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 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 __init__(self, cr):
DistributedEntity.__init__(self, cr)
self.height = 1.0
self.raiseSpeed = 1
self.stompSpeed = 1
self.scale = Vec3(1)
self.moveDir = Vec3.up()
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 __init__(self, cr):
DistributedEntity.__init__(self, cr)
FSM.__init__(self, 'func_rotating')
self.state = 0
self.axis = Vec3.up()
self.timeToFull = 5.0
self.speed = 50.0
self.spinTrack = None
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 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 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 __processSwimming(self):
procSwimCollector.start()
if self.__footContact:
absSlopeDot = round(self.__footContact[2].dot(Vec3.up()), 2)
if self.__targetPos.z - 0.1 < self.__footContact[0].z and (self.__linearVelocity.z < 0.0 or absSlopeDot < 1):
self.__targetPos.z = self.__footContact[0].z
self.__linearVelocity.z = 0.0
if self.__headContact and self.__capsuleTop >= self.__headContact[0].z and self.__linearVelocity.z > 0.0:
self.__linearVelocity.z = 0.0
procSwimCollector.stop()
def __applyLinearVelocity(self):
globalVel = 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 != "swimming":
normalVel = Vec3(globalVel)
normalVel.normalize()
floorNormal = self.__footContact[2]
#worldToAvatar = self.movementParent.getTransform(render).getInverse().getMat()
#contactNormalAv = worldToAvatar * floorNormal
#velAv = worldToAvatar * globalVel
#forward = contactNormalAv.cross(Vec3.right())
#forward.normalize()
#globalVel = forward * self.__linearVelocity.length() * self.__timeStep
absSlopeDot = round(floorNormal.dot(Vec3.up()), 2)
def applyGravity():
self.__targetPos -= 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.__targetPos -= Vec3(fn.x * globalVel.x, fn.y *
globalVel.y, 0.0) * velDot
globalVel *= velDot
elif self.__slopeAffectsSpeed and globalVel != Vec3():
applyGravity()
elif self.movementState == "swimming" and not self.isOnGround():
self.__targetPos -= Vec3(0, 0,
-self.gravity * self.__timeStep * 0.1)
self.__targetPos += globalVel
def __init__(self, air, dispatch):
DistributedEntityAI.__init__(self, air, dispatch)
self.height = 1.0
self.stompSpeed = 1
self.raiseSpeed = 1
self.timeOnGround = 0.0
self.timeInAir = 0.0
self.damage = 20
self.scale = Vec3(1)
self.floorColl = None
self.damaged = []
self.moveDir = Vec3.up()
self.stomped = False
self.startDelay = 0.0
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 __apply_linear_velocity(self):
global_vel = self.node.getQuat(render).xform(
self.__linear_velocity) * self.__time_step
if self.predict_future_space and not self.__check_future_space(
global_vel):
return
if self.__foot_contact is not None and self.min_slope_dot and self.movement_state != "flying":
normal_vel = Vec3(global_vel)
normal_vel.normalize()
floor_normal = self.__foot_contact[2]
abs_slope_dot = round(floor_normal.dot(Vec3.up()), 2)
def apply_gravity():
self.__current_pos -= Vec3(
floor_normal.x, floor_normal.y,
0.0) * self.gravity * self.__time_step * 0.1
if abs_slope_dot <= self.min_slope_dot:
apply_gravity()
if global_vel != Vec3():
global_vel_dir = Vec3(global_vel)
global_vel_dir.normalize()
fn = Vec3(floor_normal.x, floor_normal.y, 0.0)
fn.normalize()
vel_dot = 1.0 - global_vel_dir.angleDeg(fn) / 180.0
if vel_dot < 0.5:
self.__current_pos -= Vec3(fn.x * global_vel.x, fn.y *
global_vel.y, 0.0) * vel_dot
global_vel *= vel_dot
elif self.__slope_affects_speed and global_vel != Vec3():
apply_gravity()
self.__current_pos += global_vel
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 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 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 primitives(self, vdata):
vertex = GeomVertexWriter(vdata, 'vertex')
color = GeomVertexWriter(vdata, 'color')
w = ROAD_WIDTH / 2.0
v = 0
for a, b in self.edges:
a, b = self.points[a], self.points[b]
ab = b - a
n = ab.length()
inc = abs(a.z - b.z) / n
probes = max(2, n / 25)
ab_ = Vec3(ab)
ab_.normalize()
pab = Vec3.up().cross(ab_) * w
road = GeomTristrips(Geom.UHStatic)
for i in range(0, int(probes) + 1):
p = a + ab / probes * i
p1 = p + pab
p2 = p - pab
z = max(elevation(p1.x, p1.y), elevation(p2.x, p2.y))
p1.z = z + 0.2
p2.z = z + 0.2
vertex.addData3f(p1)
vertex.addData3f(p2)
if inc > 0.1:
color.addData4f(0.4, 0.0, 0.0, 0.0)
color.addData4f(0.4, 0.0, 0.0, 0.0)
elif n > 1000:
color.addData4f(0.0, 0.0, 0.4, 0.0)
color.addData4f(0.0, 0.0, 0.4, 0.0)
else:
color.addData4f(0.2, 0.2, 0.2, 0.0)
color.addData4f(0.2, 0.2, 0.2, 0.0)
road.addVertices(v, v + 1)
v += 2
road.closePrimitive()
yield road
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 __updateTask(self, task):
# TODO -- This function does a lot of math, I measured it to take .5 ms on my laptop
# That's a lot of time for something miniscule like sway and bob.
dt = globalClock.getDt()
time = globalClock.getFrameTime()
if base.localAvatar.isFirstPerson():
eyePoint = base.localAvatar.getEyePoint()
if base.localAvatar.walkControls.crouching:
eyePoint[2] = eyePoint[2] / 2.0
eyePoint[2] = CIGlobals.lerpWithRatio(eyePoint[2],
self.lastEyeHeight, 0.4)
self.lastEyeHeight = eyePoint[2]
camRootAngles = Vec3(0)
# Mouse look around
mw = base.mouseWatcherNode
if mw.hasMouse():
md = base.win.getPointer(0)
center = Point2(base.win.getXSize() / 2, base.win.getYSize() / 2)
xDist = md.getX() - center.getX()
yDist = md.getY() - center.getY()
sens = self.__getMouseSensitivity()
angular = -(xDist * sens) / dt
base.localAvatar.walkControls.controller.setAngularMovement(
angular)
camRootAngles.setY(self.lastPitch - yDist * sens)
if camRootAngles.getY() > FPSCamera.MaxP:
camRootAngles.setY(FPSCamera.MaxP)
yDist = 0
elif camRootAngles.getY() < FPSCamera.MinP:
yDist = 0
camRootAngles.setY(FPSCamera.MinP)
base.win.movePointer(0, int(center.getX()), int(center.getY()))
if base.localAvatar.isFirstPerson():
# Camera / viewmodel bobbing
vmBob = Point3(0)
vmAngles = Vec3(0)
vmRaise = Point3(0)
camBob = Point3(0)
maxSpeed = base.localAvatar.walkControls.BattleRunSpeed * 16.0
speed = base.localAvatar.walkControls.speeds.length() * 16.0
speed = max(-maxSpeed, min(maxSpeed, speed))
bobOffset = CIGlobals.remapVal(speed, 0, maxSpeed, 0.0, 1.0)
self.bobTime += (time - self.lastBobTime) * bobOffset
self.lastBobTime = time
# Calculate the vertical bob
cycle = self.bobTime - int(
self.bobTime / self.BobCycleMax) * self.BobCycleMax
cycle /= self.BobCycleMax
if cycle < self.BobUp:
cycle = math.pi * cycle / self.BobUp
else:
cycle = math.pi + math.pi * (cycle - self.BobUp) / (1.0 -
self.BobUp)
verticalBob = speed * 0.005
verticalBob = verticalBob * 0.3 + verticalBob * 0.7 * math.sin(
cycle)
verticalBob = max(-7.0, min(4.0, verticalBob))
verticalBob /= 16.0
# Calculate the lateral bob
cycle = self.bobTime - int(
self.bobTime / self.BobCycleMax * 2) * self.BobCycleMax * 2
cycle /= self.BobCycleMax * 2
if cycle < self.BobUp:
cycle = math.pi * cycle / self.BobUp
else:
cycle = math.pi + math.pi * (cycle - self.BobUp) / (1.0 -
self.BobUp)
lateralBob = speed * 0.005
lateralBob = lateralBob * 0.3 + lateralBob * 0.7 * math.sin(cycle)
lateralBob = max(-7.0, min(4.0, lateralBob))
lateralBob /= 16.0
# Apply bob, but scaled down a bit
vmBob.set(lateralBob * 0.8, 0, verticalBob * 0.1)
# Z bob a bit more
vmBob[2] += verticalBob * 0.1
# Bob the angles
vmAngles[2] += verticalBob * 0.5
vmAngles[1] -= verticalBob * 0.4
vmAngles[0] -= lateralBob * 0.3
# ================================================================
# Viewmodel lag/sway
angles = self.camRoot.getHpr(render)
quat = Quat()
quat.setHpr(angles)
invQuat = Quat()
invQuat.invertFrom(quat)
maxVMLag = 1.5
lagforward = quat.getForward()
if dt != 0.0:
lagdifference = lagforward - self.lastFacing
lagspeed = 5.0
lagdiff = lagdifference.length()
if (lagdiff > maxVMLag) and (maxVMLag > 0.0):
lagscale = lagdiff / maxVMLag
lagspeed *= lagscale
self.lastFacing = CIGlobals.extrude(self.lastFacing,
lagspeed * dt,
lagdifference)
self.lastFacing.normalize()
lfLocal = invQuat.xform(lagdifference)
vmBob = CIGlobals.extrude(vmBob, 5.0 / 16.0, lfLocal * -1.0)
pitch = angles[1]
if pitch > 180:
pitch -= 360
elif pitch < -180:
pitch += 360
vmBob = CIGlobals.extrude(vmBob, pitch * (0.035 / 16),
Vec3.forward())
vmBob = CIGlobals.extrude(vmBob, pitch * (0.03 / 16), Vec3.right())
vmBob = CIGlobals.extrude(vmBob, pitch * (0.02 / 16), Vec3.up())
# ================================================================
vmRaise.set(
0, 0, 0
) #(0, abs(camRootAngles.getY()) * -0.002, camRootAngles.getY() * 0.002)
camBob.set(0, 0, 0)
# Apply bob, raise, and sway to the viewmodel.
self.viewModel.setPos(vmBob + vmRaise + self.lastVMPos)
self.vmRoot2.setHpr(vmAngles)
self.camRoot.setPos(eyePoint + camBob)
newPitch = camRootAngles.getY()
if abs(newPitch - self.lastPitch) > self.PitchUpdateEpsilon:
# Broadcast where our head is looking
head = base.localAvatar.getPart("head")
if head and not head.isEmpty():
# Constrain the head pitch a little bit so it doesn't look like their head snapped
headPitch = max(-47, newPitch)
headPitch = min(75, headPitch)
base.localAvatar.b_setLookPitch(headPitch)
self.lastPitch = newPitch
if base.localAvatar.isFirstPerson():
# Apply punch angle
self.decayPunchAngle()
camRootAngles += self.punchAngle
self.camRoot.setHpr(camRootAngles)
return task.cont
def handleAvatarControls(self, task):
"""
Check on the arrow keys and update the avatar.
"""
# get the button states:
run = inputState.isSet("run")
forward = inputState.isSet("forward")
reverse = inputState.isSet("reverse")
turnLeft = inputState.isSet("turnLeft")
turnRight = inputState.isSet("turnRight")
slideLeft = inputState.isSet("slideLeft")
slideRight = inputState.isSet("slideRight")
jump = inputState.isSet("jump")
avatarControlForwardSpeed = 0
avatarControlReverseSpeed = 0
avatarControlSLeftSpeed = 0
avatarControlSRightSpeed = 0
if forward:
if not self.hasSetForwardInitTime:
self.forwardInitTime = globalClock.getFrameTime()
self.hasSetForwardInitTime = True
self.isAtZeroForward = False
self.hasSetForwardStopTime = False
timeSinceForwardSet = globalClock.getFrameTime() - self.forwardInitTime
if timeSinceForwardSet == 0:
avatarControlForwardSpeed = 0.0
else:
avatarControlForwardSpeed = min((timeSinceForwardSet / self.avatarControlForwardSpeed) * 750,
self.avatarControlForwardSpeed)
else:
if self.hasSetForwardInitTime:
self.hasSetForwardInitTime = False
if not self.hasSetForwardStopTime:
self.forwardStopTime = globalClock.getFrameTime()
self.hasSetForwardStopTime = True
timeSinceForwardStop = globalClock.getFrameTime() - self.forwardStopTime
if timeSinceForwardStop == 0:
avatarControlForwardSpeed = 16.0
elif not self.isAtZeroForward:
avatarControlForwardSpeed = self.avatarControlForwardSpeed - (timeSinceForwardStop * 50)
if avatarControlForwardSpeed <= 0.5:
avatarControlForwardSpeed = 0.0
self.isAtZeroForward = True
self.hasSetForwardStopTime = False
if reverse:
if not self.hasSetReverseInitTime:
self.reverseInitTime = globalClock.getFrameTime()
self.hasSetReverseInitTime = True
self.isAtZeroReverse = False
self.hasSetReverseStopTime = False
timeSinceReverseSet = globalClock.getFrameTime() - self.reverseInitTime
if timeSinceReverseSet == 0:
avatarControlReverseSpeed = 0.0
else:
avatarControlReverseSpeed = min((timeSinceReverseSet / self.avatarControlReverseSpeed) * 400,
self.avatarControlReverseSpeed)
else:
if self.hasSetReverseInitTime:
self.hasSetReverseInitTime = False
if not self.hasSetReverseStopTime:
self.reverseStopTime = globalClock.getFrameTime()
self.hasSetReverseStopTime = True
timeSinceReverseStop = globalClock.getFrameTime() - self.reverseStopTime
if timeSinceReverseStop == 0:
avatarControlReverseSpeed = 16.0
elif not self.isAtZeroReverse:
avatarControlReverseSpeed = self.avatarControlReverseSpeed - (timeSinceReverseStop * 20)
if avatarControlReverseSpeed <= 0.5:
avatarControlReverseSpeed = 0.0
self.isAtZeroReverse = True
self.hasSetReverseStopTime = False
if slideLeft:
if not self.hasSetSLeftInitTime:
self.sLeftInitTime = globalClock.getFrameTime()
self.hasSetSLeftInitTime = True
self.isAtZeroSLeft = False
self.hasSetSLeftStopTime = False
timeSinceSLeftSet = globalClock.getFrameTime() - self.sLeftInitTime
if timeSinceSLeftSet == 0:
avatarControlSLeftSpeed = 0.0
else:
avatarControlSLeftSpeed = min((timeSinceSLeftSet / self.avatarControlForwardSpeed) * 750,
self.avatarControlForwardSpeed)
else:
if self.hasSetSLeftInitTime:
self.hasSetSLeftInitTime = False
if not self.hasSetSLeftStopTime:
self.sLeftStopTime = globalClock.getFrameTime()
self.hasSetSLeftStopTime = True
timeSinceSLeftStop = globalClock.getFrameTime() - self.sLeftStopTime
if timeSinceSLeftStop == 0:
avatarControlSLeftSpeed = 16.0
elif not self.isAtZeroSLeft:
avatarControlSLeftSpeed = self.avatarControlForwardSpeed - (timeSinceSLeftStop * 50)
if avatarControlSLeftSpeed <= 0.5:
avatarControlSLeftSpeed = 0.0
self.isAtZeroSLeft = True
self.hasSetSLeftStopTime = False
if slideRight:
if not self.hasSetSRightInitTime:
self.sRightInitTime = globalClock.getFrameTime()
self.hasSetSRightInitTime = True
self.isAtZeroSRight = False
self.hasSetSRightStopTime = False
timeSinceSRightSet = globalClock.getFrameTime() - self.sRightInitTime
if timeSinceSRightSet == 0:
avatarControlSRightSpeed = 0.0
else:
avatarControlSRightSpeed = min((timeSinceSRightSet / self.avatarControlForwardSpeed) * 750,
self.avatarControlForwardSpeed)
else:
if self.hasSetSRightInitTime:
self.hasSetSRightInitTime = False
if not self.hasSetSRightStopTime:
self.sRightStopTime = globalClock.getFrameTime()
self.hasSetSRightStopTime = True
timeSinceSRightStop = globalClock.getFrameTime() - self.sRightStopTime
if timeSinceSRightStop == 0:
avatarControlSRightSpeed = 16.0
elif not self.isAtZeroSRight:
avatarControlSRightSpeed = self.avatarControlForwardSpeed - (timeSinceSRightStop * 50)
if avatarControlSRightSpeed <= 0.5:
avatarControlSRightSpeed = 0.0
self.isAtZeroSRight = True
self.hasSetSRightStopTime = False
# Check for Auto-Run
#if 'localAvatar' in __builtins__:
# if base.localAvatar and base.localAvatar.getAutoRun():
# forward = 1
# reverse = 0
# Determine what the speeds are based on the buttons:
self.speed=(avatarControlForwardSpeed or
-avatarControlReverseSpeed)
# Slide speed is a scaled down version of forward speed
# Note: you can multiply a factor in here if you want slide to
# be slower than normal walk/run. Let's try full speed.
#self.slideSpeed=(slideLeft and -self.avatarControlForwardSpeed*0.75 or
# slideRight and self.avatarControlForwardSpeed*0.75)
self.slideSpeed=(-avatarControlSLeftSpeed or
avatarControlSRightSpeed)
self.rotationSpeed=not (slideLeft or slideRight) and (
(turnLeft and self.avatarControlRotateSpeed) or
(turnRight and -self.avatarControlRotateSpeed))
if self.speed and self.slideSpeed:
self.speed *= GravityWalker.DiagonalFactor
self.slideSpeed *= GravityWalker.DiagonalFactor
debugRunning = inputState.isSet("debugRunning")
if(debugRunning):
self.speed*=base.debugRunningMultiplier
self.slideSpeed*=base.debugRunningMultiplier
self.rotationSpeed*=1.25
if self.needToDeltaPos:
self.setPriorParentVector()
self.needToDeltaPos = 0
if self.wantDebugIndicator:
self.displayDebugInfo()
if self.lifter.isOnGround():
if self.isAirborne:
self.isAirborne = 0
assert self.debugPrint("isAirborne 0 due to isOnGround() true")
impact = self.lifter.getImpactVelocity()
if impact < -30.0:
messenger.send("jumpHardLand")
self.startJumpDelay(0.3)
else:
messenger.send("jumpLand")
if impact < -5.0:
self.startJumpDelay(0.2)
# else, ignore the little potholes.
assert self.isAirborne == 0
self.priorParent = Vec3.zero()
if jump and self.mayJump:
# The jump button is down and we're close
# enough to the ground to jump.
self.lifter.addVelocity(self.avatarControlJumpForce)
messenger.send("jumpStart")
self.isAirborne = 1
assert self.debugPrint("isAirborne 1 due to jump")
else:
if self.isAirborne == 0:
assert self.debugPrint("isAirborne 1 due to isOnGround() false")
self.isAirborne = 1
self.__oldPosDelta = self.avatarNodePath.getPosDelta(render)
# How far did we move based on the amount of time elapsed?
self.__oldDt = ClockObject.getGlobalClock().getDt()
dt=self.__oldDt
# Check to see if we're moving at all:
self.moving = self.speed or self.slideSpeed or self.rotationSpeed or (self.priorParent!=Vec3.zero())
if self.moving:
distance = dt * self.speed
slideDistance = dt * self.slideSpeed
rotation = dt * self.rotationSpeed
# Take a step in the direction of our previous heading.
if distance or slideDistance or self.priorParent != Vec3.zero():
# rotMat is the rotation matrix corresponding to
# our previous heading.
rotMat=Mat3.rotateMatNormaxis(self.avatarNodePath.getH(), Vec3.up())
if self.isAirborne:
forward = Vec3.forward()
else:
contact = self.lifter.getContactNormal()
forward = contact.cross(Vec3.right())
# Consider commenting out this normalize. If you do so
# then going up and down slops is a touch slower and
# steeper terrain can cut the movement in half. Without
# the normalize the movement is slowed by the cosine of
# the slope (i.e. it is multiplied by the sign as a
# side effect of the cross product above).
forward.normalize()
self.vel=Vec3(forward * distance)
if slideDistance:
if self.isAirborne:
right = Vec3.right()
else:
right = forward.cross(contact)
# See note above for forward.normalize()
right.normalize()
self.vel=Vec3(self.vel + (right * slideDistance))
self.vel=Vec3(rotMat.xform(self.vel))
step=self.vel + (self.priorParent * dt)
self.avatarNodePath.setFluidPos(Point3(
self.avatarNodePath.getPos()+step))
self.avatarNodePath.setH(self.avatarNodePath.getH()+rotation)
else:
self.vel.set(0.0, 0.0, 0.0)
if self.moving or jump:
messenger.send("avatarMoving")
return Task.cont
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 moveUp(self):
vp = base.viewportMgr.activeViewport
if not vp or not vp.is2D():
return
self.updatePos(self.pos + self.getMoveDelta(Vec3.up(), vp))
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)
