2])/2 )
partCenter = ( (min[0]+max[0])/2, (min[1]+max[1])/2, (min[2]+max[2])/2 )
partH = max[1]-min[1]
# RMS HACK BECAUSE OF UNITS STUPID
plane_cut_setback = partH * 0.5
# start transform tool
mm.begin_tool(remote, "transform")
cur_origin = mm.get_toolparam(remote, "origin")
dy = 0.5*partH
# [RMS] currently assuming that leg is oriented wrt axis, so we keep connector vertical
# compute and apply rotation
#rotation = mm.make_matrix_from_axes(selFrame.x, mm.negv3(selFrame.z), selFrame.y )
#mm.set_toolparam(remote, "rotation", rotation )
# translate origin of part to frame origin
translate = mm.subv3( selFrame.origin, cur_origin )
# shift along frame Z to place bottom of part on surface (ie at frame origin)
translate = mm.addv3( translate, mm.mulv3s( selFrame.z, dy ) )
mm.set_toolparam(remote, "translation", translate )
# accept xform
if do_accept:
mm.accept_tool(remote)
remote.shutdown()
def import_connector(do_accept):
# initialize connection
remote = mmRemote();
remote.connect();
# find center of current selection, and then shoot ray from below this point, straight upwards, and
# hope that it hits outer shell
centroid = mm.get_face_selection_centroid(remote)
sel_ctr = centroid
(bFound, selFrame) = mm.find_ray_hit(remote, mm.addv3(sel_ctr, (0,-10,0)), (0,1,0) )
# exit out of selection tool
mm.clear_face_selection(remote)
# import part we want to position at selection
cwd = os.getcwd()
socketPath = os.path.join(cwd,'socket','socket.obj')
new_objs = mm.append_objects_from_file(remote, socketPath);
# rename part
mm.set_object_name(remote, new_objs[0], ConnectorName() )
# select new part
mm.select_objects(remote, new_objs)
# get bbox of part, so that we can put origin at bottom of cylinder if desired (assume file authored that way)
(min,max) = mm.get_selected_bounding_box(remote)
partTop = ( (min[0]+max[0])/2, max[1], (min[2]+max[2])/2 )
partCenter = ( (min[0]+max[0])/2, (min[1]+max[1])/2, (min[2]+max[2])/2 )
partH = max[1]-min[1]
# RMS HACK BECAUSE OF UNITS STUPID
plane_cut_setback = partH * 0.5
# start transform tool
mm.begin_tool(remote, "transform")
cur_origin = mm.get_toolparam(remote, "origin")
dy = 0.5*partH
# [RMS] currently assuming that leg is oriented wrt axis, so we keep connector vertical
# compute and apply rotation
#rotation = mm.make_matrix_from_axes(selFrame.x, mm.negv3(selFrame.z), selFrame.y )
#mm.set_toolparam(remote, "rotation", rotation )
# translate origin of part to frame origin
translate = mm.subv3( selFrame.origin, cur_origin )
# shift along frame Z to place bottom of part on surface (ie at frame origin)
translate = mm.addv3( translate, mm.mulv3s( selFrame.z, dy ) )
mm.set_toolparam(remote, "translation", translate )
# accept xform
if do_accept:
mm.accept_tool(remote)
remote.shutdown()
# save initial selection list initial_selection = mm.list_selected_objects(r) # generate shell using Offset tool mm.select_all(r) mm.begin_tool(r, "offset") mm.set_toolparam(r, "offsetWorld", 1.25) mm.accept_tool(r) # now Offset is done, and shell is selected. Next we Separate it mm.begin_tool(r, "separate") mm.accept_tool(r) # read back current selection (will be shell) shell_objects = mm.list_selected_objects(r) mm.set_object_name(r, shell_objects[0], "shell") # set current as target (will be offset shell) mm.set_as_target(r) # restore original selection mm.select_objects(r, initial_selection) # select an area on the surface (found,sfc_pt) = mm.find_nearest(r, (1,1,1)) mm.select_inside_sphere(r, sfc_pt.origin, mm.toS(r,10.0)) # run Attract to Target tool mm.begin_tool(r, "attractToTarget") mm.accept_tool(r)
# save initial selection list initial_selection = mm.list_selected_objects(r) # generate shell using Offset tool mm.select_all(r) mm.begin_tool(r, "offset") mm.set_toolparam(r, "offsetWorld", 1.25) mm.accept_tool(r) # now Offset is done, and shell is selected. Next we Separate it mm.begin_tool(r, "separate") mm.accept_tool(r) # read back current selection (will be shell) shell_objects = mm.list_selected_objects(r) mm.set_object_name(r, shell_objects[0], "shell") # set current as target (will be offset shell) mm.set_as_target(r) # restore original selection mm.select_objects(r, initial_selection) # select an area on the surface (found, sfc_pt) = mm.find_nearest(r, (1, 1, 1)) mm.select_inside_sphere(r, sfc_pt.origin, mm.toS(r, 10.0)) # run Attract to Target tool mm.begin_tool(r, "attractToTarget") mm.accept_tool(r)
