diff --git a/release/scripts/object_cookie_cutter.py b/release/scripts/object_cookie_cutter.py
new file mode 100755
index 00000000000..ce03500f4de
--- /dev/null
+++ b/release/scripts/object_cookie_cutter.py
@@ -0,0 +1,659 @@
+#!BPY
+"""
+Name: 'Cookie Cut from View'
+Blender: 234
+Group: 'Object'
+Tooltip: 'Cut from the view axis, (Sel Meshes (only edges) into other meshes with faces)'
+""" 
+__author__= "Campbell Barton"
+__url__= ["blender", "blenderartist"]
+__version__= "1.0"
+
+__bpydoc__= """\
+This script takes the selected mesh objects, devides them into 2 groups
+Cutters and The objects to be cut.
+
+Cutters are meshes with no faces, just edge loops. and any meshes with faces will be cut.
+
+Usage:
+
+Select 2 or more meshes, one with no faces (a closed polyline) and one with faces to cut.
+
+Align the view on the axis you want to cut.
+For shapes that have overlapping faces (from the view), hide any backfacing faces so they will be ignored during the cut.
+Run the script.
+
+You can choose to make the cut verts lie on the face that they were cut from or on the edge that cut them.
+This script supports UV coordinates and images.
+"""
+
+
+import Blender
+import BPyMathutils
+from math import sqrt
+reload(BPyMathutils)
+lineIntersect2D= BPyMathutils.lineIntersect2D
+Vector= Blender.Mathutils.Vector
+
+# Auto class
+def auto_class(slots):
+	exec('class container_class(object): __slots__=%s' % slots)
+	return container_class
+
+
+bignum= 1<<30
+def bounds_xy(iter_item):
+	'''
+	Works with types
+	MMesh.verts
+	MFace
+	MEdge
+	'''
+	xmin= ymin=  bignum
+	xmax= ymax= -bignum
+	for v in iter_item:
+		x= v.co.x
+		y= v.co.y
+		if x<xmin: xmin= x
+		if y<ymin: ymin= y
+		if x>xmax: xmax= x
+		if y>ymax: ymax= y
+	
+	return xmin, ymin, xmax, ymax
+	
+def bounds_intersect(a,b):
+	'''
+	each tuple is
+	xmin, ymin, xmax, ymax
+	'''
+	if\
+	a[0]>b[2] or\
+	a[1]>b[3] or\
+	a[2]<b[0] or\
+	a[3]<b[1]:
+		return False
+	else:
+		return True
+
+def point_in_bounds(pt, bounds):
+	'''
+	each tuple is
+	xmin, ymin, xmax, ymax
+	'''	
+	if\
+	pt.x<bounds[0] or\
+	pt.y<bounds[1] or\
+	pt.x>bounds[2] or\
+	pt.y>bounds[3]:
+		return False
+	else:
+		return True
+	
+	
+def point_in_poly2d(pt, fvco):
+	crazy_point= Vector(pt) # A point far outside the range of the terrain.
+	crazy_point.x= crazy_point.x - 10000000
+	
+	#fvco= [v.co for v in face]
+	isect=0
+	for i in xrange(len(fvco)):
+		isect+= (lineIntersect2D(pt, crazy_point, fvco[i], fvco[i-1])[0] != None)
+	
+	return isect%2 # odd number is an intersect which wouold be true (inside the face) 
+	
+
+# reuse me more.
+def sorted_edge_indicies(ed):
+	i1= ed.v1.index
+	i2= ed.v2.index
+	if i1>i2:
+		i1,i2= i2,i1
+	return i1, i2
+
+def sorted_indicies(i1, i2):
+	if i1>i2:
+		i1,i2= i2,i1
+	return i1, i2
+
+def fake_length2d(pt1, pt2):
+	'''
+	Only used for comparison so dont sqrt
+	'''
+	#return math.sqrt(abs(pow(x1-x2, 2)+ pow(y1-y2, 2)))
+	return pow(pt1[0]-pt2[0], 2) + pow(pt1[1]- pt2[1], 2)
+
+def length2d(pt1, pt2):
+	'''
+	Only used for comparison so dont sqrt
+	'''
+	#return math.sqrt(abs(pow(x1-x2, 2)+ pow(y1-y2, 2)))
+	return sqrt(pow(pt1[0]-pt2[0], 2) + pow(pt1[1]- pt2[1], 2))
+
+
+
+def tri_area_2d(v1, v2, v3):
+	e1 = length2d(v1, v2)
+	e2 = length2d(v2, v3)
+	e3 = length2d(v3, v1)
+	p = e1+e2+e3
+	return 0.25 * sqrt(abs(p*(p-2*e1)*(p-2*e2)*(p-2*e3)))
+
+def tri_pt_find_z_2d(pt, tri):
+	""" Takes a face and 3d vector and assigns teh vectors Z to its on the face"""
+	
+	l1= tri_area_2d(tri[1], tri[2], pt)
+	l2= tri_area_2d(tri[0], tri[2], pt)
+	l3= tri_area_2d(tri[0], tri[1], pt)
+	
+	tot= l1+l2+l3
+	# Normalize
+	l1=l1/tot
+	l2=l2/tot
+	l3=l3/tot
+	
+	z1= tri[0].z*l1
+	z2= tri[1].z*l2
+	z3= tri[2].z*l3
+	
+	return z1+z2+z3
+
+
+def tri_pt_find_uv_2d(pt, tri, uvs):
+	""" Takes a face and 3d vector and assigns teh vectors Z to its on the face"""
+	
+	l1= tri_area_2d(tri[1], tri[2], pt)
+	l2= tri_area_2d(tri[0], tri[2], pt)
+	l3= tri_area_2d(tri[0], tri[1], pt)
+	
+	tot= l1+l2+l3
+	if not tot: # No area, just return the first uv
+		return Vector(uvs[0])
+	
+	# Normalize
+	l1=l1/tot
+	l2=l2/tot
+	l3=l3/tot
+	
+	uv1= uvs[0]*l1
+	uv2= uvs[1]*l2
+	uv3= uvs[2]*l3
+	
+	return uv1+uv2+uv3
+
+
+
+
+def mesh_edge_dict(me):
+	ed_dict= {}
+	for f in me.faces:
+		if not f.hide:
+			fidx= [v.index for v in f]
+			for i in xrange(len(fidx)):
+				edkey= sorted_indicies(fidx[i], fidx[i-1])
+				try:
+					ed_dict[edkey].append(f)
+				except:
+					ed_dict[edkey]= [f]
+	
+	return ed_dict
+
+
+
+def terrain_cut_2d(t, c, PREF_Z_LOC):
+	'''
+	t is the terrain
+	c is the cutter
+	
+	PREF_Z_LOC:		0 - from terrain face
+					1 - from cutter edge
+					
+	returns nothing
+	'''
+	
+	# do we have a 2d intersection
+	if not bounds_intersect(t.bounds, c.bounds):
+		return
+	
+	# Local vars
+	me_t= t.mesh
+	me_c= c.mesh
+	
+	has_uv= me_t.faceUV
+
+	Blender.Mesh.Mode(Blender.Mesh.SelectModes['VERTEX'])
+	'''
+	first assign a face terrain face for each cutter verticie
+	'''
+	cut_verts_temp= list(me_c.verts)
+	cut_vert_terrain_faces= [None] * len(me_c.verts)
+	vert_z_level= [-10.0] * len(me_c.verts)
+	
+	for v in me_c.verts:
+		v_index= v.index
+		v_co= v.co
+		for fidx, f in enumerate(me_t.faces):
+			if not f.hide:
+				if point_in_bounds(v_co, t.face_bounds[fidx]):
+					f_v= [vv.co for vv in f]
+					if point_in_poly2d(v_co, f_v):
+						
+						
+						if PREF_Z_LOC==0:
+							'''
+							Get the z location from the face.
+							'''
+							
+							if len(f_v)==3:
+								vert_z_level[v_index]= tri_pt_find_z_2d(v_co, (f_v[0], f_v[1], f_v[2]) )
+							else:
+								# Quad, which side are we on?
+								a1= tri_area_2d(f_v[0], f_v[1], v_co)
+								a2= tri_area_2d(f_v[1], f_v[2], v_co)
+								
+								a3= tri_area_2d(f_v[0], f_v[1], f_v[2])
+								
+								if a1+a2<a3:
+									vert_z_level[v_index]= tri_pt_find_z_2d(v_co, (f_v[0], f_v[1], f_v[2]) )
+								else:
+									vert_z_level[v_index]= tri_pt_find_z_2d(v_co, (f_v[0], f_v[2], f_v[3]) )
+							
+						else: # PREF_Z_LOC==1
+							'''
+							Get the z location from the vert
+							'''
+							vert_z_level[v_index]= v_co.z
+						
+						# Non overlapping faces in terrain mean we can break
+						cut_vert_terrain_faces[v_index]= f
+						break
+	
+	del cut_verts_temp
+	
+	
+	
+	edge_intersections= []
+	edge_isect_type= auto_class(['point', 'ed_terrain', 'ed_cut'])
+	
+	# intersect cutter faces with terrain edges.
+	for ei_t, ed_t in enumerate(me_t.edges):
+		
+		eb_t= t.edge_bounds[ei_t]
+		if bounds_intersect(eb_t, c.bounds): # face/cutter bounds intersect?
+			# Loop through the cutter edges.
+			for ei_c, ed_c in enumerate(me_c.edges):
+				# If the cutter edge has 2 verts inside the same face then we can ignore it
+				# Bothe are different faces or None
+				if cut_vert_terrain_faces[ed_c.v1.index] != cut_vert_terrain_faces[ed_c.v2.index] or\
+				cut_vert_terrain_faces[ed_c.v1.index] == cut_vert_terrain_faces[ed_c.v2.index] == None:
+					eb_c= c.edge_bounds[ei_c]
+					if bounds_intersect(eb_t, eb_c): # face/edge bounds intersect?
+						# Now we know the 2 edges might intersect, we'll do a propper test
+						
+						xi, yi= lineIntersect2D(ed_t.v1.co, ed_t.v2.co,   ed_c.v1.co, ed_c.v2.co)					
+						if xi != None:
+							
+							ed_isect= edge_isect_type()
+							ed_isect.point= Vector(xi,yi,0) # fake 3d
+							
+							# Find the interpolation Z point
+							
+							if PREF_Z_LOC==0:	
+								'''
+								Terrains edge
+								'''
+								l1= length2d(ed_isect.point, ed_t.v1.co)
+								l2= length2d(ed_isect.point, ed_t.v2.co)
+								ed_isect.point.z= ((l2*ed_t.v1.co.z) + (l1*ed_t.v2.co.z)) / (l1+l2)
+							else:
+								'''
+								Cutters edge
+								'''
+								l1= length2d(ed_isect.point, ed_c.v1.co)
+								l2= length2d(ed_isect.point, ed_c.v2.co)
+								ed_isect.point.z= ((l2*ed_c.v1.co.z) + (l1*ed_c.v2.co.z)) / (l1+l2)
+							
+							ed_isect.ed_terrain= ed_t
+							ed_isect.ed_cut= ed_c
+							
+							edge_intersections.append(ed_isect)
+	
+	if not edge_intersections:
+		return
+
+	# Now we have collected intersections we need to apply them
+	
+	# Find faces that have intersections, these faces will need to be cut.
+	faces_intersecting= {} # face index as key, list of edges as values
+	for ed_isect in edge_intersections:
+		
+		try:
+			faces= t.edge_dict[ sorted_edge_indicies(ed_isect.ed_terrain) ]
+		except:
+			# If the faces are hidden then the faces wont exist.
+			faces= []
+		
+		for f in faces:
+			try:
+				faces_intersecting[f.index].append(ed_isect)
+			except:
+				faces_intersecting[f.index]= [ed_isect]
+				
+	# this list is used to store edges that are totaly inside a face ( no intersections with terrain)
+	# we can remove these as we
+	face_containing_edges= [[] for i in xrange(len(me_t.faces))]
+	for ed_c in me_c.edges:
+		if cut_vert_terrain_faces[ed_c.v1.index]==cut_vert_terrain_faces[ed_c.v2.index] != None:
+			# were inside a face.
+			face_containing_edges[cut_vert_terrain_faces[ed_c.v1.index].index].append(ed_c)
+			
+	# New Mesh for filling faces only
+	new_me= Blender.Mesh.New()
+	scn= Blender.Scene.GetCurrent()
+	ob= Blender.Object.New('Mesh')
+	ob.link(new_me)
+	scn.link(ob)
+	ob.sel= True
+	
+	new_faces= []
+	new_faces_props= []
+	new_uvs= []
+	new_verts= []
+	
+	# Loop through inter
+	for fidx_t, isect_edges in faces_intersecting.iteritems():
+		f= me_t.faces[fidx_t]
+		f_v= f.v
+		fidxs_s= [v.index for v in f_v]
+		
+		# Make new fake edges for each edge, each starts as a list of 2 verts, but more verts can be added
+		# This list will then be sorted so the edges are in order from v1 to v2 of the edge.
+		face_new_verts= [ (f_v[i], [], f_v[i-1]) for i in xrange(len(f_v)) ]
+		# if len(face_new_verts)  < 3: raise 'weirdo'
+		
+		face_edge_dict = dict( [(sorted_indicies(fidxs_s[i], fidxs_s[i-1]), i) for i in xrange(len(f_v))] )
+		
+		for ed_isect in isect_edges:
+			edge_index_in_face = face_edge_dict[ sorted_edge_indicies(ed_isect.ed_terrain) ]
+			# Add this intersection to the face
+			face_new_verts[edge_index_in_face][1].append(ed_isect)
+		
+		# Now sort the intersections
+		for new_edge in face_new_verts:
+			if len(new_edge[1]) > 1:
+				# We have 2+ verts to sort
+				edv1= tuple(new_edge[0].co) # 3d but well only use the 2d part
+				new_edge[1].sort(lambda a,b: cmp(fake_length2d(a.point, edv1), fake_length2d(b.point, edv1) ))
+		
+		# now build up a new face by getting edges
+		random_face_edges= []
+		unique_verts= [] # store vert
+		rem_double_edges= {}
+		
+		def add_edge(p1, p2):
+			k1= tuple(p1)
+			k2= tuple(p2)
+			
+			# Adds new verts where needed
+			try:
+				i1= rem_double_edges[k1]
+			except:
+				i1= rem_double_edges[k1]= len(rem_double_edges)
+				unique_verts.append(k1)
+			
+			try:
+				i2= rem_double_edges[k2]
+			except:
+				i2= rem_double_edges[k2]= len(rem_double_edges)
+				unique_verts.append(k2)
+				
+			random_face_edges.append( (i1, i2) )
+		
+		
+		
+		# edges that dont have a vert in the face have to span between to intersection points
+		# since we dont know the other point at any 1 time we need to remember edges that 
+		# span a face and add them once we'v collected both
+		# first add outline edges
+		edge_span_face= {}
+		for new_edge in face_new_verts:
+			new_edge_subdiv= len(new_edge[1])
+			if new_edge_subdiv==0:
+				# no subdiv edges, just add
+				add_edge(new_edge[0].co, new_edge[2].co)
+			elif new_edge_subdiv==1:
+				add_edge(new_edge[0].co, new_edge[1][0].point)
+				add_edge(new_edge[1][0].point, new_edge[2].co)
+			else:
+				# 2 or more edges
+				add_edge(new_edge[0].co, new_edge[1][0].point)
+				add_edge(new_edge[1][-1].point, new_edge[2].co)
+				
+				# now add multiple
+				for i in xrange(new_edge_subdiv-1):
+					add_edge(new_edge[1][i].point, new_edge[1][i+1].point)
+				
+			# done adding outline
+			# while looping through the edge subdivs, add the edges that intersect
+			
+			
+			for ed_isect in new_edge[1]:
+				ed_cut= ed_isect.ed_cut
+				if cut_vert_terrain_faces[ed_cut.v1.index]==f:
+					# our first vert is inside the face
+					point= Vector(ed_cut.v1.co)
+					point.z= vert_z_level[ed_cut.v1.index]
+					
+					add_edge(point, ed_isect.point)
+				elif cut_vert_terrain_faces[ed_cut.v2.index]==f:
+					# assume second vert is inside the face
+					point= Vector(ed_cut.v2.co)
+					point.z= vert_z_level[ed_cut.v2.index]
+					add_edge(point, ed_isect.point)
+				else:
+					# this edge has no verts in the face so it will need to be clipped in 2 places
+					try:
+						point= edge_span_face[ed_cut]
+						
+						# if were here it worked ;)
+						add_edge(point, ed_isect.point)
+						
+					except:
+						# add the first intersecting point
+						edge_span_face[ed_cut]= ed_isect.point
+					
+			# now add all edges that are inside the the face
+			for ed_c in face_containing_edges[fidx_t]:
+				point1= Vector(ed_c.v1.co)
+				point2= Vector(ed_c.v2.co)
+				point1.z= vert_z_level[ed_c.v1.index]
+				point2.z= vert_z_level[ed_c.v2.index]
+				add_edge(point1, point2)
+		
+		new_me.verts.extend(unique_verts)
+		new_me.edges.extend(random_face_edges)
+		new_me.sel= 1
+		
+		# backup the z values, fill and restore
+		
+		backup_z= [v.co.z for v in new_me.verts]
+		for v in new_me.verts: v.co.z= 0
+		#raise 'as'
+		new_me.fill()
+		for i, v in enumerate(new_me.verts): v.co.z= backup_z[i]
+		
+		
+		# ASSIGN UV's
+		if has_uv:
+			f_uv= f_uv_mod= f.uv
+			f_vco= f_vco_mod= [v.co for v in f]
+			
+			# f is the face, get the uv's from that.
+			
+			uvs= [None] * len(new_me.verts)
+			for i, v in enumerate(new_me.verts):
+				v_co= v.co
+				f_uv_mod= f_uv
+				f_vco_mod= f_vco
+				
+				if len(f_v)==4:
+					# Quad, which side are we on?
+					a1= tri_area_2d(f_vco[0], f_vco[1], v_co)
+					a2= tri_area_2d(f_vco[1], f_vco[2], v_co)
+					
+					a3= tri_area_2d(f_vco[0], f_vco[1], f_vco[2])
+					if a1+a2 > a3:
+						# 0,2,3
+						f_uv_mod= f_uv[0], f_uv[2], f_uv[3]
+						f_vco_mod= f_vco[0], f_vco[2], f_vco[3]
+					# else - side of 0,1,2 - dont modify the quad
+				
+				uvs[i]= tri_pt_find_uv_2d(v_co, f_vco_mod, f_uv_mod)	
+			
+			new_uvs.extend(uvs)
+			new_faces_props.extend( [f.image] * len(new_me.faces) )
+			
+		# collect the fill results
+		new_verts_len= len(new_verts) + len(me_t.verts)
+		new_faces.extend( [[v.index+new_verts_len for v in ff] for ff in new_me.faces] )
+		
+		
+		
+		new_verts.extend(unique_verts)
+		
+		new_me.verts= None
+		#raise 'error'
+	
+	# Finished filling
+	scn.unlink(ob)
+	
+	
+	# Remove faces
+	face_len = len(me_t.faces)
+	verts_len = len(me_t.verts)
+	me_t.verts.extend(new_verts)
+	me_t.faces.extend(new_faces)
+	
+	for i in xrange(len(new_faces)):
+		f= me_t.faces[face_len+i]
+		
+		if has_uv:
+			img= new_faces_props[i]
+			if img: f.image= img
+			
+			f_uv= f.uv
+			for ii, v in enumerate(f):
+				v_index= v.index-verts_len
+				new_uv= new_uvs[v_index]
+				uv= f_uv[ii]
+				uv.x= new_uv.x
+				uv.y= new_uv.y
+			
+			for col in f.col:
+				col.r= col.g= col.b= 255
+	
+	me_t.faces.delete(1, faces_intersecting.keys())
+	me_t.sel= 1
+	me_t.remDoubles(0.0000001)
+	
+	
+def main():
+	PREF_Z_LOC= Blender.Draw.PupMenu('Cut Z Location%t|Original Faces|Cutting Polyline')
+	
+	if PREF_Z_LOC==-1:
+		return
+	PREF_Z_LOC-=1
+	
+	Blender.Window.WaitCursor(1)
+	
+	print '\nRunning Cookie Cutter'
+	time= Blender.sys.time()
+	
+	obs= [ob for ob in Blender.Object.GetSelected() if ob.getType()=='Mesh']
+	
+	
+	# Divide into 2 lists- 1 with faces, one with only edges
+	terrains=	[] #[me for me in mes if me.faces]
+	cutters=	[] #[me for me in mes if not me.faces]
+	
+	terrain_type= auto_class(['mesh', 'bounds', 'face_bounds', 'edge_bounds', 'edge_dict', 'cutters', 'matrix'])
+	
+	for ob in obs:
+		me= ob.getData(mesh=1)
+		
+		# a new terrain instance
+		t= terrain_type()
+		
+		t.matrix= ob.matrixWorld * Blender.Window.GetViewMatrix()
+		
+		# Transform the object by its matrix
+		me.transform(t.matrix)
+		
+		# Set the terrain bounds
+		t.bounds=		bounds_xy(me.verts)
+		t.edge_bounds= 	[bounds_xy(ed) for ed in me.edges]
+		t.mesh=			me
+
+		
+		if me.faces: # Terrain.
+			t.edge_dict=					mesh_edge_dict(me)
+			t.face_bounds=					[bounds_xy(f) for f in me.faces]
+			t.cutters= 						[] # Store cutting objects that cut us here
+			terrains.append(t)
+		elif len(me.edges)>2: # Cutter
+			cutters.append(t)
+	
+	totcuts= len(terrains)*len(cutters)
+	if not totcuts:
+		Blender.Window.WaitCursor(0)
+		Blender.Draw.PupMenu('ERROR%t|Select at least 1 closed loop mesh (edges only)|as the cutter...|and 1 or more meshes to cut into')
+	
+	crazy_point= Vector(100000, 100000)
+	
+	for t in terrains:
+		for c in cutters:
+			# Main curring function
+			terrain_cut_2d(t, c, PREF_Z_LOC)
+			
+			# Was the terrain touched?
+			if len(t.face_bounds) != len(t.mesh.faces):
+				t.edge_dict=					mesh_edge_dict(t.mesh)
+				# remake the bounds
+				t.edge_bounds=					[bounds_xy(ed) for ed in t.mesh.edges]
+				t.face_bounds=					[bounds_xy(f) for f in t.mesh.faces]
+				t.cutters.append(c)
+			
+			print '\t%i remaining' % totcuts
+			totcuts-=1
+		
+		# SELECT INTERNAL FACES ONCE THIS TERRAIN IS CUT
+		Blender.Mesh.Mode(Blender.Mesh.SelectModes['FACE'])
+		t.mesh.sel= 0
+		for c in t.cutters:
+			edge_verts_c= [(ed_c.v1.co, ed_c.v2.co) for ed_c in c.mesh.edges]
+			for f in t.mesh.faces:
+				# How many edges do we intersect on our way to the faces center
+				if not f.hide and not f.sel: # Not alredy selected
+					c= f.cent
+					if point_in_bounds(c, t.bounds):
+						isect_count= 0
+						for edv1, edv2 in edge_verts_c:
+							xi, yi= lineIntersect2D(c, crazy_point,  edv1, edv2)
+							if xi!=None:
+								isect_count+=1
+						
+						if isect_count%2:
+							f.sel= 1
+	Blender.Mesh.Mode(Blender.Mesh.SelectModes['FACE'])
+	
+	
+	# Restore the transformation
+	for data in (terrains, cutters):
+		for t in data:
+			t.mesh.transform(t.matrix.inverted())
+	
+	Blender.Window.WaitCursor(0)
+	print 'terrains:%i cutters %i  %.2f secs taken' % (len(terrains), len(cutters), Blender.sys.time()-time)
+
+
+if __name__=='__main__':
+	main()
\ No newline at end of file