本文整理汇总了C++中NxActor::getMass方法的典型用法代码示例。如果您正苦于以下问题：C++ NxActor::getMass方法的具体用法？C++ NxActor::getMass怎么用？C++ NxActor::getMass使用的例子？那么, 这里精选的方法代码示例或许可以为您提供帮助。您也可以进一步了解该方法所在类NxActor的用法示例。
在下文中一共展示了NxActor::getMass方法的5个代码示例，这些例子默认根据受欢迎程度排序。您可以为喜欢或者感觉有用的代码点赞，您的评价将有助于系统推荐出更棒的C++代码示例。
示例1: GravitateToGravitators
void GravitateToGravitators()
{
NxU32 nbActors = gScene->getNbActors();
NxActor** actors = gScene->getActors();
NxReal m1,m2,G=gUniversalBigG,R;
NxVec3 r,F;
while (nbActors--)
{
NxActor* actor = *actors++;
const char* name=actor->getName();
if (strcmp(name,"~lander")==0)
{
F.zero();
m1=actor->getMass();
for (int k=0; k<gRavitators.size(); k++)
{
r = (gRavitators[k]->getCMassGlobalPosition() - actor->getCMassGlobalPosition());
R = r.magnitudeSquared();
m2= gRavitators[k]->getMass();
F = r;
F.setMagnitude(G*m1*m2/R);
actor->addForce(F);
}
}
}
}示例2: IdentifyGravitators
void IdentifyGravitators()
{
gRavitators.clear();
NxU32 nbActors = gScene->getNbActors();
NxActor** actors = gScene->getActors();
while (nbActors--)
{
NxActor* actor = *actors++;
if (actor->getMass()>gRavitatorThresholdMass)
gRavitators.push_back(actor);
}
}示例3: RaycastClosestActorShoot
CPhysicUserData* CPhysicsManager::RaycastClosestActorShoot (const Vect3f posRay, const Vect3f& dirRay, uint32 impactMask, SCollisionInfo& info, float _fPower)
{
//NxUserRaycastReport::ALL_SHAPES
assert(m_pScene != NULL);
NxRay ray;
ray.dir = NxVec3(dirRay.x, dirRay.y, dirRay.z);
ray.orig = NxVec3(posRay.x, posRay.y, posRay.z);
NxRaycastHit hit;
NxShape* closestShape = NULL;
closestShape = m_pScene->raycastClosestShape(ray, NX_ALL_SHAPES, hit, impactMask);
if (!closestShape)
{
//No hemos tokado a ningún objeto físico de la escena.
return NULL;
}
NxActor* actor = &closestShape->getActor();
CPhysicUserData* impactObject =(CPhysicUserData*)actor->userData;
//Si está petando aquí quiere decir que se ha registrado un objeto físico sin proporcionarle UserData
assert(impactObject);
info.m_fDistance = hit.distance;
info.m_Normal = Vect3f(hit.worldNormal.x, hit.worldNormal.y, hit.worldNormal.z );
info.m_CollisionPoint = Vect3f(hit.worldImpact.x, hit.worldImpact.y, hit.worldImpact.z );
Vect3f l_vDirection(dirRay.x-posRay.x,dirRay.y-posRay.y,dirRay.z-posRay.z);
l_vDirection.Normalize();
NxVec3 l_vDirectionVec(dirRay.x,dirRay.y,dirRay.z);
NxF32 coeff = actor->getMass() * _fPower;
actor->addForceAtLocalPos(l_vDirectionVec*coeff, NxVec3(0,0,0), NX_IMPULSE,true);
return impactObject;
}示例4: createPhysicsActor
//-----------------------------------------------------------------------
PhysicsActor* PhysXActorExtern::createPhysicsActor(PhysicsActorDesc* physicsActorDesc, PhysicsShapeDesc* physicsShapeDesc)
{
if (!PhysXBridge::getSingletonPtr()->getScene() || !physicsActorDesc || !physicsShapeDesc)
return 0;
NxBodyDesc bodyDesc;
bodyDesc.setToDefault();
NxReal angularDamping = bodyDesc.angularDamping;
NxVec3 angularVelocity = bodyDesc.angularVelocity;
NxVec3 linearVelocity = bodyDesc.linearVelocity;
bodyDesc.angularDamping = physicsShapeDesc->mAngularDamping;
bodyDesc.angularVelocity = PhysXMath::convert(physicsShapeDesc->mAngularVelocity);
bodyDesc.linearVelocity = PhysXMath::convert(physicsActorDesc->direction);
NxActorDesc actorDesc;
NxActorDesc defaultActorDesc;
actorDesc.setToDefault();
defaultActorDesc.setToDefault();
switch (physicsShapeDesc->mPhysicsShapeType)
{
case ST_BOX:
{
PhysicsBoxDesc* physicsBoxDesc = static_cast<PhysicsBoxDesc*>(physicsShapeDesc);
NxBoxShapeDesc boxDesc;
boxDesc.setToDefault();
boxDesc.dimensions = PhysXMath::convert(physicsBoxDesc->mDimensions);
boxDesc.group = physicsBoxDesc->mCollisionGroup;
boxDesc.groupsMask = PhysXMath::convert(physicsBoxDesc->mGroupMask);
boxDesc.materialIndex = physicsBoxDesc->mMaterialIndex;
actorDesc.density = NxComputeBoxDensity(2 * boxDesc.dimensions, physicsActorDesc->mass);
actorDesc.shapes.pushBack(&boxDesc);
}
break;
case ST_SPHERE:
{
PhysicsSphereDesc* physicsSphereDesc = static_cast<PhysicsSphereDesc*>(physicsShapeDesc);
NxSphereShapeDesc sphereDec;
sphereDec.setToDefault();
sphereDec.radius = physicsSphereDesc->mRadius;
sphereDec.group = physicsSphereDesc->mCollisionGroup;
sphereDec.groupsMask = PhysXMath::convert(physicsSphereDesc->mGroupMask);
sphereDec.materialIndex = physicsSphereDesc->mMaterialIndex;
actorDesc.density = NxComputeSphereDensity(sphereDec.radius, physicsActorDesc->mass);
actorDesc.shapes.pushBack(&sphereDec);
}
break;
case ST_CAPSULE:
{
PhysicsCapsuleDesc* physicsCapsuleDesc = static_cast<PhysicsCapsuleDesc*>(physicsShapeDesc);
NxCapsuleShapeDesc capsuleDec;
capsuleDec.setToDefault();
capsuleDec.radius = physicsCapsuleDesc->mRadius;
capsuleDec.height = physicsCapsuleDesc->mHeight;
capsuleDec.group = physicsCapsuleDesc->mCollisionGroup;
capsuleDec.groupsMask = PhysXMath::convert(physicsCapsuleDesc->mGroupMask);
capsuleDec.materialIndex = physicsCapsuleDesc->mMaterialIndex;
actorDesc.density = NxComputeCylinderDensity(capsuleDec.radius, capsuleDec.height, physicsActorDesc->mass);
actorDesc.shapes.pushBack(&capsuleDec);
}
break;
}
actorDesc.globalPose.t = PhysXMath::convert(physicsActorDesc->position);
actorDesc.body = &bodyDesc;
actorDesc.group = physicsActorDesc->collisionGroup;
PhysXActor* physXActor = 0;
if (!actorDesc.isValid())
{
actorDesc = defaultActorDesc;
Ogre::LogManager::getSingleton().logMessage("ParticleUniverse PhysXActor: Cannot create actor; use default attributes.");
}
NxActor* nxActor = PhysXBridge::getSingletonPtr()->getScene()->createActor(actorDesc);
if (nxActor)
{
physXActor = OGRE_NEW_T(PhysXActor, Ogre::MEMCATEGORY_SCENE_OBJECTS)();
physXActor->position = PhysXMath::convert(nxActor->getGlobalPosition());
physXActor->direction = PhysXMath::convert(nxActor->getLinearVelocity());
nxActor->setGlobalOrientationQuat(PhysXMath::convert(physicsActorDesc->orientation));
physXActor->orientation = physicsActorDesc->orientation;
physXActor->mass = nxActor->getMass();
physXActor->collisionGroup = nxActor->getGroup();
physXActor->nxActor = nxActor;
}
return physXActor;
}示例5: cloneRobot
void NxRobot::cloneRobot(int indexNewScene, int indexNewRobot, NxVec3 newPosition, int indexNewTeam)
{
NxRobot* nxRobotSource = Simulation::gScenes[this->indexScene]->allRobots->getRobotByIdByTeam(this->id, this->idTeam);
NxActor* robotActor = Simulation::cloneActor(nxRobotSource->getActor(),indexNewScene);
//NxBounds3 bodyBounds;
//robotShapes[0]->getWorldBounds(bodyBounds);
NxVehicleDesc vehicleDesc;
vehicleDesc.position = NxVec3(robotActor->getGlobalPosition());
vehicleDesc.mass = robotActor->getMass();
//vehicleDesc.motorForce = 70000;
//vehicleDesc.maxVelocity = 300.f;
//vehicleDesc.cameraDistance = 8.0f;
vehicleDesc.centerOfMass.set(robotActor->getCMassLocalPosition());
//vehicleDesc.differentialRatio = 3.42f;
//vehicleDesc.transmissionEfficiency
vehicleDesc.actor = robotActor;
//Motor descricao
//NxVehicleMotorDesc motorsDesc[4];
//for(NxU32 i=0;i<4;i++)
//{
//motorsDesc[i].setToCorvette();
//vehicleDesc.motorsDesc.push_back(&motorsDesc[i]);
//}
//Roda (Wheel) descricao
int numberWheels = nxRobotSource->getNbWheels();
NxWheelDesc* wheelDesc = new NxWheelDesc[numberWheels];
for(NxU32 i=0; i<numberWheels; i++)
{
//NxActor* wheelModel = Simulation::getActorWheel(indexSourceScene,indexNewRobot,i);
//NxActorDesc wheelActorDesc;
//wheelModel->saveToDesc(wheelActorDesc);
//Simulation::gScenes[0]->releaseActor(*wheelModel);
//NxShape*const* wheelShapes = actorWheel->getShapes();
//NxBounds3 wheelBounds;
//wheelShapes[0]->getWorldBounds(wheelBounds);
const NxWheel* wheel = nxRobotSource->getWheel(i);
NxWheelShape* wheelShape = ((NxWheel2*)wheel)->getWheelShape();
//wheelDesc[i].wheelApproximation = 10;
wheelDesc[i].wheelOrientation = wheelShape->getGlobalOrientation();
wheelDesc[i].position.set(wheelShape->getGlobalPosition()-robotActor->getGlobalPosition());
//wheelDesc[i].position.z = 0;
wheelDesc[i].id = i;
wheelDesc[i].wheelFlags = ((NxWheel*)wheel)->getWheelFlags();
wheelDesc[i].wheelRadius = wheel->getRadius();
//wheelDesc[i].wheelWidth = 100;
wheelDesc[i].wheelSuspension = wheelShape->getSuspensionTravel();
wheelDesc[i].springRestitution = 0;
wheelDesc[i].springDamping = 0;
wheelDesc[i].springBias = 0.0f;
wheelDesc[i].maxBrakeForce = 100;
wheelDesc[i].frictionToFront = 0.1f;//0.1f;
wheelDesc[i].frictionToSide = 0;//0.02f;//
wheelDesc[i].inverseWheelMass = wheelShape->getInverseWheelMass(); //TODO: CONFIGURAR PARÂMETRO
//Angulo das Rodas (Omni)
wheelDesc[i].angWheelRelRobot = ((NxWheel2*)wheel)->angWheelRelRobot;
vehicleDesc.robotWheels.pushBack(&wheelDesc[i]);
}
//Criar robot, vehicle base
NxRobot* robot = (NxRobot*)NxRobot::createVehicle(Simulation::gScenes[indexNewScene], &vehicleDesc);
//NxRobot* robot = (NxRobot*)NxRobot::createVehicle(gScenes[indexSourceScene], &vehicleDesc);
robot->setId(indexNewRobot);
robot->setIdTeam(indexNewTeam);
robot->indexScene = indexNewScene;
robot->bodyRadius = nxRobotSource->bodyRadius;
//Dribbler and Kicker
NxShape*const* robotShapes = robotActor->getShapes();
for(int i=0; i<robotActor->getNbShapes(); i++) {
const char* shapeName = robotShapes[i]->getName();
if(shapeName) {
char* dribblerName = new char[10];//"Driblador\0"
dribblerName[9] = 0;
memcpy(dribblerName, shapeName, strlen(dribblerName));
if(strcmp(dribblerName, "Driblador") == 0) {
robot->dribbler->dribblerShapes.push_back(robotShapes[i]);
}
delete dribblerName;
}
}
robot->kicker->kickerShapeDesc = new NxBoxShapeDesc();
NxShapeDesc* shapeDesc = nxRobotSource->kicker->kickerShapeDesc;
robot->kicker->kickerShapeDesc->localPose = shapeDesc->localPose;
((NxBoxShapeDesc*)(robot->kicker->kickerShapeDesc))->dimensions = ((NxBoxShapeDesc*)shapeDesc)->dimensions;
//Initial Pose
robot->setInitialPose(robotActor->getGlobalPose());
robotActor->putToSleep();
//.........这里部分代码省略.........