def handleKeyboardEvent(self, task):
keys = self.keys
dt = globalClock.getDt()
impulse = Vec3(0, 0, 0)
increment = self._impulseIncrement * dt
above_limit = self.is_above_limit
for key, vec in (("left", Vec3.left()),
("right", Vec3.right()),
("up", Vec3.forward()),
("down", Vec3.back())):
if keys[key] and (not above_limit or self.is_braking(vec)):
impulse += vec * increment
self.addImpulse(impulse)
# If Equismo was not hit by an enemy look at the movement direction.
# Otherwise look at the enemy until Equismo turns around.
if not self._hit:
self.face(self.velocity)
elif ((impulse.length() > 0) and
(self.velocity.length() > 0.5) and
(not self.is_braking(impulse))):
self._hit = False
self.doWalkAnimation(impulse)
return task.cont
def setup(self):
# setting up sector entry plane
self.detection_plane_ = self.attachNewNode(BulletRigidBodyNode(self.getName() + 'entry-plane'))
box_shape = BulletBoxShape(SECTOR_PLANE_SIZE/2)
box_shape.setMargin(SECTOR_COLLISION_MARGIN)
self.detection_plane_.node().addShape(box_shape)
self.detection_plane_.node().setMass(0)
self.detection_plane_.setPos(self,SECTOR_PLANE_POS)
self.detection_plane_.node().setIntoCollideMask(SECTOR_ENTERED_BITMASK)
self.physics_world_.attach(self.detection_plane_.node())
self.detection_plane_.node().clearBounds()
self.detection_plane_.reparentTo(self.getParent())
# sector constraint plane
self.constraint_plane_ = self.attachNewNode(BulletRigidBodyNode(self.getName()+ 'constraint-plane'))
self.constraint_plane_.node().addShape(BulletPlaneShape(Vec3(0,1,0),0))
self.constraint_plane_.node().setMass(0)
self.constraint_plane_.setPos(Vec3.zero())
self.constraint_plane_.setHpr(Vec3.zero())
self.constraint_plane_.node().setIntoCollideMask(BitMask32.allOff())
self.physics_world_.attach(self.constraint_plane_.node())
self.constraint_plane_.reparentTo(self.getParent())
# setting up objects
self.setupBoxes()
self.setupPlatforms()
def face(self, direction):
"""Makes Equismo look at a given the direction.
This method makes only heading rotations.
`direction': vector
"""
direction = Vec3(direction.x, direction.y, 0)
if direction != Vec3.zero():
direction.normalize()
currentDirection = self._currentDirection
headingAngle = direction.signedAngleDeg(currentDirection,
Vec3.down())
headingAngle += self._currentAngle
if abs(headingAngle) > 1:
interval = self.model.hprInterval(self._turningSpeed,
Point3(headingAngle, 0, 0))
interval.start()
self._currentDirection = direction
self._currentAngle = headingAngle
def update(self, task=None):
"""
Updates position of sounds in the 3D audio system. Will be called automatically
in a task.
"""
# Update the positions of all sounds based on the objects
# to which they are attached
# The audio manager is not active so do nothing
if hasattr(self.audio_manager, "getActive"):
if self.audio_manager.getActive()==0:
return Task.cont
for known_object in self.sound_dict.keys():
tracked_sound = 0
while tracked_sound < len(self.sound_dict[known_object]):
sound = self.sound_dict[known_object][tracked_sound]
pos = known_object.getPos(self.root)
vel = self.getSoundVelocity(sound)
sound.set3dAttributes(pos[0], pos[1], pos[2], vel[0], vel[1], vel[2])
tracked_sound += 1
# Update the position of the listener based on the object
# to which it is attached
if self.listener_target:
pos = self.listener_target.getPos(self.root)
forward = self.root.getRelativeVector(self.listener_target, Vec3.forward())
up = self.root.getRelativeVector(self.listener_target, Vec3.up())
vel = self.getListenerVelocity()
self.audio_manager.audio3dSetListenerAttributes(pos[0], pos[1], pos[2], vel[0], vel[1], vel[2], forward[0], forward[1], forward[2], up[0], up[1], up[2])
else:
self.audio_manager.audio3dSetListenerAttributes(0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 1)
return Task.cont
def step(self, task):
distance = ClockObject.getGlobalClock().getDt() * self.speed
rotMat = Mat3.rotateMatNormaxis(self.avatar.getH(), Vec3.up())
step = Vec3(rotMat.xform(Vec3.forward() * distance))
self.avatar.setFluidPos(Point3(self.avatar.getPos() + step))
return Task.cont
def _constrain_axis(self, body):
""" Apply existing axis constraints to a body."""
# Set displacements.
for axis, (f, d) in enumerate(zip(self.axis_constraint_fac,
self.axis_constraint_disp)):
if not f and not isnan(d):
nodep = NodePath(body)
pos = nodep.getPos()
pos[axis] = d
nodep.setPos(pos)
try:
# Linear and angular factors of 0 mean forces in the
# corresponding axis are scaled to 0.
body.setLinearFactor(self.axis_constraint_fac)
# Angular factors restrict rotation about an axis, so the
# following logic selects the appropriate axes to
# constrain.
s = sum(self.axis_constraint_fac)
if s == 3.:
v = self.axis_constraint_fac
elif s == 2.:
v = -self.axis_constraint_fac + 1
else:
v = Vec3.zero()
body.setAngularFactor(v)
except AttributeError:
# The body was not a rigid body (it didn't have
# setLinearFactor method).
pass
def matchPose(self, pose_rig):
for node, parent in pose_rig.exposed_joints:
if node.getName() not in joints_config:
continue
joint_config = joints_config[node.getName()]
if 'joints' not in joint_config:
continue
joints = joint_config['joints']
if len(joints) == 0:
continue
box_np = self.root.find(node.getName())
if len(joints) > 1:
pos = node.getPos(pose_rig.actor)
hpr = node.getHpr(pose_rig.actor)
box_np.setPosHpr(self.root, pos, hpr)
else:
joint = joints.keys()[0]
child_node, child_parent = next((child_node, child_parent) for child_node, child_parent in pose_rig.exposed_joints if child_node.getName() == joint)
box_np.setPos(child_parent, child_node.getPos(child_parent) / 2.0)
quat = Quat()
lookAt(quat, child_node.getPos(child_parent), Vec3.up())
box_np.setQuat(child_parent, quat)
box_np.node().clearForces()
def ik_leg(self):
floor_pos = self.get_floor_spot()
target_pos = self._get_target_pos()
hip_pos = self.hip_bone.get_pos(self.foot_ref)
if floor_pos and target_pos.y < floor_pos.y:
floor_pos.x = target_pos.x
target_vector = hip_pos - floor_pos
self.is_on_ground = True
else:
target_vector = hip_pos - target_pos
self.is_on_ground = False
#turn off the ground for debugging
#target_vector = hip_pos - target_pos
pt_length = target_vector.length()
if .01 < pt_length < (TOP_LEG_LENGTH + BOTTOM_LEG_LENGTH +.1):
tt_angle_cos = (math.pow(TOP_LEG_LENGTH, 2) + math.pow(pt_length, 2) - math.pow(BOTTOM_LEG_LENGTH,2))/(2*TOP_LEG_LENGTH*pt_length)
try:
target_top_angle = rad2Deg(math.acos(tt_angle_cos))
except ValueError:
return
target_vector.normalize()
self.hip_bone.get_relative_vector(self.foot_ref, target_vector)
delta = target_vector.get_xy().signed_angle_deg(Vec3.unitY().get_xy())
self.top_bone.set_p(90 - target_top_angle + delta)
tb_angle_cos = ((math.pow(TOP_LEG_LENGTH, 2) + math.pow(BOTTOM_LEG_LENGTH, 2) - math.pow(pt_length,2))/(2*TOP_LEG_LENGTH*BOTTOM_LEG_LENGTH))
target_bottom_angle = rad2Deg(math.acos(tb_angle_cos))
self.bottom_bone.set_p((180 - target_bottom_angle) * -1)
else:
return
def __estimateSize__(self):
minp = LPoint3.zero()
maxp = LPoint3.zero()
size = Vec3.zero()
if self.calcTightBounds(minp,maxp):
size = maxp - minp
return size
def create_colliders(root, pose_rig, joints_config):
for node, parent in pose_rig.exposed_joints:
if node.getName() not in joints_config:
continue
joint_config = joints_config[node.getName()]
if "joints" not in joint_config:
continue
joints = joint_config["joints"]
if len(joints) == 0:
continue
mass = joint_config["mass"] if "mass" in joint_config else 1
box_rb = BulletRigidBodyNode(node.getName())
box_rb.setMass(1.0)
# box_rb.setLinearDamping(0.2)
# box_rb.setAngularDamping(0.9)
# box_rb.setFriction(1.0)
# box_rb.setAnisotropicFriction(1.0)
# box_rb.setRestitution(0.0)
for joint in joints:
child_node, child_parent = next(
(child_node, child_parent)
for child_node, child_parent in pose_rig.exposed_joints
if child_node.getName() == joint
)
pos = child_node.getPos(child_parent)
width = pos.length() / 2.0
scale = Vec3(3, width, 3)
shape = BulletBoxShape(scale)
quat = Quat()
lookAt(quat, child_node.getPos(child_parent), Vec3.up())
if len(joints) > 1:
transform = TransformState.makePosHpr(child_node.getPos(child_parent) / 2.0, quat.getHpr())
else:
transform = TransformState.makeHpr(quat.getHpr())
box_rb.addShape(shape, transform)
box_np = root.attachNewNode(box_rb)
if len(joints) > 1:
pos = node.getPos(pose_rig.actor)
hpr = node.getHpr(pose_rig.actor)
box_np.setPosHpr(root, pos, hpr)
else:
box_np.setPos(child_parent, child_node.getPos(child_parent) / 2.0)
box_np.lookAt(child_parent, child_node.getPos(child_parent))
yield box_np
def get_normal(self):
seen = set()
points = [p for p in self.points if p not in seen and not seen.add(p)]
if len(points) >= 3:
v1 = points[0] - points[1]
v2 = points[1] - points[2]
normal = v1.cross(v2)
normal.normalize()
else:
normal = Vec3.up()
return normal
def addLedge(self,ledge, pos = Vec3.zero()):
if type(ledge) is not Ledge:
logging.error("Object is not a Ledge instance")
return False
ledge.reparentTo(self)
ledge.setPos(pos)
self.ledges_.append(ledge)
return True
def guide_missile(self, task):
try:
quat = Quat()
lookAt(quat, self.target.np.getPos() - self.missile.anp.getPos(), Vec3.up())
self.missile.anp.setQuat(quat)
fwd = quat.getForward()
fwd.normalize()
mvel = self.missile.anpo.getVelocity().length()
self.missile.anpo.setVelocity(fwd*mvel)
except:
return task.done
return task.cont
def addBox(self,name,size,pos,visual):
# Box (dynamic)
box = NodePath(BulletRigidBodyNode(name))
box.node().setMass(1.0)
box.node().addShape(BulletBoxShape(size))
box.setCollideMask(GAME_OBJECT_BITMASK)
#box.node().setLinearFactor((1,0,1))
#box.node().setAngularFactor((0,1,0))
visual.instanceTo(box)
box.reparentTo(self.getParent())
box.setPos(self,pos)
box.setHpr(self,Vec3.zero())
self.physics_world_.attachRigidBody(box.node())
self.object_nodes_.append(box)
# adding constraint
motion2d_constraint = BulletGenericConstraint(self.constraint_plane_.node(),box.node(),
TransformState.makeIdentity(),
TransformState.makeIdentity(),
False)
rot_constraint = BulletGenericConstraint(self.constraint_plane_.node(),box.node(),
TransformState.makeIdentity(),
TransformState.makeIdentity(),
False)
motion2d_constraint.setLinearLimit(0,-sys.float_info.max,sys.float_info.max)
motion2d_constraint.setLinearLimit(1,0,0)
motion2d_constraint.setLinearLimit(2,-sys.float_info.max,sys.float_info.max)
# All angular constraints must be either locked or released for the simulation to be stable
#motion2d_constraint.setAngularLimit(0,-0.1,0.1)
#motion2d_constraint.setAngularLimit(1,-100,100)
#motion2d_constraint.setAngularLimit(2,-0.1,0.1)
#motion2d_constraint.setBreakingThreshold(1000)
motion2d_constraint.setDebugDrawSize(0)
# for axis in range(0,6):
# motion2d_constraint.setParam(BulletGenericConstraint.CP_cfm,0,axis)
# motion2d_constraint.setParam(BulletGenericConstraint.CP_erp,0.4,axis)
self.physics_world_.attach(motion2d_constraint)
self.box_contraints_.append(motion2d_constraint)
return box
def update(self, task=None):
"""
Updates position of sounds in the 3D audio system. Will be called automatically
in a task.
"""
# Update the positions of all sounds based on the objects
# to which they are attached
# The audio manager is not active so do nothing
if hasattr(self.audio_manager, "getActive"):
if self.audio_manager.getActive()==0:
return Task.cont
for known_object, sounds in list(self.sound_dict.items()):
node_path = known_object.getNodePath()
if not node_path:
# The node has been deleted.
del self.sound_dict[known_object]
continue
pos = node_path.getPos(self.root)
for sound in sounds:
vel = self.getSoundVelocity(sound)
sound.set3dAttributes(pos[0], pos[1], pos[2], vel[0], vel[1], vel[2])
# Update the position of the listener based on the object
# to which it is attached
if self.listener_target:
pos = self.listener_target.getPos(self.root)
forward = self.root.getRelativeVector(self.listener_target, Vec3.forward())
up = self.root.getRelativeVector(self.listener_target, Vec3.up())
vel = self.getListenerVelocity()
self.audio_manager.audio3dSetListenerAttributes(pos[0], pos[1], pos[2], vel[0], vel[1], vel[2], forward[0], forward[1], forward[2], up[0], up[1], up[2])
else:
self.audio_manager.audio3dSetListenerAttributes(0, 0, 0, 0, 0, 0, 0, 1, 0, 0, 0, 1)
return Task.cont
def __init__(self,camera_np, name = "CameraController"):
NodePath.__init__(self,name)
self.target_np_ = None
self.camera_np_ = camera_np
self.target_tracker_np_ = self.attachNewNode("TargetTrackerNode")
self.enabled_ = True
self.smoothing_ = False
self.target_ref_np_ = None
# position tracking
self.target_locked_ = True
# rotation tracking
self.rot_pr_target_ = Vec3.zero()
self.rot_interpolation_sequence_ = Sequence()
def __init__(self, parent, model):
PhysicalNode.__init__(self, parent, model, "equismo")
self.mass = 500.0
self.addCollisionSphere(1.2)
self._impulseIncrement = 4.0
self._speedLimit = 5.0
self._turningSpeed = 0.2
self._hit = False
self._currentDirection = Vec3.forward()
self._currentAngle = 0
self.setScale(0.8)
# Little "hack" to fix orientation
# Seems that the model has its eyes in the back?!
self.actor.setH(180)
#-----------------------------------------------------------------------
# KeyboardEventHandler initialization
#-----------------------------------------------------------------------
self.keys = dict.fromkeys("left right up down".split(), 0)
set_key = self.keys.__setitem__
self.bindings = (
("w", set_key, ["up", 1]),
("a", set_key, ["left", 1]),
("s", set_key, ["down", 1]),
("d", set_key, ["right", 1]),
("w-up", set_key, ["up", 0]),
("a-up", set_key, ["left", 0]),
("s-up", set_key, ["down", 0]),
("d-up", set_key, ["right", 0]),
("arrow_up", set_key, ["up", 1]),
("arrow_left", set_key, ["left", 1]),
("arrow_down", set_key, ["down", 1]),
("arrow_right", set_key, ["right", 1]),
("arrow_up-up", set_key, ["up", 0]),
("arrow_left-up", set_key, ["left", 0]),
("arrow_down-up", set_key, ["down", 0]),
("arrow_right-up", set_key, ["right", 0]),
)
def addPlatform(self,topleft,size,name,visual):
# Box (static)
platform = self.getParent().attachNewNode(BulletRigidBodyNode(name))
platform.node().setMass(0)
platform.node().addShape(BulletBoxShape(size/2))
platform.setPos(self,Vec3(topleft[0] + 0.5*size.getX(),0,topleft[1]-0.5*size.getZ()))
platform.setHpr(self,Vec3.zero())
platform.setCollideMask(GAME_OBJECT_BITMASK)
local_visual = visual.instanceUnderNode(platform,name + '_visual')
local_visual.reparentTo(platform)
# Visual scaling
bounds = local_visual.getTightBounds()
extents = Vec3(bounds[1] - bounds[0])
scale_factor = 1/max([extents.getX(),extents.getY(),extents.getZ()])
local_visual.setScale(size.getX()*scale_factor,size.getY()*scale_factor,size.getZ()*scale_factor)
self.physics_world_.attachRigidBody(platform.node())
self.object_nodes_.append(platform)
def __applyLinearVelocity(self):
globalVel = self.movementParent.getQuat(render).xform(self.__linearVelocity) * self.__timeStep
if self.predictFutureSpace and not self.__checkFutureSpace(globalVel):
return
if self.__footContact is not None and self.minSlopeDot and self.movementState != "flying":
normalVel = Vec3(globalVel)
normalVel.normalize()
floorNormal = self.__footContact[2]
absSlopeDot = round(floorNormal.dot(Vec3.up()), 2)
def applyGravity():
self.__currentPos -= Vec3(floorNormal.x, floorNormal.y, 0.0) * self.gravity * self.__timeStep * 0.1
if absSlopeDot <= self.minSlopeDot:
applyGravity()
if globalVel != Vec3():
globalVelDir = Vec3(globalVel)
globalVelDir.normalize()
fn = Vec3(floorNormal.x, floorNormal.y, 0.0)
fn.normalize()
velDot = 1.0 - globalVelDir.angleDeg(fn) / 180.0
if velDot < 0.5:
self.__currentPos -= Vec3(fn.x * globalVel.x, fn.y * globalVel.y, 0.0) * velDot
globalVel *= velDot
elif self.__slopeAffectsSpeed and globalVel != Vec3():
applyGravity()
self.__currentPos += globalVel
def __init__(self,name,size,right_side_ledge = True, left_side_ledge = True):
'''
Creates a box shaped platform
SimplePlatform(String name, Vec3 size, Bool right_side_ledge, Bool left_side_ledge)
'''
# creating a static box
collision_shape = BulletBoxShape(size/2)
collision_shape.setMargin(GameObject.DEFAULT_COLLISION_MARGIN)
bt_node = BulletRigidBodyNode(name)
bt_node.addShape(collision_shape)
bt_node.setMass(0)
# calling super constructor
super(SimplePlatform,self).__init__(bt_node)
self.size_ = size
self.setCollideMask(CollisionMasks.PLATFORM_RIGID_BODY)
visual_np = GameObject.createSimpleBoxVisualNode(self,self.size_, self.getName() + '-visual')
visual_np.setTexture(SimplePlatform.__DEFAULT_TEXTURE__,1)
# addding ledges
ledge_size = Vec3(SimplePlatform.__LEDGE_BOX_SIDE_LENGHT__,self.getSize().getY(),SimplePlatform.__LEDGE_BOX_SIDE_LENGHT__)
self.left_ledge_ = Ledge(name + 'left-ledge',False,ledge_size) if left_side_ledge else None
self.right_ledge_ = Ledge(name + 'right-ledge',True,ledge_size) if right_side_ledge else None
self.ledges_ = []
# ledge placement
half_width = 0.5*size.getX()
half_height = 0.5*size.getZ()
half_depth = 0.5*size.getY()
if left_side_ledge:
self.left_ledge_.reparentTo(self)
self.left_ledge_.setPos(Vec3(-half_width ,0,half_height))
self.ledges_.append(self.left_ledge_)
if right_side_ledge:
self.right_ledge_.reparentTo(self)
self.right_ledge_.setPos(Vec3(half_width ,0,half_height))
self.ledges_.append(self.right_ledge_)
# creating platform floor node
thickness = SimplePlatform.__PERIMETER_THICKNESS__
self.floor_ghost_np_ = self.attachNewNode(BulletGhostNode(name + 'floor'))
self.floor_ghost_np_.node().addShape(BulletBoxShape(Vec3((size.getX()-2*thickness)*0.5,size.getY()*0.5 ,thickness*0.5) ))
#self.floor_ghost_np_.node().getShape(0).setMargin(GameObject.DEFAULT_COLLISION_MARGIN)
self.floor_ghost_np_.setPosHpr(self,Vec3(0,0,(size.getZ() - thickness)*0.5),Vec3.zero())
self.floor_ghost_np_.node().setIntoCollideMask(CollisionMasks.SURFACE)
# creating platform right wall node
self.rightwall_ghost_np_ = self.attachNewNode(BulletGhostNode(name + 'right-wall'))
self.rightwall_ghost_np_.node().addShape(BulletBoxShape(Vec3(thickness*0.5,size.getY()*0.5,size.getZ()*0.5 )))
#self.rightwall_ghost_np_.node().getShape(0).setMargin(GameObject.DEFAULT_COLLISION_MARGIN)
self.rightwall_ghost_np_.setPosHpr(self,Vec3((size.getX() - thickness)*0.5,0,0),Vec3.zero())
self.rightwall_ghost_np_.node().setIntoCollideMask(CollisionMasks.WALL)
# creating platform left wall node
self.leftwall_ghost_np_ = self.attachNewNode(BulletGhostNode(name + 'left-wall'))
self.leftwall_ghost_np_.node().addShape(BulletBoxShape(Vec3(thickness*0.5,size.getY()*0.5,size.getZ()*0.5 )))
#self.leftwall_ghost_np_.node().getShape(0).setMargin(GameObject.DEFAULT_COLLISION_MARGIN)
self.leftwall_ghost_np_.setPosHpr(self,Vec3(-(size.getX() - thickness)*0.5,0,0),Vec3.zero())
self.leftwall_ghost_np_.node().setIntoCollideMask(CollisionMasks.WALL)
# storing all ghost nodes in subclass list
self.bt_children_nodes_ = [self.leftwall_ghost_np_, self.rightwall_ghost_np_, self.floor_ghost_np_]
# setting id
self.setObjectID(self.getName())
class DistributedBattleTrolley(DistributedObject):
notify = directNotify.newCategory('DistributedBattleTrolley')
STAND_POSITIONS = [
Point3(-4.75, -5, 1.4),
Point3(-4.75, -1.6, 1.4),
Point3(-4.75, 1.6, 1.4),
Point3(-4.75, 5, 1.4),
Point3(-4.75, -5, 1.4),
Point3(-4.75, -1.6, 1.4),
Point3(-4.75, 1.6, 1.4),
Point3(-4.75, 5, 1.4)]
TROLLEY_NEUTRAL_POS = Point3(15, 14, -1)
TROLLEY_GONE_POS = Point3(50, 14.1588, -0.984615)
TROLLEY_ARRIVING_START_POS = Point3(-20, 14.1588, -0.984615)
CAM_POS = Point3(-35, 0, 8)
CAM_HPR = Vec3(-90, 0, 0)
def __init__(self, cr):
DistributedObject.__init__(self, cr)
self.fsm = ClassicFSM.ClassicFSM('DistributedBattleTrolley', [State.State('off', self.enterOff, self.exitOff),
State.State('wait', self.enterWait, self.exitWait),
State.State('waitCountdown', self.enterWaitCountdown, self.exitWaitCountdown),
State.State('leaving', self.enterLeaving, self.exitLeaving),
State.State('arriving', self.enterArriving, self.exitArriving)], 'off', 'off')
self.fsm.enterInitialState()
self.trolleyStation = None
self.trolleyCar = None
self.trolleyKey = None
self.countdownText = None
self.trolleyAwaySfx = base.loadSfx('phase_4/audio/sfx/SZ_trolley_away.ogg')
if self.cr.holidayManager.getHoliday() == HolidayType.CHRISTMAS:
self.trolleyAwaySfx = base.loadSfx('winter/audio/sfx/SZ_trolley_away.ogg')
self.trolleyBellSfx = base.loadSfx('phase_4/audio/sfx/SZ_trolley_bell.ogg')
self.hoodIndex = 0
self.localAvOnTrolley = False
self.trolleyEnterTrack = None
self.trolleyExitTrack = None
return
def headOff(self, zoneId):
hoodId = self.cr.playGame.hood.hoodId
if hoodId == CIGlobals.ToontownCentral:
hoodId = CIGlobals.BattleTTC
requestStatus = {'zoneId': zoneId, 'hoodId': hoodId, 'where': 'playground',
'avId': base.localAvatar.doId,
'loader': 'safeZoneLoader',
'shardId': None,
'wantLaffMeter': 1,
'how': 'teleportIn'}
self.cr.playGame.getPlace().doneStatus = requestStatus
messenger.send(self.cr.playGame.getPlace().doneEvent)
base.localAvatar.reparentTo(render)
base.localAvatar.setPos(0, 0, 0)
base.localAvatar.setHpr(0, 0, 0)
base.localAvatar.walkControls.setCollisionsActive(1)
self.localAvOnTrolley = False
return
def setHoodIndex(self, zone):
self.hoodIndex = zone
def getToZone(self):
return self.toZone
def enterOff(self, ts=0):
pass
def exitOff(self):
pass
def enterWait(self, ts=0):
self.trolleyCar.setPos(self.TROLLEY_NEUTRAL_POS)
self.acceptOnce('entertrolley_sphere', self.__handleTrolleyTrigger)
def exitWait(self):
self.ignore('entertrolley_sphere')
def enterWaitCountdown(self, ts=0):
self.trolleyCar.setPos(self.TROLLEY_NEUTRAL_POS)
self.acceptOnce('entertrolley_sphere', self.__handleTrolleyTrigger)
if self.countdownText:
self.countdownTrack = Sequence()
for i in range(10):
self.countdownTrack.append(Func(self.countdownText.node().setText, str(10 - i)))
self.countdownTrack.append(Wait(1.0))
self.countdownTrack.start()
def exitWaitCountdown(self):
self.ignore('entertrolley_sphere')
if hasattr(self, 'countdownTrack'):
self.countdownTrack.finish()
del self.countdownTrack
if self.countdownText:
self.countdownText.node().setText('')
self.disableExitButton()
def enterArriving(self, ts=0):
self.trolleyEnterTrack.start(ts)
def exitArriving(self):
if self.trolleyEnterTrack:
self.trolleyEnterTrack.finish()
def enterLeaving(self, ts=0):
camera.posHprInterval(3, (0, 18.55, 3.75), (-180, 0, 0), blendType='easeInOut').start()
base.playSfx(self.trolleyBellSfx, node=self.trolleyCar)
if self.localAvOnTrolley == True:
self.trolleyExitTrack.append(Sequence(Wait(4.0), Func(base.transitions.fadeOut)))
self.trolleyExitTrack.start(ts)
self.ignore('entertrolley_sphere')
def exitLeaving(self):
if self.trolleyExitTrack:
self.trolleyExitTrack.finish()
def setState(self, stateName, timestamp):
ts = globalClockDelta.localElapsedTime(timestamp)
self.fsm.request(stateName, [ts])
def __handleTrolleyTrigger(self, entry):
self.cr.playGame.getPlace().fsm.request('stop')
base.localAvatar.disableGags()
self.notify.info('Waiting for response from server to enter trolley')
self.sendUpdate('requestBoard')
base.localAvatar.walkControls.setCollisionsActive(0)
def rejectBoard(self):
self.cr.playGame.getPlace().fsm.request('walk')
def fillSlot(self, index, avId):
toon = self.cr.doId2do.get(avId)
toon.stopSmooth()
if toon:
toon.wrtReparentTo(self.trolleyCar)
if index <= 3:
slotPos = Point3(-5, -4.5 + index * 3, 1.4)
sitStartDuration = toon.getDuration('start-sit')
toon.headsUp(slotPos)
track = Sequence(Func(toon.setAnimState, 'run'), LerpPosInterval(toon, 0.75, Point3(-5, -4.5 + index * 3, 1.4)), LerpHprInterval(toon, 0.25, Point3(90, 0, 0)), Parallel(ActorInterval(toon, 'start-sit'), Sequence(Wait(sitStartDuration * 0.25), LerpPosInterval(toon, sitStartDuration * 0.25, Point3(-3.9, -4.5 + index * 3, 3.0)))), Func(toon.loop, 'sit'))
else:
slotPos = self.STAND_POSITIONS[index]
toon.headsUp(slotPos)
track = Sequence(Func(toon.setAnimState, 'run'), LerpPosInterval(toon, duration=1.0, pos=slotPos, startPos=toon.getPos()), Func(toon.setAnimState, 'neutral'), Func(toon.setHpr, 90, 0, 0))
track.start()
if avId == base.localAvatar.doId:
self.localAvOnTrolley = True
base.localAvatar.stopSmartCamera()
base.camera.wrtReparentTo(self.trolleyCar)
camTrack = Sequence(Parallel(LerpPosInterval(base.camera, duration=1.5, pos=self.CAM_POS, startPos=base.camera.getPos(), blendType='easeOut'), LerpQuatInterval(base.camera, duration=1.5, hpr=self.CAM_HPR, startHpr=base.camera.getHpr(), blendType='easeOut')), Func(self.enableExitButton))
camTrack.start()
def enableExitButton(self):
if self.fsm.getCurrentState().getName() != 'leaving':
gui = loader.loadModel('phase_3.5/models/gui/inventory_gui.bam')
up = gui.find('**/InventoryButtonUp')
down = gui.find('**/InventoryButtonDown')
rlvr = gui.find('**/InventoryButtonRollover')
self.exitButton = DirectButton(image=(up, down, rlvr), relief=None, text='Exit', text_fg=(1,
1,
0.65,
1), text_pos=(0,
-0.23), text_scale=0.8, image_scale=(11,
1,
11), pos=(0,
0,
-0.8), scale=0.15, command=self.__handleExitButton, image_color=(1,
0,
0,
1))
return
def __handleExitButton(self):
if self.fsm.getCurrentState().getName() == 'waitCountdown' and self.localAvOnTrolley == True:
self.disableExitButton()
self.sendUpdate('requestHopOff')
def disableExitButton(self):
if hasattr(self, 'exitButton'):
self.exitButton.destroy()
del self.exitButton
def emptySlot(self, index, avId):
toon = self.cr.doId2do.get(avId)
toon.stopSmooth()
currToonPos = toon.getPos(render)
toon.wrtReparentTo(render)
slotPos = self.STAND_POSITIONS[index]
endPos = (-20, slotPos.getY(), 1.4)
toon.setPos(self.trolleyCar, endPos)
endPosWrtRender = toon.getPos(render)
toon.setPos(currToonPos)
toon.headsUp(self.trolleyCar, endPos)
if index <= 3:
track = Sequence(Parallel(ActorInterval(toon, 'start-sit', startTime=1, endTime=0.0), Sequence(Wait(0.5), LerpPosInterval(toon, 0.25, Point3(-5, -4.5 + index * 3, 1.4), other=self.trolleyCar))), Func(toon.setAnimState, 'run'), LerpPosInterval(toon, 1, Point3(21 - index * 3, -5, 0.02), other=self.trolleyStation), Func(toon.setAnimState, 'neutral'), Func(toon.startSmooth), name=toon.uniqueName('emptyTrolley'), autoPause=1)
else:
track = Sequence(Func(toon.setAnimState, 'run'), LerpPosInterval(toon, duration=1.0, pos=endPosWrtRender, startPos=currToonPos), Func(toon.setAnimState, 'neutral'), Func(toon.startSmooth))
if avId == base.localAvatar.doId:
self.localAvOnTrolley = False
track.append(Func(self.__hoppedOffTrolley))
track.start()
def __hoppedOffTrolley(self):
self.acceptOnce('entertrolley_sphere', self.__handleTrolleyTrigger)
base.localAvatar.walkControls.setCollisionsActive(1)
self.cr.playGame.getPlace().fsm.request('walk')
def generate(self):
DistributedObject.announceGenerate(self)
self.trolleyStation = self.cr.playGame.hood.loader.geom.find('**/prop_trolley_station_DNARoot')
self.trolleyCar = self.trolleyStation.find('**/trolley_car')
self.trolleyKey = self.trolleyStation.find('**/key')
exitFog = Fog('TrolleyExitFog')
exitFog.setColor(0.0, 0.0, 0.0)
exitFog.setLinearOnsetPoint(30.0, 14.0, 0.0)
exitFog.setLinearOpaquePoint(37.0, 14.0, 0.0)
exitFog.setLinearFallback(70.0, 999.0, 1000.0)
self.trolleyExitFog = self.trolleyStation.attachNewNode(exitFog)
self.trolleyExitFogNode = exitFog
enterFog = Fog('TrolleyEnterFog')
enterFog.setColor(0.0, 0.0, 0.0)
enterFog.setLinearOnsetPoint(0.0, 14.0, 0.0)
enterFog.setLinearOpaquePoint(-7.0, 14.0, 0.0)
enterFog.setLinearFallback(70.0, 999.0, 1000.0)
self.trolleyEnterFog = self.trolleyStation.attachNewNode(enterFog)
self.trolleyEnterFogNode = enterFog
self.trolleyCar.setFogOff()
tn = TextNode('trolleycountdowntext')
tn.setFont(CIGlobals.getMickeyFont())
tn.setTextColor(1, 0, 0, 1)
tn.setAlign(TextNode.ACenter)
self.keys = self.trolleyCar.findAllMatches('**/key')
self.numKeys = self.keys.getNumPaths()
self.keyInit = []
self.keyRef = []
for i in range(self.numKeys):
key = self.keys[i]
key.setTwoSided(1)
ref = self.trolleyCar.attachNewNode('key' + `i` + 'ref')
ref.iPosHpr(key)
self.keyRef.append(ref)
self.keyInit.append(key.getTransform())
self.frontWheels = self.trolleyCar.findAllMatches('**/front_wheels')
self.numFrontWheels = self.frontWheels.getNumPaths()
self.frontWheelInit = []
self.frontWheelRef = []
for i in range(self.numFrontWheels):
wheel = self.frontWheels[i]
ref = self.trolleyCar.attachNewNode('frontWheel' + `i` + 'ref')
ref.iPosHpr(wheel)
self.frontWheelRef.append(ref)
self.frontWheelInit.append(wheel.getTransform())
self.backWheels = self.trolleyCar.findAllMatches('**/back_wheels')
self.numBackWheels = self.backWheels.getNumPaths()
self.backWheelInit = []
self.backWheelRef = []
for i in range(self.numBackWheels):
wheel = self.backWheels[i]
ref = self.trolleyCar.attachNewNode('backWheel' + `i` + 'ref')
ref.iPosHpr(wheel)
self.backWheelRef.append(ref)
self.backWheelInit.append(wheel.getTransform())
trolleyAnimationReset = Func(self.resetAnimation)
trolleyEnterStartPos = Point3(-20, 14, -1)
trolleyEnterEndPos = Point3(15, 14, -1)
trolleyEnterPos = Sequence(name='TrolleyEnterPos')
trolleyEnterPos.append(Func(self.trolleyCar.setFog, self.trolleyEnterFogNode))
trolleyEnterPos.append(self.trolleyCar.posInterval(TROLLEY_ENTER_TIME, trolleyEnterEndPos, startPos=trolleyEnterStartPos, blendType='easeOut'))
trolleyEnterPos.append(Func(self.trolleyCar.setFogOff))
trolleyEnterTrack = Sequence(trolleyAnimationReset, trolleyEnterPos, name='trolleyEnter')
keyAngle = round(TROLLEY_ENTER_TIME) * 360
dist = Vec3(trolleyEnterEndPos - trolleyEnterStartPos).length()
wheelAngle = dist / (2.0 * math.pi * 0.95) * 360
trolleyEnterAnimateInterval = LerpFunctionInterval(self.animateTrolley, duration=TROLLEY_ENTER_TIME, blendType='easeOut', extraArgs=[keyAngle, wheelAngle], name='TrolleyAnimate')
trolleyEnterSoundTrack = SoundInterval(self.trolleyAwaySfx, node=self.trolleyCar)
self.trolleyEnterTrack = Parallel(trolleyEnterTrack, trolleyEnterAnimateInterval, trolleyEnterSoundTrack)
trolleyExitStartPos = Point3(15, 14, -1)
trolleyExitEndPos = Point3(50, 14, -1)
trolleyExitPos = Sequence(name='TrolleyExitPos')
trolleyExitPos.append(Func(self.trolleyCar.setFog, self.trolleyExitFogNode))
trolleyExitPos.append(self.trolleyCar.posInterval(TROLLEY_EXIT_TIME, trolleyExitEndPos, startPos=trolleyExitStartPos, blendType='easeIn'))
trolleyExitPos.append(Func(self.trolleyCar.setFogOff))
trolleyExitStartPos = Point3(15, 14, -1)
trolleyExitEndPos = Point3(50, 14, -1)
trolleyExitBellInterval = SoundInterval(self.trolleyBellSfx, node=self.trolleyCar)
trolleyExitAwayInterval = SoundInterval(self.trolleyAwaySfx, node=self.trolleyCar)
keyAngle = round(TROLLEY_EXIT_TIME) * 360
dist = Vec3(trolleyExitEndPos - trolleyExitStartPos).length()
wheelAngle = dist / (2.0 * math.pi * 0.95) * 360
trolleyExitAnimateInterval = LerpFunctionInterval(self.animateTrolley, duration=TROLLEY_EXIT_TIME, blendType='easeIn', extraArgs=[keyAngle, wheelAngle], name='TrolleyAnimate')
self.trolleyExitTrack = Parallel(trolleyExitPos, trolleyExitBellInterval, trolleyExitAwayInterval, trolleyExitAnimateInterval, name=self.uniqueName('trolleyExit'))
self.countdownText = self.trolleyStation.attachNewNode(tn)
self.countdownText.setScale(3.0)
self.countdownText.setPos(14.58, 10.77, 11.17)
self.acceptOnce('entertrolley_sphere', self.__handleTrolleyTrigger)
def resetAnimation(self):
if self.keys:
for i in range(self.numKeys):
self.keys[i].setTransform(self.keyInit[i])
for i in range(self.numFrontWheels):
self.frontWheels[i].setTransform(self.frontWheelInit[i])
for i in range(self.numBackWheels):
self.backWheels[i].setTransform(self.backWheelInit[i])
def animateTrolley(self, t, keyAngle, wheelAngle):
if self.keys:
for i in range(self.numKeys):
key = self.keys[i]
ref = self.keyRef[i]
key.setH(ref, t * keyAngle)
for i in range(self.numFrontWheels):
frontWheel = self.frontWheels[i]
ref = self.frontWheelRef[i]
frontWheel.setH(ref, t * wheelAngle)
for i in range(self.numBackWheels):
backWheel = self.backWheels[i]
ref = self.backWheelRef[i]
backWheel.setH(ref, t * wheelAngle)
def delete(self):
self.trolleyStation = None
self.trolleyKey = None
self.soundMoving = None
self.soundBell = None
self.troleyCar = None
self.backWheelInit = None
self.backWheelRef = None
self.backWheels = None
self.frontWheelInit = None
self.frontWheelRef = None
self.frontWheels = None
self.keyInit = None
self.keyRef = None
self.keys = None
self.trolleyEnterTrack = None
self.trolleyExitTrack = None
self.trolleyExitFog = None
self.trolleyExitFogNode = None
self.trolleyEnterFogNode = None
self.trolleyEnterFog = None
self.ignore('entertrolley_sphere')
DistributedObject.delete(self)
return
def repel_context(world):
""" Sets up a repel context. Gets the bodies, turns off
gravity, rescales the masses, sets up the collision
notification callback. """
def change_contact_thresh(bodies, thresh=0.001):
""" Adjust the contact processing threshold. This is
used to make the objects not trigger collisions when
just barely touching."""
if isinstance(thresh, Iterable):
it = izip(bodies, thresh)
else:
it = ((body, thresh) for body in bodies)
thresh0 = []
for body, th in it:
thresh0.append(body.getContactProcessingThreshold())
body.setContactProcessingThreshold(th)
return thresh0
def rescale_masses(bodies):
""" Rescale the masses so they are proportional to the
volume."""
masses, inertias = zip(*[(body.getMass(), body.getInertia())
for body in bodies])
volumefac = 1.
for body, mass, inertia in zip(bodies, masses, inertias):
# Compute the mass-normalized diagonal elements of the
# inertia tensor.
if mass > 0.:
it = inertia / mass * 12
# Calculate volume from the mass-normalized
# inertia tensor (from wikipedia).
h = sqrt((it[0] - it[1] + it[2]) / 2)
w = sqrt(it[2] - h ** 2)
d = sqrt(it[1] - w ** 2)
volume = h * w * d
# Change the mass.
body.setMass(volume * volumefac)
return masses
# Get the bodies.
bodies = world.getRigidBodies()
# Turn gravity off.
gravity = world.getGravity()
world.setGravity(Vec3.zero())
# Tighten the contact processing threshold slightly.
delta = -0.001
cp_thresh = change_contact_thresh(bodies, thresh=delta)
# Adjust masses.
masses = rescale_masses(bodies)
# Adjust sleep thresholds.
deactivations = [b.isDeactivationEnabled() for b in bodies]
for body in bodies:
body.setDeactivationEnabled(False)
# Zero out velocities.
self.attenuate_velocities(bodies)
# Collisions monitor.
collisions = CollisionMonitor(world)
collisions.push_notifiers(bodies)
## Finish __enter__.
yield bodies, collisions
## Start __exit__.
collisions.pop_notifiers()
# Zero out velocities.
self.attenuate_velocities(bodies)
# Restore the contact processing threshold.
change_contact_thresh(bodies, thresh=cp_thresh)
# Set masses back.
for body, mass in zip(bodies, masses):
body.setMass(mass)
# Turn gravity back on.
world.setGravity(gravity)
for body, d in zip(bodies, deactivations):
body.setDeactivationEnabled(d)
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
solids = []
numSides = self.numSides.getValue()
if numSides < 3:
return solids
wallWidth = self.wallWidth.getValue()
if wallWidth < 1:
return solids
arc = self.arc.getValue()
if arc < 1:
return solids
startAngle = self.startAngle.getValue()
if startAngle < 0 or startAngle > 359:
return solids
addHeight = self.addHeight.getValue()
curvedRamp = self.curvedRamp.getValue()
tiltAngle = self.tiltAngle.getValue()
if abs(tiltAngle % 180) == 90:
return solids
tiltInterp = curvedRamp and self.tiltInterp.getValue()
# Very similar to the pipe brush, except with options for start angle, arc, height, and tilt.
width = maxs.x - mins.x
length = maxs.y - mins.y
height = maxs.z - mins.z
majorOut = width / 2
majorIn = majorOut - wallWidth
minorOut = length / 2
minorIn = minorOut - wallWidth
start = deg2Rad(startAngle)
tilt = deg2Rad(tiltAngle)
angle = deg2Rad(arc) / numSides
center = (mins + maxs) / 2
# Calculate the coordinates of the inner and outer ellipses' points.
outer = []
inner = []
for i in range(numSides + 1):
a = start + i * angle
h = i * addHeight
interp = 1
if tiltInterp:
interp = math.cos(math.pi / numSides * (i - numSides / 2))
tiltHeight = wallWidth / 2 * interp * math.tan(tilt)
xval = center.x + majorOut * math.cos(a)
yval = center.y + minorOut * math.sin(a)
zval = mins.z
if curvedRamp:
zval += h + tiltHeight
outer.append(
LEUtils.roundVector(Point3(xval, yval, zval), roundDecimals))
xval = center.x + majorIn * math.cos(a)
yval = center.y + minorIn * math.sin(a)
zval = mins.z
if curvedRamp:
zval += h - tiltHeight
inner.append(
LEUtils.roundVector(Point3(xval, yval, zval), roundDecimals))
color = LEUtils.getRandomSolidColor()
# create the solids
z = LEUtils.roundVector(Point3(0, 0, height), roundDecimals)
for i in range(numSides):
faces = []
# Since we are triangulating/splitting each arch segment, we need to generate 2 brushes per side
if curvedRamp:
# The splitting orientation depends on the curving direction of the arch
if addHeight >= 0:
faces.append([
outer[i], outer[i] + z, outer[i + 1] + z, outer[i + 1]
])
faces.append([
outer[i + 1], outer[i + 1] + z, inner[i] + z, inner[i]
])
faces.append(
[inner[i], inner[i] + z, outer[i] + z, outer[i]])
faces.append(
[outer[i] + z, inner[i] + z, outer[i + 1] + z])
faces.append([outer[i + 1], inner[i], outer[i]])
else:
faces.append([
inner[i + 1], inner[i + 1] + z, inner[i] + z, inner[i]
])
faces.append([
outer[i], outer[i] + z, inner[i + 1] + z, inner[i + 1]
])
faces.append(
[inner[i], inner[i] + z, outer[i] + z, outer[i]])
faces.append(
[inner[i + 1] + z, outer[i] + z, inner[i] + z])
faces.append([inner[i], outer[i], inner[i + 1]])
solids.append(
self.makeSolid(generator, faces, material, temp, color))
faces.clear()
if addHeight >= 0:
faces.append([
inner[i + 1], inner[i + 1] + z, inner[i] + z, inner[i]
])
faces.append([
inner[i], inner[i] + z, outer[i + 1] + z, outer[i + 1]
])
faces.append([
outer[i + 1], outer[i + 1] + z, inner[i + 1] + z,
inner[i + 1]
])
faces.append(
[inner[i + 1] + z, outer[i + 1] + z, inner[i] + z])
faces.append([inner[i], outer[i + 1], inner[i + 1]])
else:
faces.append([
outer[i], outer[i] + z, outer[i + 1] + z, outer[i + 1]
])
faces.append([
inner[i + 1], inner[i + 1] + z, outer[i] + z, outer[i]
])
faces.append([
outer[i + 1], outer[i + 1] + z, inner[i + 1] + z,
inner[i + 1]
])
faces.append(
[outer[i] + z, inner[i + 1] + z, outer[i + 1] + z])
faces.append([outer[i + 1], inner[i + 1], outer[i]])
solids.append(
self.makeSolid(generator, faces, material, temp, color))
else:
h = Vec3.unitZ() * i * addHeight
faces.append([
outer[i] + h, outer[i] + z + h, outer[i + 1] + z + h,
outer[i + 1] + h
])
faces.append([
inner[i + 1] + h, inner[i + 1] + z + h, inner[i] + z + h,
inner[i] + h
])
faces.append([
outer[i + 1] + h, outer[i + 1] + z + h,
inner[i + 1] + z + h, inner[i + 1] + h
])
faces.append([
inner[i] + h, inner[i] + z + h, outer[i] + z + h,
outer[i] + h
])
faces.append([
inner[i + 1] + z + h, outer[i + 1] + z + h,
outer[i] + z + h, inner[i] + z + h
])
faces.append([
inner[i] + h, outer[i] + h, outer[i + 1] + h,
inner[i + 1] + h
])
solids.append(
self.makeSolid(generator, faces, material, temp, color))
return solids
def bounds(self):
return Vec3(
self.model_bounds[0] * self.scale_x,
self.model_bounds[1] * self.scale_y,
self.model_bounds[2] * self.scale_z
)
def camTask(self, task):
# query the mouse
mouse_dx = 0
mouse_dy = 0
# if we have a mouse and the right button is depressed
if base.mouseWatcherNode.hasMouse():
if self.keyMap["mouse3"] != 0:
self.mouse_accum.update()
else:
self.mouse_accum.reset()
mouse_dx = self.mouse_accum.dx
mouse_dy = self.mouse_accum.dy
self.rXSpeed = fabs(self.mouse_accum.dx) * (self.cam_speed + 1) * max(5 * 1000 / self.xres, 3)
self.rYSpeed = fabs(self.mouse_accum.dy) * (self.cam_speed + 1) * max(3 * 1000 / self.yres, 1)
if self.keyMap["cam-left"] != 0 or mouse_dx < 0:
if self.rSpeed < 160:
self.rSpeed += 80 * globalClock.getDt()
if mouse_dx != 0:
self.camHeading += self.rXSpeed * globalClock.getDt()
else:
self.camHeading += self.rSpeed * globalClock.getDt()
if self.camHeading > 360.0:
self.camHeading = self.camHeading - 360.0
elif self.keyMap["cam-right"] != 0 or mouse_dx > 0:
if self.rSpeed < 160:
self.rSpeed += 80 * globalClock.getDt()
if mouse_dx != 0:
self.camHeading -= self.rXSpeed * globalClock.getDt()
else:
self.camHeading -= self.rSpeed * globalClock.getDt()
if self.camHeading < 0.0:
self.camHeading = self.camHeading + 360.0
else:
self.rSpeed = 80
if mouse_dy > 0:
self.camPitch += self.rYSpeed * globalClock.getDt()
elif mouse_dy < 0:
self.camPitch -= self.rYSpeed * globalClock.getDt()
# set camera heading and pitch
base.camera.setHpr(self.camHeading, self.camPitch, 0)
# viewer position (camera) movement control
v = render.getRelativeVector(base.camera, Vec3.forward())
if not self.flyMode:
v.setZ(0.0)
move_speed = self.cam_speeds[self.cam_speed]
if self.keyMap["forward"] == 1:
self.campos += v * move_speed * globalClock.getDt()
if self.keyMap["backward"] == 1:
self.campos -= v * move_speed * globalClock.getDt()
# actually move the camera
lastPos = base.camera.getPos()
base.camera.setPos(self.campos)
# self.plnp.setPos(self.campos) # move the point light with the viewer position
# WALKMODE: simple collision detection
# we simply check a ray from slightly below the "eye point" straight down
# for geometry collisions and if there are any we detect the point of collision
# and adjust the camera's Z accordingly
if self.flyMode == 0:
# move the camera to where it would be if it made the move
# the colliderNode moves with it
# base.camera.setPos(self.campos)
# check for collissons
self.cTrav.traverse(render)
entries = []
for i in range(self.camGroundHandler.getNumEntries()):
entry = self.camGroundHandler.getEntry(i)
entries.append(entry)
# print 'collision'
entries.sort(lambda x, y: cmp(y.getSurfacePoint(render).getZ(), x.getSurfacePoint(render).getZ()))
if len(entries) > 0: # and (entries[0].getIntoNode().getName() == "terrain"):
# print len(entries)
self.campos.setZ(entries[0].getSurfacePoint(render).getZ() + self.eyeHeight)
else:
self.campos = lastPos
base.camera.setPos(self.campos)
# if (base.camera.getZ() < self.player.getZ() + 2.0):
# base.camera.setZ(self.player.getZ() + 2.0)
# update loc and hpr display
pos = base.camera.getPos()
hpr = base.camera.getHpr()
self.inst2.setText("Loc: %.2f, %.2f, %.2f" % (pos.getX(), pos.getY(), pos.getZ()))
self.inst3.setText("Hdg: %.2f, %.2f, %.2f" % (hpr.getX(), hpr.getY(), hpr.getZ()))
return task.cont
def __setattr__(self, name, value):
if name == 'enabled':
try:
# try calling on_enable() on classes inheriting from Entity
if value == True:
self.on_enable()
else:
self.on_disable()
except:
pass
if value == True:
if not self.is_singleton():
self.unstash()
else:
if not self.is_singleton():
self.stash()
if name == 'eternal':
for c in self.children:
c.eternal = value
if name == 'world_parent':
self.reparent_to(value)
if name == 'model':
if value is None:
if hasattr(self, 'model') and self.model:
self.model.removeNode()
# print('removed model')
object.__setattr__(self, name, value)
return None
if isinstance(value, NodePath): # pass procedural model
if self.model is not None and value != self.model:
self.model.removeNode()
object.__setattr__(self, name, value)
elif isinstance(value, str): # pass model asset name
m = load_model(value, application.asset_folder)
if not m:
m = load_model(value, application.internal_models_folder)
if m:
if self.model is not None:
self.model.removeNode()
object.__setattr__(self, name, m)
if isinstance(m, Mesh):
m.recipe = value
# print('loaded model successively')
else:
print('missing model:', value)
return
if self.model:
self.model.reparentTo(self)
self.model.setTransparency(TransparencyAttrib.M_dual)
setattr(self, 'color', self.color) # reapply color after changing model
setattr(self, 'texture', self.texture) # reapply texture after changing model
self._vert_cache = None
if isinstance(value, Mesh):
if hasattr(value, 'on_assign'):
value.on_assign(assigned_to=self)
return
if name == 'color' and value is not None:
if not isinstance(value, Vec4):
value = Vec4(value[0], value[1], value[2], value[3])
if self.model:
self.model.setColorScale(value)
object.__setattr__(self, name, value)
if name == 'texture_scale':
if self.model and self.texture:
self.model.setTexScale(TextureStage.getDefault(), value[0], value[1])
if name == 'texture_offset':
if self.model and self.texture:
self.model.setTexOffset(TextureStage.getDefault(), value[0], value[1])
self.texture = self.texture
if name == 'position':
# automatically add position instead of extending the tuple
new_value = Vec3()
if len(value) % 2 == 0:
for i in range(0, len(value), 2):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(self.getY())
if len(value) % 3 == 0:
for i in range(0, len(value), 3):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(value[i+2])
try:
self.setPos(new_value[0], new_value[2], new_value[1])
except:
pass # can't set position
if name == 'x': self.setX(value)
if name == 'y': self.setZ(value)
if name == 'z': self.setY(value)
if name == 'origin' and self.model:
new_value = Vec3()
if len(value) % 2 == 0:
for i in range(0, len(value), 2):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(self.model.getY())
if len(value) % 3 == 0:
for i in range(0, len(value), 3):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(value[i+2])
self.model.setPos(-new_value[0], -new_value[2], -new_value[1])
object.__setattr__(self, name, new_value)
return
if name == 'rotation':
new_value = Vec3()
if len(value) % 2 == 0:
for i in range(0, len(value), 2):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(self.getR())
if len(value) % 3 == 0:
for i in range(0, len(value), 3):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(value[i+2])
self.setHpr(Vec3(-new_value[1], -new_value[0], new_value[2]))
if name == 'rotation_x': self.setP(-value)
if name == 'rotation_y': self.setH(-value)
if name == 'rotation_z': self.setR(value)
if name == 'scale':
if isinstance(value, (int, float, complex)):
value = (value, value, value)
new_value = Vec3()
if len(value) % 2 == 0:
for i in range(0, len(value), 2):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(self.getSy())
if len(value) % 3 == 0:
for i in range(0, len(value), 3):
new_value.add_x(value[i])
new_value.add_y(value[i+1])
new_value.add_z(value[i+2])
for e in new_value:
if e == 0:
e = .001
self.setScale(new_value[0], new_value[2], new_value[1])
if name == 'scale_x':
self.set_scale(value, self.scale_z, self.scale_y)
if name == 'scale_y':
self.set_scale(self.scale_x, self.scale_z, value)
if name == 'scale_z':
self.set_scale(self.scale_x, value, self.scale_y)
if name == 'collision' and hasattr(self, 'collider') and self.collider:
if value:
self.collider.node_path.unstash()
else:
self.collider.node_path.stash()
object.__setattr__(self, name, value)
return
if name == 'render_queue':
if self.model:
self.model.setBin('fixed', value)
if name == 'double_sided':
self.setTwoSided(value)
try:
super().__setattr__(name, value)
except:
pass
def getClickBox(self):
return [Vec3(-1), Vec3(1)]
def __init__(self):
ShowBase.__init__(self)
self.disableMouse()
properties = WindowProperties()
properties.setSize(1000, 750)
self.win.requestProperties(properties)
mainLight = DirectionalLight("main light")
self.mainLightNodePath = render.attachNewNode(mainLight)
self.mainLightNodePath.setHpr(45, -45, 0)
render.setLight(self.mainLightNodePath)
ambientLight = AmbientLight("ambient light")
ambientLight.setColor(Vec4(0.2, 0.2, 0.2, 1))
self.ambientLightNodePath = render.attachNewNode(ambientLight)
render.setLight(self.ambientLightNodePath)
render.setShaderAuto()
self.environment = loader.loadModel("Models/Misc/environment")
self.environment.reparentTo(render)
self.camera.setPos(0, 0, 32)
self.camera.setP(-90)
self.keyMap = {
"up" : False,
"down" : False,
"left" : False,
"right" : False,
"shoot" : False
}
self.accept("w", self.updateKeyMap, ["up", True])
self.accept("w-up", self.updateKeyMap, ["up", False])
self.accept("s", self.updateKeyMap, ["down", True])
self.accept("s-up", self.updateKeyMap, ["down", False])
self.accept("a", self.updateKeyMap, ["left", True])
self.accept("a-up", self.updateKeyMap, ["left", False])
self.accept("d", self.updateKeyMap, ["right", True])
self.accept("d-up", self.updateKeyMap, ["right", False])
self.accept("mouse1", self.updateKeyMap, ["shoot", True])
self.accept("mouse1-up", self.updateKeyMap, ["shoot", False])
self.pusher = CollisionHandlerPusher()
self.cTrav = CollisionTraverser()
self.pusher.setHorizontal(True)
wallSolid = CollisionTube(-8.0, 0, 0, 8.0, 0, 0, 0.2)
wallNode = CollisionNode("wall")
wallNode.addSolid(wallSolid)
wall = render.attachNewNode(wallNode)
wall.setY(8.0)
wallSolid = CollisionTube(-8.0, 0, 0, 8.0, 0, 0, 0.2)
wallNode = CollisionNode("wall")
wallNode.addSolid(wallSolid)
wall = render.attachNewNode(wallNode)
wall.setY(-8.0)
wallSolid = CollisionTube(0, -8.0, 0, 0, 8.0, 0, 0.2)
wallNode = CollisionNode("wall")
wallNode.addSolid(wallSolid)
wall = render.attachNewNode(wallNode)
wall.setX(8.0)
wallSolid = CollisionTube(0, -8.0, 0, 0, 8.0, 0, 0.2)
wallNode = CollisionNode("wall")
wallNode.addSolid(wallSolid)
wall = render.attachNewNode(wallNode)
wall.setX(-8.0)
self.updateTask = taskMgr.add(self.update, "update")
self.player = Player(Vec3(0, 0, 0),
"Models/PandaChan/act_p3d_chan",
{
"stand" : "Models/PandaChan/a_p3d_chan_idle",
"walk" : "Models/PandaChan/a_p3d_chan_run"
},
5,
10,
"player")
self.tempEnemy = WalkingEnemy(Vec3(5, 0, 0))
def __init__(self):
self.login = "******"
base.setFrameRateMeter(True)
#input states
inputState.watchWithModifiers('forward', 'w')
inputState.watchWithModifiers('left', 'a')
inputState.watchWithModifiers('brake', 's')
inputState.watchWithModifiers('right', 'd')
inputState.watchWithModifiers('turnLeft', 'q')
inputState.watchWithModifiers('turnRight', 'e')
self.keyMap = {
"hello": 0,
"left": 0,
"right": 0,
"forward": 0,
"backward": 0,
"cam-left": 0,
"cam-right": 0,
"chat0": 0,
"powerup": 0,
"reset": 0
}
base.win.setClearColor(Vec4(0, 0, 0, 1))
# Network Setup
self.cManager = ConnectionManager(self)
self.startConnection()
#self.cManager.sendRequest(Constants.CMSG_LOGIN, ["username", "password"])
# chat box
# self.chatbox = Chat(self.cManager, self)
# Set up the environment
#
self.initializeBulletWorld(False)
#self.createEnvironment()
Track(self.bulletWorld)
# Create the main character, Ralph
self.mainCharRef = Vehicle(self.bulletWorld, (100, 10, 5, 0, 0, 0),
self.login)
#self.mainCharRef = Character(self, self.bulletWorld, 0, "Me")
self.mainChar = self.mainCharRef.chassisNP
#self.mainChar.setPos(0, 25, 16)
# self.characters.append(self.mainCharRef)
# self.TestChar = Character(self, self.bulletWorld, 0, "test")
# self.TestChar.actor.setPos(0, 0, 0)
self.previousPos = self.mainChar.getPos()
taskMgr.doMethodLater(.1, self.updateMove, 'updateMove')
# Set Dashboard
self.dashboard = Dashboard(self.mainCharRef, taskMgr)
self.floater = NodePath(PandaNode("floater"))
self.floater.reparentTo(render)
# Accept the control keys for movement and rotation
self.accept("escape", self.doExit)
self.accept("a", self.setKey, ["left", 1])
self.accept("d", self.setKey, ["right", 1])
self.accept("w", self.setKey, ["forward", 1])
self.accept("s", self.setKey, ["backward", 1])
self.accept("arrow_left", self.setKey, ["cam-left", 1])
self.accept("arrow_right", self.setKey, ["cam-right", 1])
self.accept("a-up", self.setKey, ["left", 0])
self.accept("d-up", self.setKey, ["right", 0])
self.accept("w-up", self.setKey, ["forward", 0])
self.accept("s-up", self.setKey, ["backward", 0])
self.accept("arrow_left-up", self.setKey, ["cam-left", 0])
self.accept("arrow_right-up", self.setKey, ["cam-right", 0])
self.accept("h", self.setKey, ["hello", 1])
self.accept("h-up", self.setKey, ["hello", 0])
self.accept("0", self.setKey, ["chat0", 1])
self.accept("0-up", self.setKey, ["chat0", 0])
self.accept("1", self.setKey, ["powerup", 1])
self.accept("1-up", self.setKey, ["powerup", 0])
self.accept("2", self.setKey, ["powerup", 2])
self.accept("2-up", self.setKey, ["powerup", 0])
self.accept("3", self.setKey, ["powerup", 3])
self.accept("3-up", self.setKey, ["powerup", 0])
self.accept("r", self.doReset)
self.accept("p", self.setTime)
#taskMgr.add(self.move, "moveTask")
# Game state variables
self.isMoving = False
# Sky Dome
self.sky = SkyDome()
# Set up the camera
self.camera = Camera(self.mainChar)
#base.disableMouse()
#base.camera.setPos(self.mainChar.getX(), self.mainChar.getY() + 10, self.mainChar.getZ() + 2)
# Create some lighting
ambientLight = AmbientLight("ambientLight")
ambientLight.setColor(Vec4(.3, .3, .3, 1))
directionalLight = DirectionalLight("directionalLight")
directionalLight.setDirection(Vec3(-5, -5, -5))
directionalLight.setColor(Vec4(1, 1, 1, 1))
directionalLight.setSpecularColor(Vec4(1, 1, 1, 1))
directionalLight2 = DirectionalLight("directionalLight2")
directionalLight2.setDirection(Vec3(5, 5, -5))
directionalLight2.setColor(Vec4(1, 1, 1, 1))
directionalLight2.setSpecularColor(Vec4(1, 1, 1, 1))
render.setLight(render.attachNewNode(ambientLight))
render.setLight(render.attachNewNode(directionalLight))
render.setLight(render.attachNewNode(directionalLight2))
# Game initialisation
self.gameState = self.gameStateDict["Login"]
self.responseValue = -1
self.cManager.sendRequest(Constants.CMSG_LOGIN, [self.login, "1234"])
taskMgr.add(self.enterGame, "EnterGame")
# Create Powerups
self.createPowerups()
taskMgr.add(self.powerups.checkPowerPickup, "checkPowerupTask")
taskMgr.add(self.usePowerup, "usePowerUp")
def __init__(self):
ShowBase.__init__(self)
self.grid = np.loadtxt("input/maze.txt")
f = open("input/start_point.txt", "r")
self.start_pos = eval(f.read())
if FULLSCREEN:
wp = WindowProperties()
wp.setFullscreen(True)
base.win.requestProperties(wp)
self.disableMouse()
self.accept("escape", sys.exit)
self.camera.setPosHpr(self.start_pos[0], self.start_pos[1],
CAMERA_SCALE, 0, -90, 0)
# maze wall
offset = 0.05 # expand collision boundaries for the walls
for i in range(-1, len(self.grid) + 1):
for j in range(-1, len(self.grid[0]) + 1):
if i == -1 or j == -1 or i == len(self.grid) or j == len(
self.grid[0]) or self.grid[i][j]:
#box-1_-1 is not a valid name so we change it to boxa_b
texti = i
textj = j
if i == -1:
texti = 'a'
if j == -1:
textj = 'b'
suffix = str(texti) + "_" + str(textj)
# model
exec("self.box" + suffix +
" = self.loader.loadModel('models/cube')")
exec("self.box" + suffix + ".reparentTo(self.render)")
exec("self.box" + suffix + ".setPos(" + str(i) + ", " +
str(j) + ", 1)")
# collision node
exec("self.boxCollider" + suffix + " = self.box" + suffix +
".attachNewNode(CollisionNode('wall_collide'))")
exec(
"self.boxCollider" + suffix +
".node().addSolid(CollisionBox(Point3(0-offset,0-offset,0-offset),Point3(1+offset,1+offset,1+offset)))"
)
exec("self.boxCollider" + suffix +
".node().setIntoCollideMask(BitMask32.bit(0))")
#exec("self.boxCollider" + suffix + ".show()")
# maze ground model
self.maze = loader.loadModel("models/cube")
self.maze.setScale(len(self.grid), len(self.grid[0]), 1)
self.maze.reparentTo(self.render)
# maze ground collision node
self.walls = self.maze.attachNewNode(CollisionNode('wall_collide'))
self.walls.node().addSolid(
CollisionBox(Point3(0, 0, 0), Point3(1, 1, 1)))
self.walls.node().setIntoCollideMask(BitMask32.bit(1))
# maze ground plane collision node
self.mazeGround = self.maze.attachNewNode(
CollisionNode('ground_collide'))
self.mazeGround.node().addSolid(
CollisionPlane(Plane(Vec3(0, 0, 1), Point3(2, 2, 1))))
self.mazeGround.node().setIntoCollideMask(BitMask32.bit(1))
# ball model
self.ballRoot = render.attachNewNode("ballRoot")
self.ball = loader.loadModel("models/ball")
self.ball.reparentTo(self.ballRoot)
# ball material
m = Material()
m.setSpecular((1, 1, 1, 1))
m.setShininess(96)
self.ball.setMaterial(m, 1)
# ball collision node
self.ballSphere = self.ball.find("**/ball")
self.ballSphere.node().setFromCollideMask(BitMask32.bit(0))
self.ballSphere.node().setIntoCollideMask(BitMask32.allOff())
# collision ray
self.ballGroundRay = CollisionRay()
self.ballGroundRay.setOrigin(0, 0, 10)
self.ballGroundRay.setDirection(0, 0, -1)
# ray collision node
self.ballGroundCol = CollisionNode('groundRay')
self.ballGroundCol.addSolid(self.ballGroundRay)
self.ballGroundCol.setFromCollideMask(BitMask32.bit(1))
self.ballGroundCol.setIntoCollideMask(BitMask32.allOff())
# ray
self.ballGroundColNp = self.ballRoot.attachNewNode(self.ballGroundCol)
# collision traverser and handler queue
self.cHandler = CollisionHandlerQueue()
self.cTrav = CollisionTraverser()
self.cTrav.addCollider(self.ballSphere, self.cHandler)
self.cTrav.addCollider(self.ballGroundColNp, self.cHandler)
# visual effects
ambientLight = AmbientLight("ambientLight")
ambientLight.setColor((.55, .55, .55, 1))
directionalLight = DirectionalLight("directionalLight")
directionalLight.setDirection(LVector3(0, 0, -1))
directionalLight.setColor((0.375, 0.375, 0.375, 1))
directionalLight.setSpecularColor((1, 1, 1, 1))
self.ballRoot.setLight(render.attachNewNode(ambientLight))
self.ballRoot.setLight(render.attachNewNode(directionalLight))
self.start()
def explosionSequence(self):
self.exploding = True
self.explosionModel.setPosHpr( Vec3(self.player.getX(),self.player.getY(), \
self.player.getZ()), Vec3( self.player.getH(),0,0))
self.player.hide()
taskMgr.add(self.expandExplosion, 'expandExplosion')
def __init__(self, mass=1, location = Point3.zero(), velocity=Vec3.zero(), acceleration=Vec3.zero()):
# instance variables
self.mass = mass
self.location = location
self.velocity = velocity
self.acceleration = acceleration
def getRotationTo(src, dest, fallbackAxis=Vec3_ZERO):
# Quaternion q;
# Vector3 v0 = *this;
# Vector3 v1 = dest;
# v0.normalise();
# v1.normalise();
q = Quat()
v0 = Vec3(src)
v1 = Vec3(dest)
v0.normalize()
v1.normalize()
# Real d = v0.dotProduct(v1);
d = v0.dot(v1)
# if (d >= 1.0f)
# {
# return Quaternion::IDENTITY;
# }
if d >= 1.0:
return Quat(1, 0, 0, 0)
# if (d < (1e-6f - 1.0f))
if d < (1.0e-6 - 1.0):
# if (fallbackAxis != Vector3::ZERO)
# {
# // rotate 180 degrees about the fallback axis
# q.FromAngleAxis(Radian(Math::PI), fallbackAxis);
# }
if fallbackAxis != Vec3_ZERO:
q.setFromAxisAngleRad(pi, fallbackAxis)
# else
# {
# // Generate an axis
# Vector3 axis = Vector3::UNIT_X.crossProduct(*this);
# if (axis.isZeroLength()) // pick another if colinear
# axis = Vector3::UNIT_Y.crossProduct(*this);
# axis.normalise();
# q.FromAngleAxis(Radian(Math::PI), axis);
# }
else:
axis = Vec3(1, 0, 0).cross(src)
if axis.almostEqual(Vec3.zero()):
axis = Vec3(0, 1, 0).cross(src)
axis.normalize()
q.setFromAxisAngleRad(pi, axis)
# else
# {
# Real s = Math::Sqrt( (1+d)*2 );
# Real invs = 1 / s;
# Vector3 c = v0.crossProduct(v1);
# q.x = c.x * invs;
# q.y = c.y * invs;
# q.z = c.z * invs;
# q.w = s * 0.5f;
# q.normalise();
# }
else:
s = sqrt((1 + d) * 2)
invs = 1 / s
c = v0.cross(v1)
q.setI(c.x * invs)
q.setJ(c.y * invs)
q.setK(c.z * invs)
q.setR(s * .5)
q.normalize()
return q
def world_position(self, value):
value = Vec3(value[0], value[2], value[1])
self.setPos(render, value)
class Position:
value: Vec3 = field(default_factory=lambda: Vec3(0, 0, 0))
def position(self):
return Vec3(self.getX(), self.getZ(), self.getY())
def getUpdatedProperties(self, obj, inst):
transform = inst.getTransform(obj.np.getParent())
return {
"origin": Point3(transform.getPos()),
"angles": Vec3(transform.getHpr())
}
def world_rotation(self):
rotation = self.getHpr(base.render)
return Vec3(-rotation[1], -rotation[0], rotation[2])
def add_warning(self, msg):
""" Adds a new warning message """
self.add_text(msg, Vec3(1, 1, 0.2))
def rotation(self):
rotation = self.getHpr()
return Vec3(-rotation[1], -rotation[0], rotation[2])
def getClickBox(self):
return [Vec3(-1, -0.2, -1), Vec3(1, 0.2, 1)]
def onTransformDone(self):
self.toolVisRoot.setHpr(Vec3(0))
self.setBoxToSelection()
def generate(self):
DistributedObject.announceGenerate(self)
self.trolleyStation = self.cr.playGame.hood.loader.geom.find('**/prop_trolley_station_DNARoot')
self.trolleyCar = self.trolleyStation.find('**/trolley_car')
self.trolleyKey = self.trolleyStation.find('**/key')
exitFog = Fog('TrolleyExitFog')
exitFog.setColor(0.0, 0.0, 0.0)
exitFog.setLinearOnsetPoint(30.0, 14.0, 0.0)
exitFog.setLinearOpaquePoint(37.0, 14.0, 0.0)
exitFog.setLinearFallback(70.0, 999.0, 1000.0)
self.trolleyExitFog = self.trolleyStation.attachNewNode(exitFog)
self.trolleyExitFogNode = exitFog
enterFog = Fog('TrolleyEnterFog')
enterFog.setColor(0.0, 0.0, 0.0)
enterFog.setLinearOnsetPoint(0.0, 14.0, 0.0)
enterFog.setLinearOpaquePoint(-7.0, 14.0, 0.0)
enterFog.setLinearFallback(70.0, 999.0, 1000.0)
self.trolleyEnterFog = self.trolleyStation.attachNewNode(enterFog)
self.trolleyEnterFogNode = enterFog
self.trolleyCar.setFogOff()
tn = TextNode('trolleycountdowntext')
tn.setFont(CIGlobals.getMickeyFont())
tn.setTextColor(1, 0, 0, 1)
tn.setAlign(TextNode.ACenter)
self.keys = self.trolleyCar.findAllMatches('**/key')
self.numKeys = self.keys.getNumPaths()
self.keyInit = []
self.keyRef = []
for i in range(self.numKeys):
key = self.keys[i]
key.setTwoSided(1)
ref = self.trolleyCar.attachNewNode('key' + `i` + 'ref')
ref.iPosHpr(key)
self.keyRef.append(ref)
self.keyInit.append(key.getTransform())
self.frontWheels = self.trolleyCar.findAllMatches('**/front_wheels')
self.numFrontWheels = self.frontWheels.getNumPaths()
self.frontWheelInit = []
self.frontWheelRef = []
for i in range(self.numFrontWheels):
wheel = self.frontWheels[i]
ref = self.trolleyCar.attachNewNode('frontWheel' + `i` + 'ref')
ref.iPosHpr(wheel)
self.frontWheelRef.append(ref)
self.frontWheelInit.append(wheel.getTransform())
self.backWheels = self.trolleyCar.findAllMatches('**/back_wheels')
self.numBackWheels = self.backWheels.getNumPaths()
self.backWheelInit = []
self.backWheelRef = []
for i in range(self.numBackWheels):
wheel = self.backWheels[i]
ref = self.trolleyCar.attachNewNode('backWheel' + `i` + 'ref')
ref.iPosHpr(wheel)
self.backWheelRef.append(ref)
self.backWheelInit.append(wheel.getTransform())
trolleyAnimationReset = Func(self.resetAnimation)
trolleyEnterStartPos = Point3(-20, 14, -1)
trolleyEnterEndPos = Point3(15, 14, -1)
trolleyEnterPos = Sequence(name='TrolleyEnterPos')
trolleyEnterPos.append(Func(self.trolleyCar.setFog, self.trolleyEnterFogNode))
trolleyEnterPos.append(self.trolleyCar.posInterval(TROLLEY_ENTER_TIME, trolleyEnterEndPos, startPos=trolleyEnterStartPos, blendType='easeOut'))
trolleyEnterPos.append(Func(self.trolleyCar.setFogOff))
trolleyEnterTrack = Sequence(trolleyAnimationReset, trolleyEnterPos, name='trolleyEnter')
keyAngle = round(TROLLEY_ENTER_TIME) * 360
dist = Vec3(trolleyEnterEndPos - trolleyEnterStartPos).length()
wheelAngle = dist / (2.0 * math.pi * 0.95) * 360
trolleyEnterAnimateInterval = LerpFunctionInterval(self.animateTrolley, duration=TROLLEY_ENTER_TIME, blendType='easeOut', extraArgs=[keyAngle, wheelAngle], name='TrolleyAnimate')
trolleyEnterSoundTrack = SoundInterval(self.trolleyAwaySfx, node=self.trolleyCar)
self.trolleyEnterTrack = Parallel(trolleyEnterTrack, trolleyEnterAnimateInterval, trolleyEnterSoundTrack)
trolleyExitStartPos = Point3(15, 14, -1)
trolleyExitEndPos = Point3(50, 14, -1)
trolleyExitPos = Sequence(name='TrolleyExitPos')
trolleyExitPos.append(Func(self.trolleyCar.setFog, self.trolleyExitFogNode))
trolleyExitPos.append(self.trolleyCar.posInterval(TROLLEY_EXIT_TIME, trolleyExitEndPos, startPos=trolleyExitStartPos, blendType='easeIn'))
trolleyExitPos.append(Func(self.trolleyCar.setFogOff))
trolleyExitStartPos = Point3(15, 14, -1)
trolleyExitEndPos = Point3(50, 14, -1)
trolleyExitBellInterval = SoundInterval(self.trolleyBellSfx, node=self.trolleyCar)
trolleyExitAwayInterval = SoundInterval(self.trolleyAwaySfx, node=self.trolleyCar)
keyAngle = round(TROLLEY_EXIT_TIME) * 360
dist = Vec3(trolleyExitEndPos - trolleyExitStartPos).length()
wheelAngle = dist / (2.0 * math.pi * 0.95) * 360
trolleyExitAnimateInterval = LerpFunctionInterval(self.animateTrolley, duration=TROLLEY_EXIT_TIME, blendType='easeIn', extraArgs=[keyAngle, wheelAngle], name='TrolleyAnimate')
self.trolleyExitTrack = Parallel(trolleyExitPos, trolleyExitBellInterval, trolleyExitAwayInterval, trolleyExitAnimateInterval, name=self.uniqueName('trolleyExit'))
self.countdownText = self.trolleyStation.attachNewNode(tn)
self.countdownText.setScale(3.0)
self.countdownText.setPos(14.58, 10.77, 11.17)
self.acceptOnce('entertrolley_sphere', self.__handleTrolleyTrigger)
def world_scale(self, value):
if isinstance(value, (int, float, complex)):
value = (value, value, value)
self.setScale(base.render, Vec3(value[0], value[2], value[1]))
def exitNormal(self):
self.setAnimState('off', 1.0)
if self.isLocal:
self.activity.orthoWalk.stop()
self.toon.lerpLookAt(Vec3.forward(), time=0.2, blink=0)
def enterNormal(self):
self.notify.debug('enterNormal')
self.setAnimState('Catching', 1.0)
if self.isLocal:
self.activity.orthoWalk.start()
self.toon.lerpLookAt(Vec3.forward() + Vec3.up(), time=0.2, blink=0)
def update(self):
self.velocity = self.velocity + self.acceleration
self.location = self.location + self.velocity
self.acceleration = Vec3.zero()
def setDestination(self, destination):
self.destination = Vec3(destination[0], destination[1], 0)
self.destinationNode.setPos(self.destination)
def construct(self, size):
self.size = size
node = BulletRigidBodyNode()
shape = BulletBoxShape(Vec3(*size))
node.addShape(shape)
return node
def right(self):
vec = render.getRelativeVector(self, (1, 0, 0))
return Vec3(vec[0], vec[2], vec[1])
def __init__(self,info):
# animation base setup
self.character_info_ = info
size = Vec3(info.width, AnimationActor.DEFAULT_WIDTH , info.height)
AnimatableObject.__init__(self,info.name,size,info.mass)
self.animation_root_np_.setPos(Vec3(0,0,0))
# constraints
self.left_constraint_ = None
self.right_constraint_ = None
self.selected_constraint_ = None
# removing default shapes from rigid body
shapes = self.node().getShapes()
for shape in shapes:
self.node().removeShape(shape)
# adding capsule shape
radius = 0.5*size.getX()
height = size.getZ() - 2.0*radius # height of cylindrical part only
height = height if height >= 0 else 0.0
bullet_shape = BulletCapsuleShape(radius, height, ZUp)
bullet_shape.setMargin(GameObject.DEFAULT_COLLISION_MARGIN)
self.node().addShape(bullet_shape,TransformState.makePos(Vec3(0,0,0.5*size.getZ()))) # box bottom center coincident with the origin
self.node().setMass(self.character_info_.mass)
self.node().setLinearFactor((1,1,1))
self.node().setAngularFactor((0,0,0))
self.setCollideMask(CollisionMasks.NO_COLLISION)
# setting bounding volume
min = LPoint3(-0.5*size.getX(),-0.5*size.getY(),0)
max = LPoint3(0.5*size.getX(),0.5*size.getY(),size.getZ())
self.node().setBoundsType(BoundingVolume.BT_box)
self.node().setBounds(BoundingBox(min,max))
# setting origin ghost nodes
rel_pos = Vec3(-GameObject.ORIGIN_XOFFSET,0,info.height/2)
self.left_origin_gn_ = self.attachNewNode(BulletGhostNode(self.getName() + '-left-origin'))
self.left_origin_gn_.node().addShape(BulletSphereShape(GameObject.ORIGIN_SPHERE_RADIUS),TransformState.makePosHpr(rel_pos,Vec3.zero()))
self.left_origin_gn_.node().setIntoCollideMask(CollisionMasks.ACTION_TRIGGER_0 if not self.isFacingRight() else CollisionMasks.NO_COLLISION)
rel_pos = Vec3(GameObject.ORIGIN_XOFFSET,0,info.height/2)
self.right_origin_gn_ = self.attachNewNode(BulletGhostNode(self.getName() + '-right-origin'))
self.right_origin_gn_.node().addShape(BulletSphereShape(GameObject.ORIGIN_SPHERE_RADIUS),TransformState.makePosHpr(rel_pos,Vec3.zero()))
self.right_origin_gn_.node().setIntoCollideMask(CollisionMasks.ACTION_TRIGGER_0 if self.isFacingRight() else CollisionMasks.NO_COLLISION)
# character status
self.state_data_ = CharacterStateData()
# state machine
self.sm_ = StateMachine()
# motion commander
self.motion_commander_ = MotionCommander(self)
# set id
self.setObjectID(self.getName())
def up(self):
vec = render.getRelativeVector(self, (0, 0, 1))
return Vec3(vec[0], vec[2], vec[1])
def world_scale_z(self, value):
self.setScale(base.render, Vec3(self.world_scale_x, value, self.world_scale_y))
def load_vehicle(self, pos=(0.0, -20.0, -0.6), quat=None):
# Chassis
self._mass = self.params['mass']
#chassis_shape = self.params['chassis_shape']
shape = BulletBoxShape(Vec3(0.6, 1.4, 0.5))
ts = TransformState.makePos(Point3(0, 0, 0.5))
self.vehicle_pointer = self.worldNP.attachNewNode(
BulletRigidBodyNode('Vehicle'))
self.vehicle_node = self.vehicle_pointer.node()
self.vehicle_node.addShape(shape, ts)
self.previous_pos = pos
self.vehicle_pointer.setPos(pos[0], pos[1], pos[2])
if quat is not None:
self.vehicle_pointer.setQuat(quat)
self.previous_quat = self.vehicle_pointer.getQuat()
self.vehicle_node.setMass(self._mass)
self.vehicle_node.setDeactivationEnabled(False)
# first_person = self.params['first_person']
self.camera_sensor = Panda3dCameraSensor(base,
color=True,
depth=True,
size=(160, 90))
self.camera_node = self.camera_sensor.cam
# if first_person:
# self.camera_node.setPos(0.0, 1.0, 1.0)
# self.camera_node.lookAt(0.0, 6.0, 0.0)
# else:
# self.camera_node.setPos(0.0, -10.0, 5.0)
# self.camera_node.lookAt(0.0, 5.0, 0.0)
self.camera_node.reparentTo(self.vehicle_pointer)
self.camera_node.setPos(0.0, 1.0, 1.0)
self.camera_node.lookAt(0.0, 6.0, 0.0)
self.back_camera_sensor = Panda3dCameraSensor(base,
color=True,
depth=True,
size=(160, 90))
self.back_camera_node = self.back_camera_sensor.cam
# if first_person:
# self.camera_node.setPos(0.0, 1.0, 1.0)
# self.camera_node.lookAt(0.0, 6.0, 0.0)
# else:
# self.camera_node.setPos(0.0, -10.0, 5.0)
# self.camera_node.lookAt(0.0, 5.0, 0.0)
self.back_camera_node.reparentTo(self.vehicle_pointer)
self.back_camera_node.setPos(0.0, -1.0, 1.0)
self.back_camera_node.lookAt(0.0, -6.0, 0.0)
self.world.attachRigidBody(self.vehicle_node)
self.vehicle_node.setCcdSweptSphereRadius(1.0)
self.vehicle_node.setCcdMotionThreshold(1e-7)
# Vehicle
self.vehicle = BulletVehicle(self.world, self.vehicle_node)
self.vehicle.setCoordinateSystem(ZUp)
self.world.attachVehicle(self.vehicle)
self.yugoNP = loader.loadModel('../models/yugo/yugo.egg')
self.yugoNP.reparentTo(self.vehicle_pointer)
self._wheels = []
# Right front wheel
np = loader.loadModel('../models/yugo/yugotireR.egg')
np.reparentTo(self.worldNP)
self.addWheel(Point3(0.70, 1.05, 0.3), True, np)
# Left front wheel
np = loader.loadModel('../models/yugo/yugotireL.egg')
np.reparentTo(self.worldNP)
self.addWheel(Point3(-0.70, 1.05, 0.3), True, np)
# Right rear wheel
np = loader.loadModel('../models/yugo/yugotireR.egg')
np.reparentTo(self.worldNP)
self.addWheel(Point3(0.70, -1.05, 0.3), False, np)
# Left rear wheel
np = loader.loadModel('../models/yugo/yugotireL.egg')
np.reparentTo(self.worldNP)
self.addWheel(Point3(-0.70, -1.05, 0.3), False, np)
def scale(self):
scale = self.getScale()
return Vec3(scale[0], scale[2], scale[1])
def forward(self):
vec = render.getRelativeVector(self, (0, 1, 0))
return Vec3(vec[0], vec[2], vec[1])
def world_scale(self):
scale = self.getScale(base.render)
return Vec3(scale[0], scale[2], scale[1])
def attachRing(self, showbase):
self.ringNode = showbase.loader.loadModel('models/ring')
self.ringNode.setPos(-Vec3(0, 0, 1.25))
self.ringNode.reparentTo(self.head)
