def __init__(self):
Component.__init__(self)
#Any method and property missing will be given user feedback by python's traceback
self.new(subsysA())
self.new(subsysB())
self.link(....)
...
def __init__(self,sschema,xrpr=None):
Component.__init__(self,sschema,xrpr)
if xrpr is not None:
if xrpr.documentation is not None:
self.documentation=map(lambda a:a.elt.elt,xrpr.documentation)
if xrpr.appinfo is not None:
self.appinfo=map(lambda a:a.elt.elt,xrpr.appinfo)
def __init__(self, obj, system, material, part):
Component.__init__(self, obj, system, material)
#obj.addProperty("App::PropertyFloat", "BendingStiffness", "Component", "Bending stiffness of the Component")
obj.addProperty("App::PropertyFloat", "AreaMomentOfInertia",
"Structural", "Area moment of intertia.")
obj.setEditorMode("AreaMomentOfInertia", 1)
obj.addProperty("App::PropertyFloat", "RadiusOfGyration", "Structural",
"Radius of gyration.")
obj.setEditorMode("RadiusOfGyration", 1)
obj.addProperty("App::PropertyLink", "Part", "Structural",
"Reference to Part")
obj.setEditorMode("Part", 1)
obj.addProperty("App::PropertyLinkSub", "ShapeLink", "Structural",
"Reference to Shape of Part")
obj.addProperty("App::PropertyFloatList", "Velocity", "Subsystem",
"Mean velocity.")
obj.setEditorMode('Velocity', 1)
obj.addProperty("App::PropertyFloatList", "VelocityLevel", "Subsystem",
"Velocity level.")
obj.setEditorMode('VelocityLevel', 1)
obj.Part = part
obj.ShapeLink = (obj.Part, ['Shape'])
obj.Label = part.Label + '_' + obj.ClassName
def __init__(self, src, actor=None):
Component.__init__(self, actor)
# TODO Include a mesh name (e.g. 'Dragon') as ID as well as src (e.g. '../res/models/Dragon.obj')
self.src = src
self.filepath = Context.getInstance().getResourcePath('models', src)
# OpenGL version-dependent code (NOTE assumes major version = 3)
self.vao = None
if Context.getInstance().GL_version_minor > 0: # 3.1 (or greater?)
self.vao = glGenVertexArrays(1)
else: # 3.0 (or less?)
self.vao = GLuint(0)
glGenVertexArrays(1, self.vao)
glBindVertexArray(self.vao)
self.loadModel(self.filepath)
self.vbo = VBO(self.meshData, GL_STATIC_DRAW)
self.vbo.bind()
glEnableVertexAttribArray(0)
glVertexAttribPointer(0, 3, GL_FLOAT, GL_FALSE, 6 * 4, self.vbo + 0)
glEnableVertexAttribArray(1)
glVertexAttribPointer(1, 3, GL_FLOAT, GL_FALSE, 6 * 4, self.vbo + 12)
self.ebo = glGenBuffers(1)
glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, self.ebo)
glBufferData(GL_ELEMENT_ARRAY_BUFFER,
len(self.elements) * 4, self.elements, GL_STATIC_DRAW)
def __init__(self,
fanout,
depth,
spread=default_spread,
rootColor=default_rootColor,
edgeColor=default_edgeColor,
scale=default_scale,
actor=None):
Component.__init__(self, actor)
self.fanout = fanout
self.depth = depth
self.spread = spread
self.rootColor = rootColor
self.edgeColor = edgeColor
self.scale = scale
self.rootScale = self.scale # NOTE this will also apply to children
#self.childScale = np.float32([1.0, 1.0, 1.0]) # NOTE this will get compounded if the radial tree is a true hierarchy, better to use scale = 1 (default)
# Recursively generate radial tree
treeRoot = self.createRadialTree(
self.fanout, self.depth, self.spread,
isRoot=True) # creates full hierarchy and returns root actor
treeRoot.components['Transform'] = Transform(
rotation=np.random.uniform(-pi / 2, pi / 2, size=3),
scale=self.rootScale,
actor=treeRoot
) # NOTE random rotation ensures child vectors are not always generated close to the same canonical vectors
treeRoot.components['Material'] = Material(color=self.rootColor,
actor=treeRoot)
treeRoot.components['Mesh'] = Mesh.getMesh(src=self.treeRootModelFile,
actor=treeRoot)
# Attach this hierarchy to current actor
self.actor.children.append(treeRoot)
def __init__(self, radius=default_radius, highlight=None, actor=None): Component.__init__(self, actor) self.radius = radius self.highlight = highlight self.isHighlighted = False # a runtime property indicating whether this actor should be highlighted (due to a collision) self.normalColor = None # will be set on first highlight
def __init__(self, src, actor=None):
Component.__init__(self, actor)
# TODO Include a mesh name (e.g. 'Dragon') as ID as well as src (e.g. '../res/models/Dragon.obj')
self.src = src
self.filepath = Context.getInstance().getResourcePath('models', src)
# OpenGL version-dependent code (NOTE assumes major version = 3)
self.vao = None
if Context.getInstance().GL_version_minor > 0: # 3.1 (or greater?)
self.vao = glGenVertexArrays(1)
else: # 3.0 (or less?)
self.vao = GLuint(0)
glGenVertexArrays(1, self.vao)
glBindVertexArray(self.vao)
self.loadModel(self.filepath)
self.vbo = VBO(self.meshData, GL_STATIC_DRAW)
self.vbo.bind()
glEnableVertexAttribArray(0)
glVertexAttribPointer(0, 3, GL_FLOAT, GL_FALSE, 6*4, self.vbo+0)
glEnableVertexAttribArray(1)
glVertexAttribPointer(1, 3, GL_FLOAT, GL_FALSE, 6*4, self.vbo+12)
self.ebo = glGenBuffers(1)
glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, self.ebo)
glBufferData(GL_ELEMENT_ARRAY_BUFFER, len(self.elements)*4, self.elements, GL_STATIC_DRAW)
def __init__(self, radius=default_radius, highlight=None, actor=None):
Component.__init__(self, actor)
self.radius = radius
self.highlight = highlight
self.isHighlighted = False # a runtime property indicating whether this actor should be highlighted (due to a collision)
self.normalColor = None # will be set on first highlight
def __init__(self, plugins):
"""
@param paths: paths where to look for components
"""
self.__components = []
self.__devices = []
self.__whitelist = []
Component.__init__(self)
mods = self.__load_modules(plugins)
delayed_mods = [ mod for mod in mods if hasattr(mod, "delayed") ]
other_mods = [ mod for mod in mods if not hasattr(mod, "delayed") ]
for mod in mods:
self.__register_messages(mod)
for mod in other_mods:
self.__load_components(mod)
self.__report_loadings()
#self.emit_message(msgs.COM_EV_APP_STARTED)
if (delayed_mods):
gobject.idle_add(self.__load_delayed_modules, delayed_mods)
def __init__(self,port_type,master_num,slave_num):
Component.__init__(self)
for i in range(master_num):
eval("self.new(m%d=port_type())" %i)
eval("self.VImpPort(self.m%d)" %i)
for i in range(master_num):
eval("self.new(s%d=port_type())" %i)
eval("self.VImpPort(self.s%d)" %i)
def __init__(self):
self.__title = ""
self.__info = ""
Component.__init__(self)
Window.__init__(self, Window.TYPE_SUBWINDOW)
self.connect_closed(self.__on_close_window)
def __init__(self,sschema,xrpr):
Component.__init__(self,sschema,xrpr)
if xrpr is not None:
self.fields=map(lambda x:XPath(x.xpath,x.elt.namespaceDict),
xrpr.fields)
self.selector=XPath(xrpr.selector.xpath,
xrpr.selector.elt.namespaceDict)
self.register('identity constraint', self.schema.keyUniqueTable)
def __init__(self,sschema,xrpr=None,surrogate=None):
Component.__init__(self,sschema,xrpr)
if xrpr is not None and self.compositor:
self.particles=map(lambda p:p.component,
filter(lambda p:p.component is not None,xrpr.model))
elif surrogate is not None:
# really for errors only
self.xrpr=surrogate
def __init__(self,sschema,xrpr,attributeDeclaration=None,use=None,vct=None,
value=None):
Component.__init__(self,sschema,xrpr,None)
if use is not None:
(self.minOccurs,self.maxOccurs)=_attrOccurs[use]
if vct is not None:
self.valueConstraint=(vct,value)
if attributeDeclaration is not None:
self.attributeDeclaration=attributeDeclaration
def __init__(self,sschema,xrpr=None,term=None,surrogate=None):
Component.__init__(self,sschema,xrpr,None)
if xrpr is not None:
self.occurs=_computeMinMax(xrpr.minOccurs or "1",xrpr.maxOccurs,self)
elif surrogate is not None:
# for errors only
self.xrpr=surrogate
if term is not None:
self.term=term
def __init__(self):
Component.__init__(self)
#Users can use any dynamic feature here
self.new(fab1=AXI_FAB(PortAXI4,1,2))
self.new(x2x1=X2X(PortAXI4))
self.new(x2x2=X2X(PortAXI4))
self.link(....)
...
..
def __init__(self): Component.__init__(self) # Placeholder parameters for testing. # All diameters in mm. self.parameters['diameter'] = 77 # diameter = combustor diameter self.parameters['length'] = 77 # length defined by volume of propellant required self.parameters['wall_thickness'] = 77
def __init__(self):
Component.__init__(self)
# Placeholder parameters for testing.
# All diameters in mm.
self.parameters['diameter'] = 77
# diameter = combustor diameter
self.parameters['length'] = 77
# length defined by volume of propellant required
self.parameters['wall_thickness'] = 77
def __init__(self):
Component.__init__(self)
# create directory for thumbnails if it doesn't exist yet
try:
if (not os.path.exists(self.__THUMB_FOLDER)):
os.makedirs(self.__THUMB_FOLDER)
except:
pass
def __init__(self, master, **kargs):
Component.__init__(self, master, 'Battery Bank', **kargs)
self.chg_cycle_count = [0, 0]
self.tot_cycles = 0
self.bnk_vo = 0
self.soc = 1.0
self.cur_cap = None
self.max_dischg_cycles = None
self.max_dischg_dod = None
def __init__(self, master, **kargs):
self.curloc = None
self.air_temp = None
self.wind_spd = None
self.atmospherics = None
self.suntimes = None
Component.__init__(self, master, 'Site Definition', **kargs)
self.print_order = ['proj', 'client', 'p_desc', 'city',
'cntry', 'lat', 'lon', 'elev', 'tz',
'gv', 'gf']
def __init__(self):
Component.__init__(self)
self.new(m1=PortAXI4())
self.new(m2=PortAXI4())
self.new(s1=PortAXI4())
self.new(s2=PortAXI4())
self.VImpPort(self.m1)
self.VImpPort(self.m2)
self.VImpPort(self.s1)
self.VImpPort(self.s2)
def __init__(self,sschema,xrpr):
Component.__init__(self,sschema,xrpr)
if xrpr.memberTypes:
self.membertypeNames=map(lambda n,e=xrpr.elt,f=sschema:QName(n,e,f),
xrpr.memberTypes.split())
if xrpr.subTypes:
self.someMembers=map(lambda sub:sub.component,
xrpr.subTypes)
elif not xrpr.memberTypes:
# no elt means builtin
if xrpr.elt is not None:
self.error("union must have 'memberTypes' attribute or some SimpleType children")
def __init__(self,sschema,xrpr=None,scope=None):
if (type(scope) is types.StringType or (xrpr and xrpr.form=='qualified')):
ns='ns'
else:
ns=None
Component.__init__(self,sschema,xrpr,ns)
if xrpr is not None:
if type(scope) is types.StringType:
self.scope=scope
else:
self.scopeRepr=scope # an xrpr, component not available yet
self.abstract=xrpr.abstract or 'false'
self.nullable=xrpr.nullable or 'false'
if xrpr.substitutionGroup is not None:
self.equivClassName = QName(xrpr.substitutionGroup,xrpr.elt,
sschema)
if xrpr.final=='':
self.final=()
else:
self.final=xrpr.final.split()
if '#all' in self.final:
self.final=('restriction','extension')
if xrpr.block=='':
self.prohibitedSubstitutions=()
else:
self.prohibitedSubstitutions=xrpr.block.split()
if '#all' in self.prohibitedSubstitutions:
self.prohibitedSubstitutions=('restriction','extension','substitution')
if xrpr.type is not None:
self.typeDefinitionName=QName(xrpr.type,xrpr.elt,
sschema)
if xrpr.simpleType or xrpr.complexType:
self.error("declaration with 'type' attribute must not have nested type declaration")
elif xrpr.simpleType is not None:
self.typeDefinition=xrpr.simpleType.component
elif xrpr.complexType is not None:
self.typeDefinition=xrpr.complexType.component
elif not self.equivClassName:
self.typeDefinition=Type.urType
if xrpr.fixed is not None:
# todo: check vc against type
self.valueConstraint=('fixed',xrpr.fixed)
elif xrpr.default is not None:
self.valueConstraint=('default',xrpr.default)
self.keys=map(lambda e:e.component,xrpr.keys)
self.keyrefs=map(lambda e:e.component,xrpr.keyrefs)
self.uniques=map(lambda e:e.component,xrpr.uniques)
else:
self.keys=[]
self.uniques=[]
self.keyrefs=[]
def __init__(self):
Component.__init__(self)
self.new(m1 = PortAXI4())
self.new(m2 = PortAXI4())
self.new(s1 = PortAXI4())
self.new(s2 = PortAXI4())
self.new(fab1 = AXI_FAB_2x2())
self.new(fab2 = AXI_FAB_2x2())
self.fab1.bi_direction = True
self.fab2.bi_direction = True
self.link(self.m1,fab2.s1)
self.link(self.m2,fab2.s2)
self.link(self.s1,fab1.m1)
self.link(self.s2,fab1.m2)
self.link(fab1.s1,fab2.m1)
self.link(fab2.s2,fab2.m2)
def __init__(self, obj, system, material, position):
Component.__init__(self, obj, system, material)
obj.addProperty("App::PropertyVector", "Position", "Cavity", "Position within the cavity.")
obj.setEditorMode("Position", 1)
obj.addProperty("App::PropertyLink", "Structure", "Structure", "Fused structure.")
obj.setEditorMode("Structure", 2)
obj.addProperty("App::PropertyFloatList", "Pressure", "Subsystem", "Mean pressure.")
obj.setEditorMode('Pressure', 1)
obj.addProperty("App::PropertyFloatList", "PressureLevel", "Subsystem", "Pressure level.")
obj.setEditorMode('PressureLevel', 1)
obj.Structure = system.Structure
obj.Position = position
self.execute(obj)
def __init__(self, scale=cube_scale, actor=None):
Component.__init__(self, actor)
Trackable.__init__(self)
self.scale = scale
# Scale vertices of base cube, specify edges, and initialize list of markers
self.vertices = cube_vertices * self.scale
self.vertex_colors = cube_vertex_colors
self.vertex_scale = 0.3 * self.scale # NOTE for rendering only, depends on 3D model
self.edges = cube_edges
self.edge_scale = 0.1 * self.scale # NOTE for rendering only, depends on 3D model
self.edge_color = np.float32([0.8, 0.7, 0.5]) # NOTE for rendering only
# TODO make some of these parameters come from XML
# NOTE Mark generated child actors (corners and edges) as transient, to prevent them from being exported in XML
# Add spheres at cube corners (vertices) with appropriate color; also add color markers
for vertex, colorName in zip(self.vertices, self.vertex_colors):
vertexActor = Actor(self.actor.renderer, isTransient=True)
vertexActor.components['Transform'] = Transform(translation=vertex, scale=self.vertex_scale, actor=vertexActor)
vertexActor.components['Material'] = Material(color=colors_by_name[colorName], actor=vertexActor)
vertexActor.components['Mesh'] = Mesh.getMesh(src="SmallSphere.obj", actor=vertexActor)
self.actor.children.append(vertexActor)
marker = ColorMarker(self, colorName)
marker.worldPos = vertex
self.markers.append(marker)
# Add edges
for u, v in self.edges:
if u < len(self.vertices) and v < len(self.vertices) and self.vertices[u] is not None and self.vertices[v] is not None: # sanity check
midPoint = (self.vertices[u] + self.vertices[v]) / 2.0
diff = self.vertices[v] - self.vertices[u]
mag = np.linalg.norm(diff, ord=2)
xy_mag = hypot(diff[0], diff[1])
#zx_mag = hypot(diff[2], diff[0])
rotation = np.degrees(np.float32([atan2(diff[1], diff[0]), acos(diff[1] / mag), 0])) if (mag != 0 and xy_mag != 0) else np.float32([0.0, 0.0, 0.0])
#print "u: ", self.vertices[u], ", v: ", self.vertices[v], ", v-u: ", diff, ", mag: ", mag, ", rot:", rotation
edgeActor = Actor(self.actor.renderer, isTransient=True)
edgeActor.components['Transform'] = Transform(translation=midPoint, rotation=rotation, scale=self.edge_scale, actor=edgeActor)
edgeActor.components['Material'] = Material(color=self.edge_color, actor=edgeActor)
edgeActor.components['Mesh'] = Mesh.getMesh(src="CubeEdge.obj", actor=edgeActor) # TODO fix Z-fighting issue and use CubeEdge_cylinder.obj
self.actor.children.append(edgeActor)
def __init__(self, fanout, depth, spread=default_spread, rootColor=default_rootColor, edgeColor=default_edgeColor, scale=default_scale, actor=None): Component.__init__(self, actor) self.fanout = fanout self.depth = depth self.spread = spread self.rootColor = rootColor self.edgeColor = edgeColor self.scale = scale self.rootScale = self.scale # NOTE this will also apply to children #self.childScale = np.float32([1.0, 1.0, 1.0]) # NOTE this will get compounded if the radial tree is a true hierarchy, better to use scale = 1 (default) # Recursively generate radial tree treeRoot = self.createRadialTree(self.fanout, self.depth, self.spread, isRoot=True) # creates full hierarchy and returns root actor treeRoot.components['Transform'] = Transform(rotation=np.random.uniform(-pi/2, pi/2, size=3), scale=self.rootScale, actor=treeRoot) # NOTE random rotation ensures child vectors are not always generated close to the same canonical vectors treeRoot.components['Material'] = Material(color=self.rootColor, actor=treeRoot) treeRoot.components['Mesh'] = Mesh.getMesh(src=self.treeRootModelFile, actor=treeRoot) # Attach this hierarchy to current actor self.actor.children.append(treeRoot)
def __init__(self, obj, system, material, position):
Component.__init__(self, obj, system, material)
obj.addProperty("App::PropertyVector", "Position", "Cavity",
"Position within the cavity.")
obj.setEditorMode("Position", 1)
obj.addProperty("App::PropertyLink", "Structure", "Structure",
"Fused structure.")
obj.setEditorMode("Structure", 2)
obj.addProperty("App::PropertyFloatList", "Pressure", "Subsystem",
"Mean pressure.")
obj.setEditorMode('Pressure', 1)
obj.addProperty("App::PropertyFloatList", "PressureLevel", "Subsystem",
"Pressure level.")
obj.setEditorMode('PressureLevel', 1)
obj.Structure = system.Structure
obj.Position = position
self.execute(obj)
def __init__(self, obj, system, material, part):
Component.__init__(self, obj, system, material)
#obj.addProperty("App::PropertyFloat", "BendingStiffness", "Component", "Bending stiffness of the Component")
obj.addProperty("App::PropertyFloat", "AreaMomentOfInertia", "Structural", "Area moment of intertia.")
obj.setEditorMode("AreaMomentOfInertia", 1)
obj.addProperty("App::PropertyFloat", "RadiusOfGyration", "Structural", "Radius of gyration.")
obj.setEditorMode("RadiusOfGyration", 1)
obj.addProperty("App::PropertyLink","Part","Structural", "Reference to Part")
obj.setEditorMode("Part", 1)
obj.addProperty("App::PropertyLinkSub", "ShapeLink", "Structural", "Reference to Shape of Part")
obj.addProperty("App::PropertyFloatList", "Velocity", "Subsystem", "Mean velocity.")
obj.setEditorMode('Velocity', 1)
obj.addProperty("App::PropertyFloatList", "VelocityLevel", "Subsystem", "Velocity level.")
obj.setEditorMode('VelocityLevel', 1)
obj.Part = part
obj.ShapeLink = (obj.Part, ['Shape'])
obj.Label = part.Label + '_' + obj.ClassName
def __init__(self, channelCount, muteAudio = False):
Component.__init__(self, "PPM Audio Signal Generator")
self.SamplesPerMillisecond = 100 # min channel duration is .5ms, max is 1.5ms, usable duration is 1ms, 100% in 1ms = 100 samples
self.BitRate = self.SamplesPerMillisecond * 1000
self.LowValue = chr(0)
self.HighValue = chr(127)
self.FrameLength = 22.5 # ms
self.FrameSamples = self.SamplesPerMillisecond * self.FrameLength
self.MaximumChannelLength = self.SamplesPerMillisecond * 1.7
self.MinimumChannelLength = self.SamplesPerMillisecond * .53 # slightly more than min, input seems to swap empty channels if I don't do this
self.ChannelValueMilliseconds = self.MaximumChannelLength - self.MinimumChannelLength
self.ChannelSeparatorLength = self.SamplesPerMillisecond * .4
self.ChannelSeparatorBlock = self.LowValue * int(self.ChannelSeparatorLength)
self.__channelCount = channelCount
self.__audio = None
if not muteAudio:
self.__audio = pyaudio.PyAudio()
self.__stream = None
self.__isStarted = False
self.__buffer = self.LowValue * int(self.FrameSamples) # prime buffer with nothing, prevent stream starvation
def __init__(self,sschema,xrpr,scope=None):
if (type(scope) is types.StringType or (xrpr and xrpr.form)=='qualified'):
ns='ns'
else:
ns=None
Component.__init__(self,sschema,xrpr,ns)
if xrpr is not None:
if type(scope) is types.StringType:
self.scope=scope
if xrpr.default!=None:
self.valueConstraint=('default',xrpr.default)
elif xrpr.fixed!=None:
self.valueConstraint=('fixed',xrpr.fixed)
else:
self.scopeRepr=scope
if xrpr.type is not None:
self.typeDefinitionName=QName(xrpr.type,xrpr.elt,
sschema)
if xrpr.simpleType is not None:
self.error("declaration with 'type' attribute must not have nested type declaration")
elif xrpr.simpleType is not None:
self.typeDefinition=xrpr.simpleType.component
else:
self.typeDefinition=Type.urSimpleType
def __init__(self, emf, name, inpt_wire=None, outpt_wire=None):
self.emf = emf
Component.__init__(self,
name,
inpt_wire=inpt_wire,
outpt_wire=outpt_wire)
def __init__(self, **kwargs):
Component.__init__(self, **kwargs)
self._children = []
def __init__(self, color=np.float32([0.0, 0.0, 0.0]), actor=None): Component.__init__(self, actor) self.color = color
def __init__(self, master, **kargs):
Component.__init__(self, master, 'Battery', **kargs)
def __init__(self, master, **kargs):
self.pnlparms = None
Component.__init__(self, master, 'PV Panel', **kargs)
def __init__(self, name, children):
Component.__init__(self, name, children)
self.component_type = 'Activity'
def __init__(self, master, **kargs):
Component.__init__(self, master, 'Charge Control', **kargs)
self._chg_break = 0.85
def __init__(self, children):
Component.__init__(self, 'Black Box', children)
self.component_type = 'Black Box'
def __init__(self, master, **kargs):
Component.__init__(self, master, 'PV Array', **kargs)
def __init__(self,sschema,xrpr):
Component.__init__(self,sschema,xrpr,'ns')
# todo: assemble annotation from ([sc]Content),restriction/(extension|list/union)
if self.annotation is not None:
self.annotations=[self.annotation]
def __init__(self):
Component.__init__(self)
_Widget.__init__(self)
self.set_visible(False)
def __init__(self,sschema,xrpr,wildcard): Component.__init__(self,sschema,xrpr,None) self.wildcard=wildcard
def __init__(self, translation=np.float32([0.0, 0.0, 0.0]), rotation=np.float32([0.0, 0.0, 0.0]), scale=np.float32([1.0, 1.0, 1.0]), actor=None): Component.__init__(self, actor) self.translation = translation self.rotation = rotation self.scale = scale
def __init__(self,sschema): Component.__init__(self,sschema,None)
def __init__(self,sschema,xrpr=None,extra=0):
Component.__init__(self,sschema,xrpr)
if xrpr is not None:
self.processContents=xrpr.processContents
def __init__(self):
self.__is_active = False
Component.__init__(self)
Widget.__init__(self)
def __init__(self, scale=cube_scale, actor=None):
Component.__init__(self, actor)
Trackable.__init__(self)
self.scale = scale
# Scale vertices of base cube, specify edges, and initialize list of markers
self.vertices = cube_vertices * self.scale
self.vertex_colors = cube_vertex_colors
self.vertex_scale = 0.3 * self.scale # NOTE for rendering only, depends on 3D model
self.edges = cube_edges
self.edge_scale = 0.1 * self.scale # NOTE for rendering only, depends on 3D model
self.edge_color = np.float32([0.8, 0.7,
0.5]) # NOTE for rendering only
# TODO make some of these parameters come from XML
# NOTE Mark generated child actors (corners and edges) as transient, to prevent them from being exported in XML
# Add spheres at cube corners (vertices) with appropriate color; also add color markers
for vertex, colorName in zip(self.vertices, self.vertex_colors):
vertexActor = Actor(self.actor.renderer, isTransient=True)
vertexActor.components['Transform'] = Transform(
translation=vertex, scale=self.vertex_scale, actor=vertexActor)
vertexActor.components['Material'] = Material(
color=colors_by_name[colorName], actor=vertexActor)
vertexActor.components['Mesh'] = Mesh.getMesh(
src="SmallSphere.obj", actor=vertexActor)
self.actor.children.append(vertexActor)
marker = ColorMarker(self, colorName)
marker.worldPos = vertex
self.markers.append(marker)
# Add edges
for u, v in self.edges:
if u < len(self.vertices) and v < len(
self.vertices
) and self.vertices[u] is not None and self.vertices[
v] is not None: # sanity check
midPoint = (self.vertices[u] + self.vertices[v]) / 2.0
diff = self.vertices[v] - self.vertices[u]
mag = np.linalg.norm(diff, ord=2)
xy_mag = hypot(diff[0], diff[1])
#zx_mag = hypot(diff[2], diff[0])
rotation = np.degrees(
np.float32([
atan2(diff[1], diff[0]),
acos(diff[1] / mag), 0
])) if (mag != 0 and xy_mag != 0) else np.float32(
[0.0, 0.0, 0.0])
#print "u: ", self.vertices[u], ", v: ", self.vertices[v], ", v-u: ", diff, ", mag: ", mag, ", rot:", rotation
edgeActor = Actor(self.actor.renderer, isTransient=True)
edgeActor.components['Transform'] = Transform(
translation=midPoint,
rotation=rotation,
scale=self.edge_scale,
actor=edgeActor)
edgeActor.components['Material'] = Material(
color=self.edge_color, actor=edgeActor)
edgeActor.components['Mesh'] = Mesh.getMesh(
src="CubeEdge.obj", actor=edgeActor
) # TODO fix Z-fighting issue and use CubeEdge_cylinder.obj
self.actor.children.append(edgeActor)
def __init__(self):
Component.__init__(self)
self.port.new(s0=Port())
self.port.new(s1=Port())
self.port.new(m0=Port())
self.port.new(m1=Port())
