unsigned int Forest::onCollideJumper(unsigned int id, Matrix4f* matrix, void* data)
{
    Forest* __this = reinterpret_cast<Forest*>( data );

    // determine obb of instance
    NxBox instanceOBB = calculateOBB( 
        __this->_canopyBatch->getBatchScheme()->lodGeometry[0], 
        *matrix,
        __this->_desc.collScale
    );
    __this->_debugBoxes.push_back( instanceOBB );

    // collide obbs
    if( NxBoxBoxIntersect( instanceOBB, __this->_jumperOBB ) )
    {
        Jumper* jumper = dynamic_cast<Jumper*>( __this->_currentJumper );
        // add impulse to jumper body
        NxVec3 linearVelocity = __this->_currentJumperActor->getLinearVelocity();
        NxVec3 impulse = linearVelocity * getCore()->getRandToolkit()->getUniform( __this->_desc.minImpulseFactor, __this->_desc.maxImpulseFactor ) * -1;
        NxVec3 localPos(
            __this->_jumperOBB.extents.x * getCore()->getRandToolkit()->getUniform( -1, 1 ),
            __this->_jumperOBB.extents.y * getCore()->getRandToolkit()->getUniform( -1, 1 ),
            __this->_jumperOBB.extents.z * getCore()->getRandToolkit()->getUniform( -1, 1 )
        );
        __this->_currentJumperActor->addForceAtLocalPos( impulse, localPos, NX_IMPULSE );
        // damage jumper
        jumper->damage( __this->_desc.damageFactor * impulse.magnitude(), 0.0f, linearVelocity.magnitude() );
        // play rustle sound
        __this->playRustleSound( __this->_currentJumperCollision->getFrame()->getPos() );
    }

    return id;
}
Beispiel #2
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/**
 * \brief Notifies this state that the hero is activating a jumper.
 * \param jumper The jumper activated.
 */
void Hero::RunningState::notify_jumper_activated(Jumper& jumper) {

  // Jump immediately.
  get_hero().start_jumping(
      jumper.get_direction(),
      jumper.get_jump_length(),
      true,
      true,
      0);
}
Beispiel #3
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/**
 * \brief Returns whether a jumper is considered as an obstacle in this state.
 * \param jumper a jumper
 * \return true if the sensor is an obstacle in this state
 */
bool Hero::State::is_jumper_obstacle(Jumper& jumper) {

  if (hero.overlaps(jumper)) {
    // The hero may overlap the jumper if he arrived by another direction
    // and thus did not activate it.
    // This is allowed and can be used to leave water pools for example.
    return false;
  }

  if (!can_take_jumper()) {
    // If jumpers cannot be used in this state, consider them as obstacles.
    return true;
  }

  // At this point, we know that the jumper can be activated.

  if (jumper.is_in_jump_position(hero)) {
    // If the hero is correctly placed (ready to jump), make the jumper
    // obstacle so that the player has to move in the jumper's direction
    // during a small delay before jumping.
    // This also prevents the hero to be partially inside the jumper when
    // starting the jump.
    return true;
  }

  // But if the hero is not placed correctly, make the jumper traversable so
  // that the smooth movement can slide to it.
  return false;
}
Beispiel #4
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/**
 * \copydoc MapEntity::is_jumper_obstacle
 */
bool CustomEntity::is_jumper_obstacle(Jumper& jumper, const Rectangle& candidate_position) {

    const TraversableInfo& info = get_can_traverse_entity_info(jumper.get_type());
    if (!info.is_empty()) {
        return !info.is_traversable(*this, jumper);
    }
    return Detector::is_jumper_obstacle(jumper, candidate_position);
}
Beispiel #5
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/**
 * \brief Returns whether a jumper is considered as an obstacle in this state
 * for the hero at the specified position.
 * \param jumper A jumper.
 * \param candidate_position Position of the hero to test.
 * \return \c true if the jumper is an obstacle in this state with this
 * hero position.
 */
bool Hero::BaseState::is_jumper_obstacle(
    const Jumper& jumper, const Rectangle& candidate_position) const {
  const Hero& hero = get_entity();

  if (jumper.overlaps_jumping_region(hero.get_bounding_box(), false)) {
    // The hero already overlaps the active part of the jumper.
    // This is authorized if he arrived from another direction
    // and thus did not activate it.
    // This can be used to leave water pools for example.
    return false;
  }

  if (!jumper.overlaps_jumping_region(candidate_position, false)) {
    // The candidate position is in the inactive region: always accept that.
    return false;
  }

  if (!can_take_jumper()) {
    // If jumpers cannot be used in this state, consider their active region
    // as obstacles and their inactive region as traversable.
    // The active region should be an obstacle.
    return true;
  }

  // At this point, we know that the jumper can be activated.

  const bool hero_in_jump_position =
      jumper.is_in_jump_position(hero, hero.get_bounding_box(), false);
  const bool candidate_in_jump_position =
      jumper.is_in_jump_position(hero, candidate_position, false);

  if (candidate_in_jump_position) {
    // Wants to move to a valid jump position: accept.
    return false;
  }

  if (hero_in_jump_position) {
    // If the hero is already correctly placed (ready to jump),
    // make the jumper obstacle so that the player has to move in the
    // jumper's direction during a small delay before jumping.
    // This also prevents the hero to get inside the jumper's active region.
    return true;
  }

  const bool candidate_in_extended_jump_position =
      jumper.is_in_jump_position(hero, candidate_position, true);

  if (candidate_in_extended_jump_position) {
    // Wants to get inside the active region from an end of the jumper:
    // don't accept this.
    return true;
  }

  if (!jumper.is_jump_diagonal() &&
      hero.is_moving_towards(jumper.get_direction() / 2)) {
    // Special case: make the jumper traversable so
    // that the smooth movement can slide to it.
    return false;
  }

  if (!jumper.is_jump_diagonal() &&
      get_name() == "swimming" &&  // TODO use inheritance instead
      hero.is_moving_towards(((jumper.get_direction() / 2) + 2) % 4)
  ) {
    // Other special case: trying to enter the jumper the reverse way while
    // swimming: we accept this to allow the hero to leave water pools.
    // TODO I'm not sure this behavior is really a good idea.
    // This may change in a future version.
    return false;
  }

  return true;
}
Beispiel #6
0
void Mission::FollowCamera::onUpdateActivity(float dt)
{
        assert( _scene );
        _cameraFOV = 80.0f;

        _positionModeTimeout -= dt;
        _positionModeTimeout = _positionModeTimeout < 0 ? 0 : _positionModeTimeout;

        // retrieve action channels
        ActionChannel* headLeft  = Gameplay::iGameplay->getActionChannel( iaHeadLeft );
        ActionChannel* headRight = Gameplay::iGameplay->getActionChannel( iaHeadRight );
        ActionChannel* headUp    = Gameplay::iGameplay->getActionChannel( iaHeadUp );
        ActionChannel* headDown  = Gameplay::iGameplay->getActionChannel( iaHeadDown );
        ActionChannel* zoomIn    = Gameplay::iGameplay->getActionChannel( iaZoomIn );
        ActionChannel* zoomOut   = Gameplay::iGameplay->getActionChannel( iaZoomOut );    

        switch (_mode) {
        case FeetLeft: 
                {
                        // target position
                        Matrix4f targetPose( 1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1 );
                        if( _target ) targetPose = _target->getPose();

                        Vector3f targetPos( targetPose[3][0], targetPose[3][1], targetPose[3][2] );
                        Vector3f targetUp( targetPose[1][0], targetPose[1][1], targetPose[1][2] );
                        Vector3f targetRight( targetPose[0][0], targetPose[0][1], targetPose[0][2] );
                        Vector3f targetFront( targetPose[2][0], targetPose[2][1], targetPose[2][2] );
                        targetUp.normalize();
                        targetRight.normalize();
                        targetFront.normalize();

                        Vector3f cameraPos(targetPos);

                        if( dynamic_cast<Jumper*>( _target ) )
                        {
                                Jumper* j = dynamic_cast<Jumper*>( _target );
                                j->getClump()->getFrame()->getLTM();
                                engine::IFrame* backBone = Jumper::getBackBone( j->getClump() );
                                targetPos = backBone->getPos();

                                engine::IFrame* legBone = Jumper::getLeftSmokeJetAnchor(j->getClump());
                                cameraPos = legBone->getPos();
                                cameraPos += legBone->getAt() * 0.0f; // right
                                cameraPos += legBone->getUp() * -10.0f; // up
                                cameraPos += legBone->getRight() * -20.0f; // forward
                                targetPos = cameraPos;
                                targetPos += legBone->getAt() * -25.0f; // right
                                targetPos += legBone->getRight() * 40.0f; // forward
                                targetPos += legBone->getUp() * -25.0f; // up
                                targetUp = legBone->getUp() * -8.0f + legBone->getAt() * -2.0f;
                                targetUp.normalize();
                        }

                        //cameraPos += targetUp * 45.0f - targetRight * 40.0f - targetFront * 100.0f;

                        // camera direction
                        Vector3f cameraAt = cameraPos - targetPos/* + targetFront * 50.0f*/;
                        cameraAt.normalize();        

                        // camera right
                        Vector3f cameraRight; 
                        cameraRight.cross( targetUp, cameraAt );
                        cameraRight.normalize();

                        // camera up
                        Vector3f cameraUp;
                        cameraUp.cross( cameraAt, cameraRight );
                        cameraUp.normalize();

                        // camera matrix
                        _cameraMatrix.set( 
                                cameraRight[0], cameraRight[1], cameraRight[2], 0.0f,
                                cameraUp[0], cameraUp[1], cameraUp[2], 0.0f,
                                cameraAt[0], cameraAt[1], cameraAt[2], 0.0f,
                                cameraPos[0], cameraPos[1], cameraPos[2], 1.0f
                                );

                        break;
                }
        case FeetRight:
                {
                        // target position
                        Matrix4f targetPose( 1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1 );
                        if( _target ) targetPose = _target->getPose();

                        Vector3f targetPos( targetPose[3][0], targetPose[3][1], targetPose[3][2] );
                        Vector3f targetUp( targetPose[1][0], targetPose[1][1], targetPose[1][2] );
                        Vector3f targetRight( targetPose[0][0], targetPose[0][1], targetPose[0][2] );
                        Vector3f targetFront( targetPose[2][0], targetPose[2][1], targetPose[2][2] );
                        targetUp.normalize();
                        targetRight.normalize();
                        targetFront.normalize();

                        Vector3f cameraPos(targetPos);

                        if( dynamic_cast<Jumper*>( _target ) )
                        {
                                Jumper* j = dynamic_cast<Jumper*>( _target );
                                j->getClump()->getFrame()->getLTM();
                                engine::IFrame* backBone = Jumper::getBackBone( j->getClump() );
                                targetPos = backBone->getPos();

                                engine::IFrame* legBone = Jumper::getRightSmokeJetAnchor(j->getClump());
                                cameraPos = legBone->getPos();
                                cameraPos += legBone->getAt() * 0.0f; // right
                                cameraPos += legBone->getUp() * -12.0f; // up
                                cameraPos += legBone->getRight() * -20.0f; // forward
                                targetPos = cameraPos;
                                targetPos += legBone->getAt() * -25.0f; // right
                                targetPos += legBone->getRight() * 40.0f; // forward
                                targetPos += legBone->getUp() * -25.0f; // up
                                targetUp = legBone->getUp() * -8.0f + legBone->getAt() * -2.0f;
                                targetUp.normalize();
                        }

                        //cameraPos += targetUp * 45.0f - targetRight * 40.0f - targetFront * 100.0f;

                        // camera direction
                        Vector3f cameraAt = cameraPos - targetPos/* + targetFront * 50.0f*/;
                        cameraAt.normalize();        

                        // camera right
                        Vector3f cameraRight; 
                        cameraRight.cross( targetUp, cameraAt );
                        cameraRight.normalize();

                        // camera up
                        Vector3f cameraUp;
                        cameraUp.cross( cameraAt, cameraRight );
                        cameraUp.normalize();

                        // camera matrix
                        _cameraMatrix.set( 
                                cameraRight[0], cameraRight[1], cameraRight[2], 0.0f,
                                cameraUp[0], cameraUp[1], cameraUp[2], 0.0f,
                                cameraAt[0], cameraAt[1], cameraAt[2], 0.0f,
                                cameraPos[0], cameraPos[1], cameraPos[2], 1.0f
                                );

                        break;
                }
        case Back:
                {
                        // target position
                        Matrix4f targetPose( 1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1 );
                        if( _target ) targetPose = _target->getPose();

                        Vector3f targetPos( targetPose[3][0], targetPose[3][1], targetPose[3][2] );
                        Vector3f targetUp( targetPose[1][0], targetPose[1][1], targetPose[1][2] );
                        Vector3f targetRight( targetPose[0][0], targetPose[0][1], targetPose[0][2] );
                        Vector3f targetFront( targetPose[2][0], targetPose[2][1], targetPose[2][2] );
                        targetUp.normalize();
                        targetRight.normalize();
                        targetFront.normalize();

                        Vector3f cameraPos(targetPos);

                        if( dynamic_cast<Jumper*>( _target ) )
                        {
                                Jumper* j = dynamic_cast<Jumper*>( _target );
                                j->getClump()->getFrame()->getLTM();
                                engine::IFrame* backBone = Jumper::getBackBone( j->getClump() );
                                targetPos = backBone->getPos();

                                engine::IFrame* head = Jumper::getHelmetEquipAnchor(j->getClump());
                                cameraPos = head->getPos();
                                cameraPos += head->getAt() * -28.0f; // down
                                cameraPos += head->getRight() * 0.0f; // left
                                cameraPos += head->getUp() * -1.0f; // forward
                                targetPos = cameraPos;
                                targetPos += head->getAt() * -10.0f; // down
                                targetPos += head->getRight() * 0.0f; // left
                                targetPos += head->getUp() * -10.0f; // forward
                                targetUp = head->getAt() * -1.0f;
                                targetUp.normalize();
                        }

                        //cameraPos += targetUp * 45.0f - targetRight * 40.0f - targetFront * 100.0f;

                        // camera direction
                        Vector3f cameraAt = cameraPos - targetPos/* + targetFront * 50.0f*/;
                        cameraAt.normalize();        

                        // camera right
                        Vector3f cameraRight; 
                        cameraRight.cross( targetUp, cameraAt );
                        cameraRight.normalize();

                        // camera up
                        Vector3f cameraUp;
                        cameraUp.cross( cameraAt, cameraRight );
                        cameraUp.normalize();

                        // camera matrix
                        _cameraMatrix.set( 
                                cameraRight[0], cameraRight[1], cameraRight[2], 0.0f,
                                cameraUp[0], cameraUp[1], cameraUp[2], 0.0f,
                                cameraAt[0], cameraAt[1], cameraAt[2], 0.0f,
                                cameraPos[0], cameraPos[1], cameraPos[2], 1.0f
                                );

                        break;
                }
        }

        // camera is actual now
        Gameplay::iEngine->getDefaultCamera()->setFOV( _cameraFOV );
        Gameplay::iEngine->getDefaultCamera()->getFrame()->setMatrix( _cameraMatrix );
        _scene->getScenery()->happen( this, EVENT_CAMERA_IS_ACTUAL );
        if( _scene->getTopMode() ) _scene->getTopMode()->happen( this, EVENT_CAMERA_IS_ACTUAL );

        // RT-RS pass
        bool flares = ( _scene->getLocation()->getWeather() == ::wtSunny ) || ( _scene->getLocation()->getWeather() == ::wtVariable );
        Gameplay::iGameplay->getRenderTarget()->render( _scene, _cameraMatrix, _cameraFOV, flares, false );
        // GUI
        Gameplay::iEngine->getDefaultCamera()->beginScene( 0, Vector4f( 0,0,0,0 ) );    
        if( _scene->isHUDEnabled() ) Gameplay::iGui->render();
        Gameplay::iEngine->getDefaultCamera()->endScene();
        // present result
        Gameplay::iEngine->present();

}
Beispiel #7
0
void Mission::ThirdPersonCamera::onUpdateActivity(float dt)
{
        assert( _scene );

        _positionModeTimeout -= dt;
        _positionModeTimeout = _positionModeTimeout < 0 ? 0 : _positionModeTimeout;

        // retrieve action channels
        ActionChannel* headLeft  = Gameplay::iGameplay->getActionChannel( iaHeadLeft );
        ActionChannel* headRight = Gameplay::iGameplay->getActionChannel( iaHeadRight );
        ActionChannel* headUp    = Gameplay::iGameplay->getActionChannel( iaHeadUp );
        ActionChannel* headDown  = Gameplay::iGameplay->getActionChannel( iaHeadDown );
        ActionChannel* zoomIn    = Gameplay::iGameplay->getActionChannel( iaZoomIn );
        ActionChannel* zoomOut   = Gameplay::iGameplay->getActionChannel( iaZoomOut );    

        if( _positionMode )
        {
                // field of view
                _cameraFOV = ( 60.0f - 55.0f * ( zoomIn->getAmplitude() ) ) * CAMERA_FOV_MULTIPLIER;

                // target position
                Matrix4f targetPose( 1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1 );
                if( _target ) targetPose = _target->getPose();    
                Vector3f targetPos( targetPose[3][0], targetPose[3][1], targetPose[3][2] );

                if( dynamic_cast<Jumper*>( _target ) )
                {
                        Jumper* j = dynamic_cast<Jumper*>( _target );
                        j->getClump()->getFrame()->getLTM();
                        engine::IFrame* backBone = Jumper::getBackBone( j->getClump() );
                        targetPos = backBone->getPos();
                }

                // camera direction
                Vector3f cameraAt = _cameraPos - targetPos;
                cameraAt.normalize();        

                // camera right
                Vector3f cameraRight; 
                cameraRight.cross( Vector3f(0,1,0), cameraAt );
                cameraRight.normalize();

                // camera up
                Vector3f cameraUp;
                cameraUp.cross( cameraAt, cameraRight );
                cameraUp.normalize();

                // camera matrix
                _cameraMatrix.set( 
                        cameraRight[0], cameraRight[1], cameraRight[2], 0.0f,
                        cameraUp[0], cameraUp[1], cameraUp[2], 0.0f,
                        cameraAt[0], cameraAt[1], cameraAt[2], 0.0f,
                        _cameraPos[0], _cameraPos[1], _cameraPos[2], 1.0f
                        );
        }
        else
        {
                // camera offset 
                _cameraDistance -= dt * 500.0f * zoomIn->getAmplitude();
                _cameraDistance += dt * 500.0f * zoomOut->getAmplitude();
                if( _cameraDistance < TPSM_MINIMAL_DISTANCE ) _cameraDistance = TPSM_MINIMAL_DISTANCE;

                // rotate camera    
                _cameraTurn += 180 * dt * headLeft->getAmplitude();
                _cameraTurn -= 180 * dt * headRight->getAmplitude();
                _cameraTilt += 180 * dt * headUp->getAmplitude();
                _cameraTilt -= 180 * dt * headDown->getAmplitude();
                if( _cameraTilt < -89 ) _cameraTilt = -89;
                if( _cameraTilt > 89 ) _cameraTilt = 89;

                Matrix4f targetPose( 1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1 );
                if( _target ) targetPose = _target->getPose();

                Vector3f targetPos( targetPose[3][0], targetPose[3][1], targetPose[3][2] );
                Vector3f targetOffset( 0,150,0 );

                if( dynamic_cast<Jumper*>( _target ) )
                {
                        Jumper* j = dynamic_cast<Jumper*>( _target );
                        j->getClump()->getFrame()->getLTM();
                        engine::IFrame* backBone = Jumper::getBackBone( j->getClump() );
                        targetPos = backBone->getPos();
                        targetOffset.set( 0,75, 0 );
                }

                // calculate camera matrix        
                _cameraMatrix.set( 1,0,0,0,0,1,0,0,0,0,1,0,0,0,0,1 );
                _cameraMatrix = Gameplay::iEngine->rotateMatrix( _cameraMatrix, Vector3f( 1,0,0 ), _cameraTilt );
                _cameraMatrix = Gameplay::iEngine->rotateMatrix( _cameraMatrix, Vector3f( 0,1,0 ), _cameraTurn );
                Vector3f at( _cameraMatrix[2][0], _cameraMatrix[2][1], _cameraMatrix[2][2] );

                // possible camera position
                Vector3f cameraPos = targetPos + targetOffset + at * _cameraDistance;

                // clip camera distance
                float clipDistance = _cameraDistance;
                if( _scene->clipCameraRay( targetPos, cameraPos, clipDistance ) )
                {
                        _cameraDistance = clipDistance;
                        cameraPos = targetPos + targetOffset + at * _cameraDistance;
                }        

                // finalize camera matrix (translation component)
                _cameraMatrix = Gameplay::iEngine->translateMatrix( _cameraMatrix, cameraPos );
        }

        // camera is actual now
        Gameplay::iEngine->getDefaultCamera()->setFOV( _cameraFOV );
        Gameplay::iEngine->getDefaultCamera()->getFrame()->setMatrix( _cameraMatrix );
        _scene->getScenery()->happen( this, EVENT_CAMERA_IS_ACTUAL );
        if( _scene->getTopMode() ) _scene->getTopMode()->happen( this, EVENT_CAMERA_IS_ACTUAL );

        // RT-RS pass
        bool flares = ( _scene->getLocation()->getWeather() == ::wtSunny ) || ( _scene->getLocation()->getWeather() == ::wtVariable );
        Gameplay::iGameplay->getRenderTarget()->render( _scene, _cameraMatrix, _cameraFOV, flares, false );
        // GUI
        Gameplay::iEngine->getDefaultCamera()->beginScene( 0, Vector4f( 0,0,0,0 ) );    
        if( _scene->isHUDEnabled() ) Gameplay::iGui->render();
        Gameplay::iEngine->getDefaultCamera()->endScene();
        // present result
        Gameplay::iEngine->present();
}
void Forest::simulateInteraction(Actor* actor)
{
    _debugBoxes.clear();

    _currentJumper = actor;
    Jumper* jumper = dynamic_cast<Jumper*>( actor );
    if( !jumper ) return;
        
	CanopySimulator* canopy = jumper->getDominantCanopy();

    _currentCanopy = canopy;
    _currentCanopyInfo = canopy->getGearRecord();
	_jumperCanopyIsOpened = canopy->isOpened();
    if( _jumperCanopyIsOpened )
    {
        _currentCanopyCollision = CanopySimulator::getCollisionGeometry( canopy->getClump() );
        _currentCanopyActor = canopy->getNxActor();
    }
    else
    {
        _currentCanopyCollision = NULL;
        _currentCanopyActor = NULL;
    }

    // obtain collision atomic
    _currentJumperCollision = NULL;
    _currentJumperActor     = NULL;
    switch( jumper->getPhase() )
    {
    case ::jpFreeFalling:
        _currentJumperActor = jumper->getFreefallActor();
        _currentJumperCollision = Jumper::getCollisionFF( jumper->getClump() );
        assert( _currentJumperCollision );
        break;
    case ::jpFlight:
        if( _jumperCanopyIsOpened )
        {
            _currentJumperActor = jumper->getFlightActor();
            _currentJumperCollision = Jumper::getCollisionFC( jumper->getClump() );
        }
        else
        {
            _currentJumperActor = jumper->getFreefallActor();
            _currentJumperCollision = Jumper::getCollisionFF( jumper->getClump() );
        }
        assert( _currentJumperCollision );
        break;
    }
    if( _currentJumperCollision )
    {
        // collide jumper with forest
        _jumperOBB = calculateOBB( 
            _currentJumperCollision->getGeometry(),
            _currentJumperCollision->getFrame()->getLTM(),
            1.0f
        );
        _jumperOBB.center = _currentJumperActor->getGlobalPosition(); 
        _debugBoxes.push_back( _jumperOBB );

        float testBoxSize = 250;
        Vector3f jumperPos = wrap( _jumperOBB.center );
        _canopyBatch->forAllInstancesInAABB(
            jumperPos - Vector3f( testBoxSize,testBoxSize,testBoxSize ),
            jumperPos + Vector3f( testBoxSize,testBoxSize,testBoxSize ),
            onCollideJumper,
            this
        );
    }
    if( _currentCanopyCollision && !canopy->isCohesionState() )
    {
        _canopyOBB = calculateOBB(
            _currentCanopyCollision->getGeometry(),
            _currentCanopyCollision->getFrame()->getLTM(),
            1.0f
        );
        _canopyOBB.center = _currentCanopyActor->getGlobalPosition();
        _debugBoxes.push_back( _canopyOBB );

        float testBoxSize = 750;
        Vector3f canopyPos = wrap( _canopyOBB.center );
        _canopyBatch->forAllInstancesInAABB(
            canopyPos - Vector3f( testBoxSize,testBoxSize,testBoxSize ),
            canopyPos + Vector3f( testBoxSize,testBoxSize,testBoxSize ),
            onCollideCanopy,
            this
        );
    }

    _currentJumper = NULL;
    _currentJumperCollision = NULL;
    _currentJumperActor = NULL;
    _jumperCanopyIsOpened = false;
    _currentCanopyCollision = NULL;
    _currentCanopyActor = NULL;
}