LLVector3 LLSurface::resolveNormalGlobal(const LLVector3d& pos_global) const
{
if (!mSurfaceZ)
{
// Hmm. Uninitialized surface!
return LLVector3::z_axis;
}
//
// Returns the vector normal to a surface at location specified by vector v
//
F32 oometerspergrid = 1.f/mMetersPerGrid;
LLVector3 normal;
F32 dzx, dzy;
if (pos_global.mdV[VX] >= mOriginGlobal.mdV[VX] &&
pos_global.mdV[VX] < mOriginGlobal.mdV[VX] + mMetersPerEdge &&
pos_global.mdV[VY] >= mOriginGlobal.mdV[VY] &&
pos_global.mdV[VY] < mOriginGlobal.mdV[VY] + mMetersPerEdge)
{
U32 i, j, k;
F32 dx, dy;
i = (U32) ((pos_global.mdV[VX] - mOriginGlobal.mdV[VX]) * oometerspergrid);
j = (U32) ((pos_global.mdV[VY] - mOriginGlobal.mdV[VY]) * oometerspergrid );
k = i + j*mGridsPerEdge;
// Figure out if v is in first or second triangle of the square
// and calculate the slopes accordingly
// | |
// -(k+N)---(k+1+N)--
// | 1 / | ^
// | / 2 | |
// | / | j
// --(k)----(k+1)--
// | |
//
// i ->
// where N = mGridsPerEdge
// dx and dy are incremental steps from (mSurface + k)
dx = (F32)(pos_global.mdV[VX] - i*mMetersPerGrid - mOriginGlobal.mdV[VX]);
dy = (F32)(pos_global.mdV[VY] - j*mMetersPerGrid - mOriginGlobal.mdV[VY]);
if (dy > dx)
{ // triangle 1
dzx = *(mSurfaceZ + k + 1 + mGridsPerEdge) - *(mSurfaceZ + k + mGridsPerEdge);
dzy = *(mSurfaceZ + k) - *(mSurfaceZ + k + mGridsPerEdge);
normal.setVec(-dzx,dzy,1);
}
else
{ // triangle 2
dzx = *(mSurfaceZ + k) - *(mSurfaceZ + k + 1);
dzy = *(mSurfaceZ + k + 1 + mGridsPerEdge) - *(mSurfaceZ + k + 1);
normal.setVec(dzx,-dzy,1);
}
}
normal.normVec();
return normal;
}
void LLVOTree::updateSpatialExtents(LLVector3& newMin, LLVector3& newMax)
{
F32 radius = getScale().magVec()*0.05f;
LLVector3 center = getRenderPosition();
F32 sz = mBillboardScale*mBillboardRatio*radius*0.5f;
LLVector3 size(sz,sz,sz);
center += LLVector3(0, 0, size.mV[2]) * getRotation();
newMin.setVec(center-size);
newMax.setVec(center+size);
mDrawable->setPositionGroup(center);
}
//-----------------------------------------------------------------------
void LLAudioEngine_FMOD::updateWind(LLVector3 wind_vec, F32 camera_height_above_water)
{
LLVector3 wind_pos;
F64 pitch;
F64 center_freq;
if (!mEnableWind)
{
return;
}
if (mWindUpdateTimer.checkExpirationAndReset(LL_WIND_UPDATE_INTERVAL))
{
// wind comes in as Linden coordinate (+X = forward, +Y = left, +Z = up)
// need to convert this to the conventional orientation DS3D and OpenAL use
// where +X = right, +Y = up, +Z = backwards
wind_vec.setVec(-wind_vec.mV[1], wind_vec.mV[2], -wind_vec.mV[0]);
// cerr << "Wind update" << endl;
pitch = 1.0 + mapWindVecToPitch(wind_vec);
center_freq = 80.0 * pow(pitch,2.5*(mapWindVecToGain(wind_vec)+1.0));
mWindGen->mTargetFreq = (F32)center_freq;
mWindGen->mTargetGain = (F32)mapWindVecToGain(wind_vec) * mMaxWindGain;
mWindGen->mTargetPanGainR = (F32)mapWindVecToPan(wind_vec);
}
}
BOOL ray_sphere(const LLVector3 &ray_point, const LLVector3 &ray_direction,
const LLVector3 &sphere_center, F32 sphere_radius,
LLVector3 &intersection, LLVector3 &intersection_normal)
{
LLVector3 ray_to_sphere = sphere_center - ray_point;
F32 dot = ray_to_sphere * ray_direction;
LLVector3 closest_approach = dot * ray_direction - ray_to_sphere;
F32 shortest_distance = closest_approach.magVecSquared();
F32 radius_squared = sphere_radius * sphere_radius;
if (shortest_distance > radius_squared)
{
return FALSE;
}
F32 half_chord = (F32) sqrt(radius_squared - shortest_distance);
closest_approach = sphere_center + closest_approach; // closest_approach now in absolute coordinates
intersection = closest_approach + half_chord * ray_direction;
dot = ray_direction * (intersection - ray_point);
if (dot < 0.0f)
{
// ray shoots away from sphere and is not inside it
return FALSE;
}
shortest_distance = ray_direction * ((closest_approach - half_chord * ray_direction) - ray_point);
if (shortest_distance > 0.0f)
{
// ray enters sphere
intersection = intersection - (2.0f * half_chord) * ray_direction;
}
else
{
// do nothing
// ray starts inside sphere and intersects as it leaves the sphere
}
intersection_normal = intersection - sphere_center;
if (sphere_radius > 0.0f)
{
intersection_normal *= 1.0f / sphere_radius;
}
else
{
intersection_normal.setVec(0.0f, 0.0f, 0.0f);
}
return TRUE;
}
//-------------------------------------------------------------------------------------
BOOL LLFollowCam::updateBehindnessConstraint(LLVector3 focus, LLVector3& cam_position)
{
BOOL constraint_active = FALSE;
// only apply this stuff if the behindness angle is something other than opened up all the way
if ( mBehindnessMaxAngle < FOLLOW_CAM_MAX_BEHINDNESS_ANGLE - FOLLOW_CAM_BEHINDNESS_EPSILON )
{
//--------------------------------------------------------------
// horizontalized vector from focus to camera
//--------------------------------------------------------------
LLVector3 horizontalVectorFromFocusToCamera;
horizontalVectorFromFocusToCamera.setVec(cam_position - focus);
horizontalVectorFromFocusToCamera.mV[ VZ ] = 0.0f;
F32 cameraZ = cam_position.mV[ VZ ];
//--------------------------------------------------------------
// distance of horizontalized vector
//--------------------------------------------------------------
F32 horizontalDistance = horizontalVectorFromFocusToCamera.magVec();
//--------------------------------------------------------------------------------------------------
// calculate horizontalized back vector of the subject and scale by horizontalDistance
//--------------------------------------------------------------------------------------------------
LLVector3 horizontalSubjectBack( -1.0f, 0.0f, 0.0f );
horizontalSubjectBack *= mSubjectRotation;
horizontalSubjectBack.mV[ VZ ] = 0.0f;
horizontalSubjectBack.normVec(); // because horizontalizing might make it shorter than 1
horizontalSubjectBack *= horizontalDistance;
//--------------------------------------------------------------------------------------------------
// find the angle (in degrees) between these vectors
//--------------------------------------------------------------------------------------------------
F32 cameraOffsetAngle = 0.f;
LLVector3 cameraOffsetRotationAxis;
LLQuaternion camera_offset_rotation;
camera_offset_rotation.shortestArc(horizontalSubjectBack, horizontalVectorFromFocusToCamera);
camera_offset_rotation.getAngleAxis(&cameraOffsetAngle, cameraOffsetRotationAxis);
cameraOffsetAngle *= RAD_TO_DEG;
if ( cameraOffsetAngle > mBehindnessMaxAngle )
{
F32 fraction = ((cameraOffsetAngle - mBehindnessMaxAngle) / cameraOffsetAngle) * LLCriticalDamp::getInterpolant(mBehindnessLag);
cam_position = focus + horizontalSubjectBack * (slerp(fraction, camera_offset_rotation, LLQuaternion::DEFAULT));
cam_position.mV[VZ] = cameraZ; // clamp z value back to what it was before we started messing with it
constraint_active = TRUE;
}
}
return constraint_active;
}
void LLAudioEngine_OpenAL::updateWind(LLVector3 wind_vec, F32 camera_altitude)
{
LLVector3 wind_pos;
F64 pitch;
F64 center_freq;
ALenum error;
if (!mEnableWind)
return;
if(!mWindBuf)
return;
if (mWindUpdateTimer.checkExpirationAndReset(LL_WIND_UPDATE_INTERVAL))
{
// wind comes in as Linden coordinate (+X = forward, +Y = left, +Z = up)
// need to convert this to the conventional orientation DS3D and OpenAL use
// where +X = right, +Y = up, +Z = backwards
wind_vec.setVec(-wind_vec.mV[1], wind_vec.mV[2], -wind_vec.mV[0]);
pitch = 1.0 + mapWindVecToPitch(wind_vec);
center_freq = 80.0 * pow(pitch,2.5*(mapWindVecToGain(wind_vec)+1.0));
mWindGen->mTargetFreq = (F32)center_freq;
mWindGen->mTargetGain = (F32)mapWindVecToGain(wind_vec) * mMaxWindGain;
mWindGen->mTargetPanGainR = (F32)mapWindVecToPan(wind_vec);
alSourcei(mWindSource, AL_LOOPING, AL_FALSE);
alSource3f(mWindSource, AL_POSITION, 0.0, 0.0, 0.0);
alSource3f(mWindSource, AL_VELOCITY, 0.0, 0.0, 0.0);
alSourcef(mWindSource, AL_ROLLOFF_FACTOR, 0.0);
alSourcei(mWindSource, AL_SOURCE_RELATIVE, AL_TRUE);
}
// ok lets make a wind buffer now
int processed, queued, unprocessed;
alGetSourcei(mWindSource, AL_BUFFERS_PROCESSED, &processed);
alGetSourcei(mWindSource, AL_BUFFERS_QUEUED, &queued);
unprocessed = queued - processed;
// ensure that there are always at least 3x as many filled buffers
// queued as we managed to empty since last time.
mNumEmptyWindALBuffers = llmin(mNumEmptyWindALBuffers + processed * 3 - unprocessed, MAX_NUM_WIND_BUFFERS-unprocessed);
mNumEmptyWindALBuffers = llmax(mNumEmptyWindALBuffers, 0);
//LL_INFOS("OpenAL") << "mNumEmptyWindALBuffers: " << mNumEmptyWindALBuffers <<" (" << unprocessed << ":" << processed << ")" << LL_ENDL;
while(processed--) // unqueue old buffers
{
ALuint buffer;
int error;
alGetError(); /* clear error */
alSourceUnqueueBuffers(mWindSource, 1, &buffer);
error = alGetError();
if(error != AL_NO_ERROR)
{
LL_WARNS("OpenAL") << "LLAudioEngine_OpenAL::updateWind() error swapping (unqueuing) buffers" << LL_ENDL;
}
else
{
alDeleteBuffers(1, &buffer);
}
}
unprocessed += mNumEmptyWindALBuffers;
while (mNumEmptyWindALBuffers > 0) // fill+queue new buffers
{
ALuint buffer;
alGetError(); /* clear error */
alGenBuffers(1,&buffer);
if((error=alGetError()) != AL_NO_ERROR)
{
LL_WARNS("OpenAL") << "LLAudioEngine_OpenAL::initWind() Error creating wind buffer: " << error << LL_ENDL;
break;
}
alBufferData(buffer,
AL_FORMAT_STEREO16,
mWindGen->windGenerate(mWindBuf,
mWindBufSamples, 2),
mWindBufBytes,
mWindBufFreq);
error = alGetError();
if(error != AL_NO_ERROR)
LL_WARNS("OpenAL") << "LLAudioEngine_OpenAL::updateWind() error swapping (bufferdata) buffers" << LL_ENDL;
alSourceQueueBuffers(mWindSource, 1, &buffer);
error = alGetError();
if(error != AL_NO_ERROR)
LL_WARNS("OpenAL") << "LLAudioEngine_OpenAL::updateWind() error swapping (queuing) buffers" << LL_ENDL;
--mNumEmptyWindALBuffers;
}
int playing;
alGetSourcei(mWindSource, AL_SOURCE_STATE, &playing);
if(playing != AL_PLAYING)
{
alSourcePlay(mWindSource);
LL_INFOS("OpenAL") << "Wind had stopped - probably ran out of buffers - restarting: " << (unprocessed+mNumEmptyWindALBuffers) << " now queued." << LL_ENDL;
}
}
//-----------------------------------------------------------------------------
// LLEyeMotion::onUpdate()
//-----------------------------------------------------------------------------
BOOL LLEyeMotion::onUpdate(F32 time, U8* joint_mask)
{
// Compute eye rotation.
LLQuaternion target_eye_rot;
LLVector3 eye_look_at;
F32 vergence;
//calculate jitter
if (mEyeJitterTimer.getElapsedTimeF32() > mEyeJitterTime)
{
mEyeJitterTime = EYE_JITTER_MIN_TIME + ll_frand(EYE_JITTER_MAX_TIME - EYE_JITTER_MIN_TIME);
mEyeJitterYaw = (ll_frand(2.f) - 1.f) * EYE_JITTER_MAX_YAW;
mEyeJitterPitch = (ll_frand(2.f) - 1.f) * EYE_JITTER_MAX_PITCH;
// make sure lookaway time count gets updated, because we're resetting the timer
mEyeLookAwayTime -= llmax(0.f, mEyeJitterTimer.getElapsedTimeF32());
mEyeJitterTimer.reset();
}
else if (mEyeJitterTimer.getElapsedTimeF32() > mEyeLookAwayTime)
{
if (ll_frand() > 0.1f)
{
// blink while moving eyes some percentage of the time
mEyeBlinkTime = mEyeBlinkTimer.getElapsedTimeF32();
}
if (mEyeLookAwayYaw == 0.f && mEyeLookAwayPitch == 0.f)
{
mEyeLookAwayYaw = (ll_frand(2.f) - 1.f) * EYE_LOOK_AWAY_MAX_YAW;
mEyeLookAwayPitch = (ll_frand(2.f) - 1.f) * EYE_LOOK_AWAY_MAX_PITCH;
mEyeLookAwayTime = EYE_LOOK_BACK_MIN_TIME + ll_frand(EYE_LOOK_BACK_MAX_TIME - EYE_LOOK_BACK_MIN_TIME);
}
else
{
mEyeLookAwayYaw = 0.f;
mEyeLookAwayPitch = 0.f;
mEyeLookAwayTime = EYE_LOOK_AWAY_MIN_TIME + ll_frand(EYE_LOOK_AWAY_MAX_TIME - EYE_LOOK_AWAY_MIN_TIME);
}
}
// do blinking
if (!mEyesClosed && mEyeBlinkTimer.getElapsedTimeF32() >= mEyeBlinkTime)
{
F32 leftEyeBlinkMorph = mEyeBlinkTimer.getElapsedTimeF32() - mEyeBlinkTime;
F32 rightEyeBlinkMorph = leftEyeBlinkMorph - EYE_BLINK_TIME_DELTA;
leftEyeBlinkMorph = llclamp(leftEyeBlinkMorph / EYE_BLINK_SPEED, 0.f, 1.f);
rightEyeBlinkMorph = llclamp(rightEyeBlinkMorph / EYE_BLINK_SPEED, 0.f, 1.f);
mCharacter->setVisualParamWeight("Blink_Left", leftEyeBlinkMorph);
mCharacter->setVisualParamWeight("Blink_Right", rightEyeBlinkMorph);
mCharacter->updateVisualParams();
if (rightEyeBlinkMorph == 1.f)
{
mEyesClosed = TRUE;
mEyeBlinkTime = EYE_BLINK_CLOSE_TIME;
mEyeBlinkTimer.reset();
}
}
else if (mEyesClosed)
{
if (mEyeBlinkTimer.getElapsedTimeF32() >= mEyeBlinkTime)
{
F32 leftEyeBlinkMorph = mEyeBlinkTimer.getElapsedTimeF32() - mEyeBlinkTime;
F32 rightEyeBlinkMorph = leftEyeBlinkMorph - EYE_BLINK_TIME_DELTA;
leftEyeBlinkMorph = 1.f - llclamp(leftEyeBlinkMorph / EYE_BLINK_SPEED, 0.f, 1.f);
rightEyeBlinkMorph = 1.f - llclamp(rightEyeBlinkMorph / EYE_BLINK_SPEED, 0.f, 1.f);
mCharacter->setVisualParamWeight("Blink_Left", leftEyeBlinkMorph);
mCharacter->setVisualParamWeight("Blink_Right", rightEyeBlinkMorph);
mCharacter->updateVisualParams();
if (rightEyeBlinkMorph == 0.f)
{
mEyesClosed = FALSE;
mEyeBlinkTime = EYE_BLINK_MIN_TIME + ll_frand(EYE_BLINK_MAX_TIME - EYE_BLINK_MIN_TIME);
mEyeBlinkTimer.reset();
}
}
}
BOOL has_eye_target = FALSE;
LLVector3* targetPos = (LLVector3*)mCharacter->getAnimationData("LookAtPoint");
if (targetPos)
{
LLVector3 skyward(0.f, 0.f, 1.f);
LLVector3 left;
LLVector3 up;
eye_look_at = *targetPos;
has_eye_target = TRUE;
F32 lookAtDistance = eye_look_at.normVec();
left.setVec(skyward % eye_look_at);
up.setVec(eye_look_at % left);
target_eye_rot = LLQuaternion(eye_look_at, left, up);
// convert target rotation to head-local coordinates
target_eye_rot *= ~mHeadJoint->getWorldRotation();
// eliminate any Euler roll - we're lucky that roll is applied last.
F32 roll, pitch, yaw;
target_eye_rot.getEulerAngles(&roll, &pitch, &yaw);
target_eye_rot.setQuat(0.0f, pitch, yaw);
// constrain target orientation to be in front of avatar's face
target_eye_rot.constrain(EYE_ROT_LIMIT_ANGLE);
// calculate vergence
F32 interocular_dist = (mLeftEyeState->getJoint()->getWorldPosition() - mRightEyeState->getJoint()->getWorldPosition()).magVec();
vergence = -atan2((interocular_dist / 2.f), lookAtDistance);
llclamp(vergence, -F_PI_BY_TWO, 0.f);
}
else
{
target_eye_rot = LLQuaternion::DEFAULT;
vergence = 0.f;
}
//RN: subtract 4 degrees to account for foveal angular offset relative to pupil
vergence += 4.f * DEG_TO_RAD;
// calculate eye jitter
LLQuaternion eye_jitter_rot;
// vergence not too high...
if (vergence > -0.05f)
{
//...go ahead and jitter
eye_jitter_rot.setQuat(0.f, mEyeJitterPitch + mEyeLookAwayPitch, mEyeJitterYaw + mEyeLookAwayYaw);
}
else
{
//...or don't
eye_jitter_rot.loadIdentity();
}
// calculate vergence of eyes as an object gets closer to the avatar's head
LLQuaternion vergence_quat;
if (has_eye_target)
{
vergence_quat.setQuat(vergence, LLVector3(0.f, 0.f, 1.f));
}
else
{
vergence_quat.loadIdentity();
}
// calculate eye rotations
LLQuaternion left_eye_rot = target_eye_rot;
left_eye_rot = vergence_quat * eye_jitter_rot * left_eye_rot;
LLQuaternion right_eye_rot = target_eye_rot;
vergence_quat.transQuat();
right_eye_rot = vergence_quat * eye_jitter_rot * right_eye_rot;
//if in appearance, set the eyes straight forward
if(mCharacter->getAppearanceFlag()) // no idea why this variable is reversed
{
LLVector3 forward(1.f, 0.0, 0.0);
LLVector3 left;
LLVector3 up;
left.setVec(forward % forward);
up.setVec(forward % left);
target_eye_rot = LLQuaternion(forward, left, up);
mLeftEyeState->setRotation( target_eye_rot );
mRightEyeState->setRotation( target_eye_rot );
return TRUE;
}
mLeftEyeState->setRotation( left_eye_rot );
mRightEyeState->setRotation( right_eye_rot );
return TRUE;
}
//-----------------------------------------------------------------------------
// LLEditingMotion::onUpdate()
//-----------------------------------------------------------------------------
BOOL LLEditingMotion::onUpdate(F32 time, U8* joint_mask)
{
LLVector3 focus_pt;
LLVector3* pointAtPt = (LLVector3*)mCharacter->getAnimationData("PointAtPoint");
BOOL result = TRUE;
if (!pointAtPt)
{
focus_pt = mLastSelectPt;
result = FALSE;
}
else
{
focus_pt = *pointAtPt;
mLastSelectPt = focus_pt;
}
focus_pt += mCharacter->getCharacterPosition();
// propagate joint positions to kinematic chain
mParentJoint.setPosition( mParentState->getJoint()->getWorldPosition() );
mShoulderJoint.setPosition( mShoulderState->getJoint()->getPosition() );
mElbowJoint.setPosition( mElbowState->getJoint()->getPosition() );
mWristJoint.setPosition( mWristState->getJoint()->getPosition() + mWristOffset );
// propagate current joint rotations to kinematic chain
mParentJoint.setRotation( mParentState->getJoint()->getWorldRotation() );
mShoulderJoint.setRotation( mShoulderState->getJoint()->getRotation() );
mElbowJoint.setRotation( mElbowState->getJoint()->getRotation() );
// update target position from character
LLVector3 target = focus_pt - mParentJoint.getPosition();
F32 target_dist = target.normVec();
LLVector3 edit_plane_normal(1.f / F_SQRT2, 1.f / F_SQRT2, 0.f);
edit_plane_normal.normVec();
edit_plane_normal.rotVec(mTorsoState->getJoint()->getWorldRotation());
F32 dot = edit_plane_normal * target;
if (dot < 0.f)
{
target = target + (edit_plane_normal * (dot * 2.f));
target.mV[VZ] += clamp_rescale(dot, 0.f, -1.f, 0.f, 5.f);
target.normVec();
}
target = target * target_dist;
if (!target.isFinite())
{
LL_WARNS() << "Non finite target in editing motion with target distance of " << target_dist <<
" and focus point " << focus_pt << " and pointAtPt: ";
if (pointAtPt)
{
LL_CONT << *pointAtPt;
}
else
{
LL_CONT << "NULL";
}
LL_CONT << LL_ENDL;
target.setVec(1.f, 1.f, 1.f);
}
mTarget.setPosition( target + mParentJoint.getPosition());
// LL_INFOS() << "Point At: " << mTarget.getPosition() << LL_ENDL;
// update the ikSolver
if (!mTarget.getPosition().isExactlyZero())
{
LLQuaternion shoulderRot = mShoulderJoint.getRotation();
LLQuaternion elbowRot = mElbowJoint.getRotation();
mIKSolver.solve();
// use blending...
F32 slerp_amt = LLSmoothInterpolation::getInterpolant(TARGET_LAG_HALF_LIFE);
shoulderRot = slerp(slerp_amt, mShoulderJoint.getRotation(), shoulderRot);
elbowRot = slerp(slerp_amt, mElbowJoint.getRotation(), elbowRot);
// now put blended values back into joints
llassert(shoulderRot.isFinite());
llassert(elbowRot.isFinite());
mShoulderState->setRotation(shoulderRot);
mElbowState->setRotation(elbowRot);
mWristState->setRotation(LLQuaternion::DEFAULT);
}
mCharacter->setAnimationData("Hand Pose", &sHandPose);
mCharacter->setAnimationData("Hand Pose Priority", &sHandPosePriority);
return result;
}
// Takes a line defined by "point_a" and "point_b" and determines the closest (to point_a)
// point where the the line intersects an object or the land surface. Stores the results
// in "intersection" and "intersection_normal" and returns a scalar value that represents
// the normalized distance along the line from "point_a" to "intersection".
//
// Currently assumes point_a and point_b only differ in z-direction,
// but it may eventually become more general.
F32 LLWorld::resolveStepHeightGlobal(const LLVOAvatar* avatarp, const LLVector3d &point_a, const LLVector3d &point_b,
LLVector3d &intersection, LLVector3 &intersection_normal,
LLViewerObject **viewerObjectPtr)
{
// initialize return value to null
if (viewerObjectPtr)
{
*viewerObjectPtr = NULL;
}
LLViewerRegion *regionp = getRegionFromPosGlobal(point_a);
if (!regionp)
{
// We're outside the world
intersection = 0.5f * (point_a + point_b);
intersection_normal.setVec(0.0f, 0.0f, 1.0f);
return 0.5f;
}
// calculate the length of the segment
F32 segment_length = (F32)((point_a - point_b).length());
if (0.0f == segment_length)
{
intersection = point_a;
intersection_normal.setVec(0.0f, 0.0f, 1.0f);
return segment_length;
}
// get land height
// Note: we assume that the line is parallel to z-axis here
LLVector3d land_intersection = point_a;
F32 normalized_land_distance;
land_intersection.mdV[VZ] = regionp->getLand().resolveHeightGlobal(point_a);
normalized_land_distance = (F32)(point_a.mdV[VZ] - land_intersection.mdV[VZ]) / segment_length;
intersection = land_intersection;
intersection_normal = resolveLandNormalGlobal(land_intersection);
if (avatarp && !avatarp->mFootPlane.isExactlyClear())
{
LLVector3 foot_plane_normal(avatarp->mFootPlane.mV);
LLVector3 start_pt = avatarp->getRegion()->getPosRegionFromGlobal(point_a);
// added 0.05 meters to compensate for error in foot plane reported by Havok
F32 norm_dist_from_plane = ((start_pt * foot_plane_normal) - avatarp->mFootPlane.mV[VW]) + 0.05f;
norm_dist_from_plane = llclamp(norm_dist_from_plane / segment_length, 0.f, 1.f);
if (norm_dist_from_plane < normalized_land_distance)
{
// collided with object before land
normalized_land_distance = norm_dist_from_plane;
intersection = point_a;
intersection.mdV[VZ] -= norm_dist_from_plane * segment_length;
intersection_normal = foot_plane_normal;
}
else
{
intersection = land_intersection;
intersection_normal = resolveLandNormalGlobal(land_intersection);
}
}
return normalized_land_distance;
}
//---------------------------------------------------------------------------------------------------------
void LLFollowCam::update()
{
//####################################################################################
// update Focus
//####################################################################################
LLVector3 offsetSubjectPosition = mSubjectPosition + (mFocusOffset * mSubjectRotation);
LLVector3 simulated_pos_agent = gAgent.getPosAgentFromGlobal(mSimulatedPositionGlobal);
LLVector3 vectorFromCameraToSubject = offsetSubjectPosition - simulated_pos_agent;
F32 distanceFromCameraToSubject = vectorFromCameraToSubject.magVec();
LLVector3 whereFocusWantsToBe = mFocus;
LLVector3 focus_pt_agent = gAgent.getPosAgentFromGlobal(mSimulatedFocusGlobal);
if ( mFocusLocked ) // if focus is locked, only relative focus needs to be updated
{
mRelativeFocus = (focus_pt_agent - mSubjectPosition) * ~mSubjectRotation;
}
else
{
LLVector3 focusOffset = offsetSubjectPosition - focus_pt_agent;
F32 focusOffsetDistance = focusOffset.magVec();
LLVector3 focusOffsetDirection = focusOffset / focusOffsetDistance;
whereFocusWantsToBe = focus_pt_agent +
(focusOffsetDirection * (focusOffsetDistance - mFocusThreshold));
if ( focusOffsetDistance > mFocusThreshold )
{
// this version normalizes focus threshold by distance
// so that the effect is not changed with distance
/*
F32 focusThresholdNormalizedByDistance = distanceFromCameraToSubject * mFocusThreshold;
if ( focusOffsetDistance > focusThresholdNormalizedByDistance )
{
LLVector3 focusOffsetDirection = focusOffset / focusOffsetDistance;
F32 force = focusOffsetDistance - focusThresholdNormalizedByDistance;
*/
F32 focusLagLerp = LLCriticalDamp::getInterpolant( mFocusLag );
focus_pt_agent = lerp( focus_pt_agent, whereFocusWantsToBe, focusLagLerp );
mSimulatedFocusGlobal = gAgent.getPosGlobalFromAgent(focus_pt_agent);
}
mRelativeFocus = lerp(mRelativeFocus, (focus_pt_agent - mSubjectPosition) * ~mSubjectRotation, LLCriticalDamp::getInterpolant(0.05f));
}// if focus is not locked ---------------------------------------------
LLVector3 whereCameraPositionWantsToBe = gAgent.getPosAgentFromGlobal(mSimulatedPositionGlobal);
if ( mPositionLocked )
{
mRelativePos = (whereCameraPositionWantsToBe - mSubjectPosition) * ~mSubjectRotation;
}
else
{
//####################################################################################
// update Position
//####################################################################################
//-------------------------------------------------------------------------
// I determine the horizontal vector from the camera to the subject
//-------------------------------------------------------------------------
LLVector3 horizontalVectorFromCameraToSubject = vectorFromCameraToSubject;
horizontalVectorFromCameraToSubject.mV[VZ] = 0.0f;
//---------------------------------------------------------
// Now I determine the horizontal distance
//---------------------------------------------------------
F32 horizontalDistanceFromCameraToSubject = horizontalVectorFromCameraToSubject.magVec();
//---------------------------------------------------------
// Then I get the (normalized) horizontal direction...
//---------------------------------------------------------
LLVector3 horizontalDirectionFromCameraToSubject;
if ( horizontalDistanceFromCameraToSubject < DISTANCE_EPSILON )
{
// make sure we still have a normalized vector if distance is really small
// (this case is rare and fleeting)
horizontalDirectionFromCameraToSubject = LLVector3::z_axis;
}
else
{
// I'm not using the "normalize" method, because I can just divide by horizontalDistanceFromCameraToSubject
horizontalDirectionFromCameraToSubject = horizontalVectorFromCameraToSubject / horizontalDistanceFromCameraToSubject;
}
//------------------------------------------------------------------------------------------------------------
// Here is where I determine an offset relative to subject position in oder to set the ideal position.
//------------------------------------------------------------------------------------------------------------
if ( mPitchSineAndCosineNeedToBeUpdated )
{
calculatePitchSineAndCosine();
mPitchSineAndCosineNeedToBeUpdated = false;
}
LLVector3 positionOffsetFromSubject;
positionOffsetFromSubject.setVec
(
horizontalDirectionFromCameraToSubject.mV[ VX ] * mPitchCos,
horizontalDirectionFromCameraToSubject.mV[ VY ] * mPitchCos,
-mPitchSin
);
positionOffsetFromSubject *= mSimulatedDistance;
//----------------------------------------------------------------------
// Finally, ideal position is set by taking the subject position and
// extending the positionOffsetFromSubject from that
//----------------------------------------------------------------------
LLVector3 idealCameraPosition = offsetSubjectPosition - positionOffsetFromSubject;
//--------------------------------------------------------------------------------
// Now I prepare to move the current camera position towards its ideal position...
//--------------------------------------------------------------------------------
LLVector3 vectorFromPositionToIdealPosition = idealCameraPosition - simulated_pos_agent;
F32 distanceFromPositionToIdealPosition = vectorFromPositionToIdealPosition.magVec();
//put this inside of the block?
LLVector3 normalFromPositionToIdealPosition = vectorFromPositionToIdealPosition / distanceFromPositionToIdealPosition;
whereCameraPositionWantsToBe = simulated_pos_agent +
(normalFromPositionToIdealPosition * (distanceFromPositionToIdealPosition - mPositionThreshold));
//-------------------------------------------------------------------------------------------------
// The following method takes the target camera position and resets it so that it stays "behind" the subject,
// using behindness angle and behindness force as parameters affecting the exact behavior
//-------------------------------------------------------------------------------------------------
if ( distanceFromPositionToIdealPosition > mPositionThreshold )
{
F32 positionPullLerp = LLCriticalDamp::getInterpolant( mPositionLag );
simulated_pos_agent = lerp( simulated_pos_agent, whereCameraPositionWantsToBe, positionPullLerp );
}
//--------------------------------------------------------------------
// don't let the camera get farther than its official max distance
//--------------------------------------------------------------------
if ( distanceFromCameraToSubject > mMaxCameraDistantFromSubject )
{
LLVector3 directionFromCameraToSubject = vectorFromCameraToSubject / distanceFromCameraToSubject;
simulated_pos_agent = offsetSubjectPosition - directionFromCameraToSubject * mMaxCameraDistantFromSubject;
}
////-------------------------------------------------------------------------------------------------
//// The following method takes mSimulatedPositionGlobal and resets it so that it stays "behind" the subject,
//// using behindness angle and behindness force as parameters affecting the exact behavior
////-------------------------------------------------------------------------------------------------
updateBehindnessConstraint(gAgent.getPosAgentFromGlobal(mSimulatedFocusGlobal), simulated_pos_agent);
mSimulatedPositionGlobal = gAgent.getPosGlobalFromAgent(simulated_pos_agent);
mRelativePos = lerp(mRelativePos, (simulated_pos_agent - mSubjectPosition) * ~mSubjectRotation, LLCriticalDamp::getInterpolant(0.05f));
} // if position is not locked -----------------------------------------------------------
//####################################################################################
// update UpVector
//####################################################################################
// this just points upward for now, but I anticipate future effects requiring
// some rolling ("banking" effects for fun, swoopy vehicles, etc.)
mUpVector = LLVector3::z_axis;
}
//-----------------------------------------------------------------------------
// LLWalkAdjustMotion::onUpdate()
//-----------------------------------------------------------------------------
BOOL LLWalkAdjustMotion::onUpdate(F32 time, U8* joint_mask)
{
LLVector3 footCorrection;
LLVector3 vel = mCharacter->getCharacterVelocity() * mCharacter->getTimeDilation();
F32 deltaTime = llclamp(time - mLastTime, 0.f, MAX_TIME_DELTA);
mLastTime = time;
LLQuaternion inv_rotation = ~mPelvisJoint->getWorldRotation();
// get speed and normalize velocity vector
LLVector3 ang_vel = mCharacter->getCharacterAngularVelocity() * mCharacter->getTimeDilation();
F32 speed = llmin(vel.normVec(), MAX_WALK_PLAYBACK_SPEED);
mAvgSpeed = lerp(mAvgSpeed, speed, LLCriticalDamp::getInterpolant(0.2f));
// calculate facing vector in pelvis-local space
// (either straight forward or back, depending on velocity)
LLVector3 localVel = vel * inv_rotation;
if (localVel.mV[VX] > 0.f)
{
mRelativeDir = 1.f;
}
else if (localVel.mV[VX] < 0.f)
{
mRelativeDir = -1.f;
}
// calculate world-space foot drift
LLVector3 leftFootDelta;
LLVector3 leftFootWorldPosition = mLeftAnkleJoint->getWorldPosition();
LLVector3d leftFootGlobalPosition = mCharacter->getPosGlobalFromAgent(leftFootWorldPosition);
leftFootDelta.setVec(mLastLeftAnklePos - leftFootGlobalPosition);
mLastLeftAnklePos = leftFootGlobalPosition;
LLVector3 rightFootDelta;
LLVector3 rightFootWorldPosition = mRightAnkleJoint->getWorldPosition();
LLVector3d rightFootGlobalPosition = mCharacter->getPosGlobalFromAgent(rightFootWorldPosition);
rightFootDelta.setVec(mLastRightAnklePos - rightFootGlobalPosition);
mLastRightAnklePos = rightFootGlobalPosition;
// find foot drift along velocity vector
if (mAvgSpeed > 0.1)
{
// walking/running
F32 leftFootDriftAmt = leftFootDelta * vel;
F32 rightFootDriftAmt = rightFootDelta * vel;
if (rightFootDriftAmt > leftFootDriftAmt)
{
footCorrection = rightFootDelta;
} else
{
footCorrection = leftFootDelta;
}
}
else
{
mAvgSpeed = ang_vel.magVec() * mAnkleOffset;
mRelativeDir = 1.f;
// standing/turning
// find the lower foot
if (leftFootWorldPosition.mV[VZ] < rightFootWorldPosition.mV[VZ])
{
// pivot on left foot
footCorrection = leftFootDelta;
}
else
{
// pivot on right foot
footCorrection = rightFootDelta;
}
}
// rotate into avatar coordinates
footCorrection = footCorrection * inv_rotation;
// calculate ideal pelvis offset so that foot is glued to ground and damp towards it
// the amount of foot slippage this frame + the offset applied last frame
mPelvisOffset = mPelvisState->getPosition() + lerp(LLVector3::zero, footCorrection, LLCriticalDamp::getInterpolant(0.2f));
// pelvis drift (along walk direction)
mAvgCorrection = lerp(mAvgCorrection, footCorrection.mV[VX] * mRelativeDir, LLCriticalDamp::getInterpolant(0.1f));
// calculate average velocity of foot slippage
F32 footSlipVelocity = (deltaTime != 0.f) ? (-mAvgCorrection / deltaTime) : 0.f;
F32 newSpeedAdjust = 0.f;
// modulate speed by dot products of facing and velocity
// so that if we are moving sideways, we slow down the animation
// and if we're moving backward, we walk backward
F32 directional_factor = localVel.mV[VX] * mRelativeDir;
if (speed > 0.1f)
{
// calculate ratio of desired foot velocity to detected foot velocity
newSpeedAdjust = llclamp(footSlipVelocity - mAvgSpeed * (1.f - directional_factor),
-SPEED_ADJUST_MAX, SPEED_ADJUST_MAX);
newSpeedAdjust = lerp(mSpeedAdjust, newSpeedAdjust, LLCriticalDamp::getInterpolant(0.2f));
F32 speedDelta = newSpeedAdjust - mSpeedAdjust;
speedDelta = llclamp(speedDelta, -SPEED_ADJUST_MAX_SEC * deltaTime, SPEED_ADJUST_MAX_SEC * deltaTime);
mSpeedAdjust = mSpeedAdjust + speedDelta;
}
else
{
mSpeedAdjust = lerp(mSpeedAdjust, 0.f, LLCriticalDamp::getInterpolant(0.2f));
}
mAnimSpeed = (mAvgSpeed + mSpeedAdjust) * mRelativeDir;
// char debug_text[64];
// sprintf(debug_text, "Foot slip vel: %.2f", footSlipVelocity);
// mCharacter->addDebugText(debug_text);
// sprintf(debug_text, "Speed: %.2f", mAvgSpeed);
// mCharacter->addDebugText(debug_text);
// sprintf(debug_text, "Speed Adjust: %.2f", mSpeedAdjust);
// mCharacter->addDebugText(debug_text);
// sprintf(debug_text, "Animation Playback Speed: %.2f", mAnimSpeed);
// mCharacter->addDebugText(debug_text);
mCharacter->setAnimationData("Walk Speed", &mAnimSpeed);
// clamp pelvis offset to a 90 degree arc behind the nominal position
F32 drift_comp_max = llclamp(speed, 0.f, DRIFT_COMP_MAX_SPEED) / DRIFT_COMP_MAX_SPEED;
drift_comp_max *= DRIFT_COMP_MAX_TOTAL;
LLVector3 currentPelvisPos = mPelvisState->getJoint()->getPosition();
// NB: this is an ADDITIVE amount that is accumulated every frame, so clamping it alone won't do the trick
// must clamp with absolute position of pelvis in mind
mPelvisOffset.mV[VX] = llclamp( mPelvisOffset.mV[VX], -drift_comp_max - currentPelvisPos.mV[VX], drift_comp_max - currentPelvisPos.mV[VX] );
mPelvisOffset.mV[VY] = llclamp( mPelvisOffset.mV[VY], -drift_comp_max - currentPelvisPos.mV[VY], drift_comp_max - currentPelvisPos.mV[VY]);
mPelvisOffset.mV[VZ] = 0.f;
// set position
mPelvisState->setPosition(mPelvisOffset);
mCharacter->setAnimationData("Pelvis Offset", &mPelvisOffset);
return TRUE;
}
BOOL ray_cylinder(const LLVector3 &ray_point, const LLVector3 &ray_direction,
const LLVector3 &cyl_center, const LLVector3 &cyl_scale, const LLQuaternion &cyl_rotation,
LLVector3 &intersection, LLVector3 &intersection_normal)
{
// calculate the centers of the cylinder caps in the absolute frame
LLVector3 cyl_top(0.0f, 0.0f, 0.5f * cyl_scale.mV[VZ]);
LLVector3 cyl_bottom(0.0f, 0.0f, -cyl_top.mV[VZ]);
cyl_top = (cyl_top * cyl_rotation) + cyl_center;
cyl_bottom = (cyl_bottom * cyl_rotation) + cyl_center;
// we only handle cylinders with circular cross-sections at the moment
F32 cyl_radius = 0.5f * llmax(cyl_scale.mV[VX], cyl_scale.mV[VY]); // HACK until scaled cylinders are supported
// This implementation is based on the intcyl() function from Graphics_Gems_IV, page 361
LLVector3 cyl_axis; // axis direction (bottom toward top)
LLVector3 ray_to_cyl; // ray_point to cyl_top
F32 shortest_distance; // shortest distance from ray to axis
F32 cyl_length;
LLVector3 shortest_direction;
LLVector3 temp_vector;
cyl_axis = cyl_bottom - cyl_top;
cyl_length = cyl_axis.normVec();
ray_to_cyl = ray_point - cyl_bottom;
shortest_direction = ray_direction % cyl_axis;
shortest_distance = shortest_direction.normVec(); // recycle shortest_distance
// check for ray parallel to cylinder axis
if (0.0f == shortest_distance)
{
// ray is parallel to cylinder axis
temp_vector = ray_to_cyl - (ray_to_cyl * cyl_axis) * cyl_axis;
shortest_distance = temp_vector.magVec();
if (shortest_distance <= cyl_radius)
{
shortest_distance = ray_to_cyl * cyl_axis;
F32 dot = ray_direction * cyl_axis;
if (shortest_distance > 0.0)
{
if (dot > 0.0f)
{
// ray points away from cylinder bottom
return FALSE;
}
// ray hit bottom of cylinder from outside
intersection = ray_point - shortest_distance * cyl_axis;
intersection_normal = cyl_axis;
}
else if (shortest_distance > -cyl_length)
{
// ray starts inside cylinder
if (dot < 0.0f)
{
// ray hit top from inside
intersection = ray_point - (cyl_length + shortest_distance) * cyl_axis;
intersection_normal = -cyl_axis;
}
else
{
// ray hit bottom from inside
intersection = ray_point - shortest_distance * cyl_axis;
intersection_normal = cyl_axis;
}
}
else
{
if (dot < 0.0f)
{
// ray points away from cylinder bottom
return FALSE;
}
// ray hit top from outside
intersection = ray_point - (shortest_distance + cyl_length) * cyl_axis;
intersection_normal = -cyl_axis;
}
return TRUE;
}
return FALSE;
}
// check for intersection with infinite cylinder
shortest_distance = (F32) fabs(ray_to_cyl * shortest_direction);
if (shortest_distance <= cyl_radius)
{
F32 dist_to_closest_point; // dist from ray_point to closest_point
F32 half_chord_length; // half length of intersection chord
F32 in, out; // distances to entering/exiting points
temp_vector = ray_to_cyl % cyl_axis;
dist_to_closest_point = - (temp_vector * shortest_direction);
temp_vector = shortest_direction % cyl_axis;
temp_vector.normVec();
half_chord_length = (F32) fabs( sqrt(cyl_radius*cyl_radius - shortest_distance * shortest_distance) /
(ray_direction * temp_vector) );
out = dist_to_closest_point + half_chord_length; // dist to exiting point
if (out < 0.0f)
{
// cylinder is behind the ray, so we return FALSE
return FALSE;
}
in = dist_to_closest_point - half_chord_length; // dist to entering point
if (in < 0.0f)
{
// ray_point is inside the cylinder
// so we store the exiting intersection
intersection = ray_point + out * ray_direction;
shortest_distance = out;
}
else
{
// ray hit cylinder from outside
// so we store the entering intersection
intersection = ray_point + in * ray_direction;
shortest_distance = in;
}
// calculate the normal at intersection
if (0.0f == cyl_radius)
{
intersection_normal.setVec(0.0f, 0.0f, 0.0f);
}
else
{
temp_vector = intersection - cyl_bottom;
intersection_normal = temp_vector - (temp_vector * cyl_axis) * cyl_axis;
intersection_normal.normVec();
}
// check for intersection with end caps
// calculate intersection of ray and top plane
if (line_plane(ray_point, ray_direction, cyl_top, -cyl_axis, temp_vector)) // NOTE side-effect: changing temp_vector
{
shortest_distance = (temp_vector - ray_point).magVec();
if ( (ray_direction * cyl_axis) > 0.0f)
{
// ray potentially enters the cylinder at top
if (shortest_distance > out)
{
// ray missed the finite cylinder
return FALSE;
}
if (shortest_distance > in)
{
// ray intersects cylinder at top plane
intersection = temp_vector;
intersection_normal = -cyl_axis;
return TRUE;
}
}
else
{
// ray potentially exits the cylinder at top
if (shortest_distance < in)
{
// missed the finite cylinder
return FALSE;
}
}
// calculate intersection of ray and bottom plane
line_plane(ray_point, ray_direction, cyl_bottom, cyl_axis, temp_vector); // NOTE side-effect: changing temp_vector
shortest_distance = (temp_vector - ray_point).magVec();
if ( (ray_direction * cyl_axis) < 0.0)
{
// ray potentially enters the cylinder at bottom
if (shortest_distance > out)
{
// ray missed the finite cylinder
return FALSE;
}
if (shortest_distance > in)
{
// ray intersects cylinder at bottom plane
intersection = temp_vector;
intersection_normal = cyl_axis;
return TRUE;
}
}
else
{
// ray potentially exits the cylinder at bottom
if (shortest_distance < in)
{
// ray missed the finite cylinder
return FALSE;
}
}
}
else
{
// ray is parallel to end cap planes
temp_vector = cyl_bottom - ray_point;
shortest_distance = temp_vector * cyl_axis;
if (shortest_distance < 0.0f || shortest_distance > cyl_length)
{
// ray missed finite cylinder
return FALSE;
}
}
return TRUE;
}
return FALSE;
}
BOOL LLVOTree::updateGeometry(LLDrawable *drawable)
{
LLFastTimer ftm(LLFastTimer::FTM_UPDATE_TREE);
const F32 SRR3 = 0.577350269f; // sqrt(1/3)
const F32 SRR2 = 0.707106781f; // sqrt(1/2)
U32 i, j;
U32 slices = MAX_SLICES;
S32 max_indices = LEAF_INDICES;
S32 max_vertices = LEAF_VERTICES;
S32 lod;
LLFace *face = drawable->getFace(0);
face->mCenterAgent = getPositionAgent();
face->mCenterLocal = face->mCenterAgent;
for (lod = 0; lod < 4; lod++)
{
slices = sLODSlices[lod];
sLODVertexOffset[lod] = max_vertices;
sLODVertexCount[lod] = slices*slices;
sLODIndexOffset[lod] = max_indices;
sLODIndexCount[lod] = (slices-1)*(slices-1)*6;
max_indices += sLODIndexCount[lod];
max_vertices += sLODVertexCount[lod];
}
LLStrider<LLVector3> vertices;
LLStrider<LLVector3> normals;
LLStrider<LLVector2> tex_coords;
LLStrider<U16> indicesp;
face->setSize(max_vertices, max_indices);
face->mVertexBuffer = new LLVertexBuffer(LLDrawPoolTree::VERTEX_DATA_MASK, GL_STATIC_DRAW_ARB);
face->mVertexBuffer->allocateBuffer(max_vertices, max_indices, TRUE);
face->setGeomIndex(0);
face->setIndicesIndex(0);
face->getGeometry(vertices, normals, tex_coords, indicesp);
S32 vertex_count = 0;
S32 index_count = 0;
// First leaf
*(normals++) = LLVector3(-SRR2, -SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_BOTTOM);
*(vertices++) = LLVector3(-0.5f*LEAF_WIDTH, 0.f, 0.f);
vertex_count++;
*(normals++) = LLVector3(SRR3, -SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_TOP);
*(vertices++) = LLVector3(0.5f*LEAF_WIDTH, 0.f, 1.f);
vertex_count++;
*(normals++) = LLVector3(-SRR3, -SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_TOP);
*(vertices++) = LLVector3(-0.5f*LEAF_WIDTH, 0.f, 1.f);
vertex_count++;
*(normals++) = LLVector3(SRR2, -SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_BOTTOM);
*(vertices++) = LLVector3(0.5f*LEAF_WIDTH, 0.f, 0.f);
vertex_count++;
*(indicesp++) = 0;
index_count++;
*(indicesp++) = 1;
index_count++;
*(indicesp++) = 2;
index_count++;
*(indicesp++) = 0;
index_count++;
*(indicesp++) = 3;
index_count++;
*(indicesp++) = 1;
index_count++;
// Same leaf, inverse winding/normals
*(normals++) = LLVector3(-SRR2, SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_BOTTOM);
*(vertices++) = LLVector3(-0.5f*LEAF_WIDTH, 0.f, 0.f);
vertex_count++;
*(normals++) = LLVector3(SRR3, SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_TOP);
*(vertices++) = LLVector3(0.5f*LEAF_WIDTH, 0.f, 1.f);
vertex_count++;
*(normals++) = LLVector3(-SRR3, SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_TOP);
*(vertices++) = LLVector3(-0.5f*LEAF_WIDTH, 0.f, 1.f);
vertex_count++;
*(normals++) = LLVector3(SRR2, SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_BOTTOM);
*(vertices++) = LLVector3(0.5f*LEAF_WIDTH, 0.f, 0.f);
vertex_count++;
*(indicesp++) = 4;
index_count++;
*(indicesp++) = 6;
index_count++;
*(indicesp++) = 5;
index_count++;
*(indicesp++) = 4;
index_count++;
*(indicesp++) = 5;
index_count++;
*(indicesp++) = 7;
index_count++;
// next leaf
*(normals++) = LLVector3(SRR2, -SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_BOTTOM);
*(vertices++) = LLVector3(0.f, -0.5f*LEAF_WIDTH, 0.f);
vertex_count++;
*(normals++) = LLVector3(SRR3, SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_TOP);
*(vertices++) = LLVector3(0.f, 0.5f*LEAF_WIDTH, 1.f);
vertex_count++;
*(normals++) = LLVector3(SRR3, -SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_TOP);
*(vertices++) = LLVector3(0.f, -0.5f*LEAF_WIDTH, 1.f);
vertex_count++;
*(normals++) = LLVector3(SRR2, SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_BOTTOM);
*(vertices++) = LLVector3(0.f, 0.5f*LEAF_WIDTH, 0.f);
vertex_count++;
*(indicesp++) = 8;
index_count++;
*(indicesp++) = 9;
index_count++;
*(indicesp++) = 10;
index_count++;
*(indicesp++) = 8;
index_count++;
*(indicesp++) = 11;
index_count++;
*(indicesp++) = 9;
index_count++;
// other side of same leaf
*(normals++) = LLVector3(-SRR2, -SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_BOTTOM);
*(vertices++) = LLVector3(0.f, -0.5f*LEAF_WIDTH, 0.f);
vertex_count++;
*(normals++) = LLVector3(-SRR3, SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_TOP);
*(vertices++) = LLVector3(0.f, 0.5f*LEAF_WIDTH, 1.f);
vertex_count++;
*(normals++) = LLVector3(-SRR3, -SRR3, SRR3);
*(tex_coords++) = LLVector2(LEAF_LEFT, LEAF_TOP);
*(vertices++) = LLVector3(0.f, -0.5f*LEAF_WIDTH, 1.f);
vertex_count++;
*(normals++) = LLVector3(-SRR2, SRR2, 0.f);
*(tex_coords++) = LLVector2(LEAF_RIGHT, LEAF_BOTTOM);
*(vertices++) = LLVector3(0.f, 0.5f*LEAF_WIDTH, 0.f);
vertex_count++;
*(indicesp++) = 12;
index_count++;
*(indicesp++) = 14;
index_count++;
*(indicesp++) = 13;
index_count++;
*(indicesp++) = 12;
index_count++;
*(indicesp++) = 13;
index_count++;
*(indicesp++) = 15;
index_count++;
// Generate geometry for the cylinders
// Different LOD's
// Generate the vertices
// Generate the indices
for (lod = 0; lod < 4; lod++)
{
slices = sLODSlices[lod];
F32 base_radius = 0.65f;
F32 top_radius = base_radius * sSpeciesTable[mSpecies]->mTaper;
//llinfos << "Species " << ((U32) mSpecies) << ", taper = " << sSpeciesTable[mSpecies].mTaper << llendl;
//llinfos << "Droop " << mDroop << ", branchlength: " << mBranchLength << llendl;
F32 angle = 0;
F32 angle_inc = 360.f/(slices-1);
F32 z = 0.f;
F32 z_inc = 1.f;
if (slices > 3)
{
z_inc = 1.f/(slices - 3);
}
F32 radius = base_radius;
F32 x1,y1;
F32 noise_scale = sSpeciesTable[mSpecies]->mNoiseMag;
LLVector3 nvec;
const F32 cap_nudge = 0.1f; // Height to 'peak' the caps on top/bottom of branch
const S32 fractal_depth = 5;
F32 nvec_scale = 1.f * sSpeciesTable[mSpecies]->mNoiseScale;
F32 nvec_scalez = 4.f * sSpeciesTable[mSpecies]->mNoiseScale;
F32 tex_z_repeat = sSpeciesTable[mSpecies]->mRepeatTrunkZ;
F32 start_radius;
F32 nangle = 0;
F32 height = 1.f;
F32 r0;
for (i = 0; i < slices; i++)
{
if (i == 0)
{
z = - cap_nudge;
r0 = 0.0;
}
else if (i == (slices - 1))
{
z = 1.f + cap_nudge;//((i - 2) * z_inc) + cap_nudge;
r0 = 0.0;
}
else
{
z = (i - 1) * z_inc;
r0 = base_radius + (top_radius - base_radius)*z;
}
for (j = 0; j < slices; j++)
{
if (slices - 1 == j)
{
angle = 0.f;
}
else
{
angle = j*angle_inc;
}
nangle = angle;
x1 = cos(angle * DEG_TO_RAD);
y1 = sin(angle * DEG_TO_RAD);
LLVector2 tc;
// This isn't totally accurate. Should compute based on slope as well.
start_radius = r0 * (1.f + 1.2f*fabs(z - 0.66f*height)/height);
nvec.setVec( cos(nangle * DEG_TO_RAD)*start_radius*nvec_scale,
sin(nangle * DEG_TO_RAD)*start_radius*nvec_scale,
z*nvec_scalez);
// First and last slice at 0 radius (to bring in top/bottom of structure)
radius = start_radius + turbulence3((F32*)&nvec.mV, (F32)fractal_depth)*noise_scale;
if (slices - 1 == j)
{
// Not 0.5 for slight slop factor to avoid edges on leaves
tc = LLVector2(0.490f, (1.f - z/2.f)*tex_z_repeat);
}
else
{
tc = LLVector2((angle/360.f)*0.5f, (1.f - z/2.f)*tex_z_repeat);
}
*(vertices++) = LLVector3(x1*radius, y1*radius, z);
*(normals++) = LLVector3(x1, y1, 0.f);
*(tex_coords++) = tc;
vertex_count++;
}
}
for (i = 0; i < (slices - 1); i++)
{
for (j = 0; j < (slices - 1); j++)
{
S32 x1_offset = j+1;
if ((j+1) == slices)
{
x1_offset = 0;
}
// Generate the matching quads
*(indicesp) = j + (i*slices) + sLODVertexOffset[lod];
llassert(*(indicesp) < (U32)max_vertices);
indicesp++;
index_count++;
*(indicesp) = x1_offset + ((i+1)*slices) + sLODVertexOffset[lod];
llassert(*(indicesp) < (U32)max_vertices);
indicesp++;
index_count++;
*(indicesp) = j + ((i+1)*slices) + sLODVertexOffset[lod];
llassert(*(indicesp) < (U32)max_vertices);
indicesp++;
index_count++;
*(indicesp) = j + (i*slices) + sLODVertexOffset[lod];
llassert(*(indicesp) < (U32)max_vertices);
indicesp++;
index_count++;
*(indicesp) = x1_offset + (i*slices) + sLODVertexOffset[lod];
llassert(*(indicesp) < (U32)max_vertices);
indicesp++;
index_count++;
*(indicesp) = x1_offset + ((i+1)*slices) + sLODVertexOffset[lod];
llassert(*(indicesp) < (U32)max_vertices);
indicesp++;
index_count++;
}
}
slices /= 2;
}
face->mVertexBuffer->setBuffer(0);
llassert(vertex_count == max_vertices);
llassert(index_count == max_indices);
return TRUE;
}
BOOL LLToolPlacer::addObject( LLPCode pcode, S32 x, S32 y, U8 use_physics )
{
LLVector3 ray_start_region;
LLVector3 ray_end_region;
LLViewerRegion* regionp = NULL;
BOOL b_hit_land = FALSE;
S32 hit_face = -1;
LLViewerObject* hit_obj = NULL;
U8 state = 0;
BOOL success = raycastForNewObjPos( x, y, &hit_obj, &hit_face, &b_hit_land, &ray_start_region, &ray_end_region, ®ionp );
if( !success )
{
return FALSE;
}
if( hit_obj && (hit_obj->isAvatar() || hit_obj->isAttachment()) )
{
// Can't create objects on avatars or attachments
return FALSE;
}
if (NULL == regionp)
{
llwarns << "regionp was NULL; aborting function." << llendl;
return FALSE;
}
if (regionp->getRegionFlags() & REGION_FLAGS_SANDBOX)
{
LLFirstUse::useSandbox();
}
// Set params for new object based on its PCode.
LLQuaternion rotation;
LLVector3 scale = LLVector3(
gSavedSettings.getF32("EmeraldBuildPrefs_Xsize"),
gSavedSettings.getF32("EmeraldBuildPrefs_Ysize"),
gSavedSettings.getF32("EmeraldBuildPrefs_Zsize"));
U8 material = LL_MCODE_WOOD;
if(gSavedSettings.getString("EmeraldBuildPrefs_Material")== "Stone") material = LL_MCODE_STONE;
if(gSavedSettings.getString("EmeraldBuildPrefs_Material")== "Metal") material = LL_MCODE_METAL;
if(gSavedSettings.getString("EmeraldBuildPrefs_Material")== "Wood") material = LL_MCODE_WOOD;
if(gSavedSettings.getString("EmeraldBuildPrefs_Material")== "Flesh") material = LL_MCODE_FLESH;
if(gSavedSettings.getString("EmeraldBuildPrefs_Material")== "Rubber") material = LL_MCODE_RUBBER;
if(gSavedSettings.getString("EmeraldBuildPrefs_Material")== "Plastic") material = LL_MCODE_PLASTIC;
BOOL create_selected = FALSE;
LLVolumeParams volume_params;
switch (pcode)
{
case LL_PCODE_LEGACY_GRASS:
// Randomize size of grass patch
scale.setVec(10.f + ll_frand(20.f), 10.f + ll_frand(20.f), 1.f + ll_frand(2.f));
state = rand() % LLVOGrass::sMaxGrassSpecies;
break;
case LL_PCODE_LEGACY_TREE:
case LL_PCODE_TREE_NEW:
state = rand() % LLVOTree::sMaxTreeSpecies;
break;
case LL_PCODE_SPHERE:
case LL_PCODE_CONE:
case LL_PCODE_CUBE:
case LL_PCODE_CYLINDER:
case LL_PCODE_TORUS:
case LLViewerObject::LL_VO_SQUARE_TORUS:
case LLViewerObject::LL_VO_TRIANGLE_TORUS:
default:
create_selected = TRUE;
break;
}
// Play creation sound
if (gAudiop)
{
gAudiop->triggerSound( LLUUID(gSavedSettings.getString("UISndObjectCreate")),
gAgent.getID(), 1.0f, LLAudioEngine::AUDIO_TYPE_UI);
}
gMessageSystem->newMessageFast(_PREHASH_ObjectAdd);
gMessageSystem->nextBlockFast(_PREHASH_AgentData);
gMessageSystem->addUUIDFast(_PREHASH_AgentID, gAgent.getID());
gMessageSystem->addUUIDFast(_PREHASH_SessionID, gAgent.getSessionID());
//MOYMOD 2009-05, If avatar is in land group/land owner group,
// it rezzes it with it to prevent autoreturn/whatever
if(gSavedSettings.getBOOL("mm_alwaysRezWithLandGroup")){
LLParcel *parcel = LLViewerParcelMgr::getInstance()->getAgentParcel();
if(gAgent.isInGroup(parcel->getGroupID())){
gMessageSystem->addUUIDFast(_PREHASH_GroupID, parcel->getGroupID());
}else if(gAgent.isInGroup(parcel->getOwnerID())){
gMessageSystem->addUUIDFast(_PREHASH_GroupID, parcel->getOwnerID());
}else gMessageSystem->addUUIDFast(_PREHASH_GroupID, gAgent.getGroupID());
}else gMessageSystem->addUUIDFast(_PREHASH_GroupID, gAgent.getGroupID());
gMessageSystem->nextBlockFast(_PREHASH_ObjectData);
gMessageSystem->addU8Fast(_PREHASH_Material, material);
U32 flags = 0; // not selected
if (use_physics || gSavedSettings.getBOOL("EmeraldBuildPrefs_Physical"))
{
flags |= FLAGS_USE_PHYSICS;
}
//if (create_selected)
// [RLVa:KB] - Checked: 2009-07-04 (RLVa-1.0.0b) | Added: RLVa-1.0.0b
if ( (create_selected) && (!gRlvHandler.hasBehaviour(RLV_BHVR_EDIT)) )
// [/RLVa:KB]
{
flags |= FLAGS_CREATE_SELECTED;
}
gMessageSystem->addU32Fast(_PREHASH_AddFlags, flags );
LLPCode volume_pcode; // ...PCODE_VOLUME, or the original on error
switch (pcode)
{
case LL_PCODE_SPHERE:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_CIRCLE_HALF, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_TORUS:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1.f, 0.25f ); // "top size"
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LLViewerObject::LL_VO_SQUARE_TORUS:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1.f, 0.25f ); // "top size"
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LLViewerObject::LL_VO_TRIANGLE_TORUS:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_EQUALTRI, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1.f, 0.25f ); // "top size"
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_SPHERE_HEMI:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE_HALF, LL_PCODE_PATH_CIRCLE );
//volume_params.setBeginAndEndS( 0.5f, 1.f );
volume_params.setBeginAndEndT( 0.f, 0.5f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CUBE:
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_PRISM:
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 1 );
volume_params.setShear ( -0.5f, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_PYRAMID:
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_TETRAHEDRON:
volume_params.setType( LL_PCODE_PROFILE_EQUALTRI, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CYLINDER:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CYLINDER_HEMI:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.25f, 0.75f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CONE:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CONE_HEMI:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.25f, 0.75f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
default:
LLVolumeMessage::packVolumeParams(0, gMessageSystem);
volume_pcode = pcode;
break;
}
gMessageSystem->addU8Fast(_PREHASH_PCode, volume_pcode);
gMessageSystem->addVector3Fast(_PREHASH_Scale, scale );
gMessageSystem->addQuatFast(_PREHASH_Rotation, rotation );
gMessageSystem->addVector3Fast(_PREHASH_RayStart, ray_start_region );
gMessageSystem->addVector3Fast(_PREHASH_RayEnd, ray_end_region );
gMessageSystem->addU8Fast(_PREHASH_BypassRaycast, (U8)b_hit_land );
gMessageSystem->addU8Fast(_PREHASH_RayEndIsIntersection, (U8)FALSE );
gMessageSystem->addU8Fast(_PREHASH_State, state);
// Limit raycast to a single object.
// Speeds up server raycast + avoid problems with server ray hitting objects
// that were clipped by the near plane or culled on the viewer.
LLUUID ray_target_id;
if( hit_obj )
{
ray_target_id = hit_obj->getID();
}
else
{
ray_target_id.setNull();
}
gMessageSystem->addUUIDFast(_PREHASH_RayTargetID, ray_target_id );
// Pack in name value pairs
gMessageSystem->sendReliable(regionp->getHost());
//lgg set flag to set texture here
gImportTracker.expectRez();
// Spawns a message, so must be after above send
if (create_selected)
{
LLSelectMgr::getInstance()->deselectAll();
gViewerWindow->getWindow()->incBusyCount();
}
// VEFFECT: AddObject
LLHUDEffectSpiral *effectp = (LLHUDEffectSpiral *)LLHUDManager::getInstance()->createViewerEffect(LLHUDObject::LL_HUD_EFFECT_BEAM, TRUE);
effectp->setSourceObject((LLViewerObject*)gAgent.getAvatarObject());
effectp->setPositionGlobal(regionp->getPosGlobalFromRegion(ray_end_region));
effectp->setDuration(LL_HUD_DUR_SHORT);
effectp->setColor(LLColor4U(gAgent.getEffectColor()));
LLViewerStats::getInstance()->incStat(LLViewerStats::ST_CREATE_COUNT);
return TRUE;
}
BOOL LLToolPlacer::addObject( LLPCode pcode, S32 x, S32 y, U8 use_physics )
{
LLVector3 ray_start_region;
LLVector3 ray_end_region;
LLViewerRegion* regionp = NULL;
BOOL b_hit_land = FALSE;
S32 hit_face = -1;
LLViewerObject* hit_obj = NULL;
U8 state = 0;
BOOL success = raycastForNewObjPos( x, y, &hit_obj, &hit_face, &b_hit_land, &ray_start_region, &ray_end_region, ®ionp );
if( !success )
{
return FALSE;
}
if( hit_obj && (hit_obj->isAvatar() || hit_obj->isAttachment()) )
{
// Can't create objects on avatars or attachments
return FALSE;
}
if (NULL == regionp)
{
llwarns << "regionp was NULL; aborting function." << llendl;
return FALSE;
}
if (regionp->getRegionFlags() & REGION_FLAGS_SANDBOX)
{
LLFirstUse::useSandbox();
}
// Set params for new object based on its PCode.
LLQuaternion rotation;
LLVector3 scale = DEFAULT_OBJECT_SCALE;
U8 material = LL_MCODE_WOOD;
BOOL create_selected = FALSE;
LLVolumeParams volume_params;
switch (pcode)
{
case LL_PCODE_LEGACY_GRASS:
// Randomize size of grass patch
scale.setVec(10.f + ll_frand(20.f), 10.f + ll_frand(20.f), 1.f + ll_frand(2.f));
state = rand() % LLVOGrass::sMaxGrassSpecies;
break;
case LL_PCODE_LEGACY_TREE:
case LL_PCODE_TREE_NEW:
state = rand() % LLVOTree::sMaxTreeSpecies;
break;
case LL_PCODE_SPHERE:
case LL_PCODE_CONE:
case LL_PCODE_CUBE:
case LL_PCODE_CYLINDER:
case LL_PCODE_TORUS:
case LLViewerObject::LL_VO_SQUARE_TORUS:
case LLViewerObject::LL_VO_TRIANGLE_TORUS:
default:
create_selected = TRUE;
break;
}
// Play creation sound
if (gAudiop)
{
F32 volume = gSavedSettings.getBOOL("MuteUI") ? 0.f : gSavedSettings.getF32("AudioLevelUI");
gAudiop->triggerSound( LLUUID(gSavedSettings.getString("UISndObjectCreate")), gAgent.getID(), volume);
}
gMessageSystem->newMessageFast(_PREHASH_ObjectAdd);
gMessageSystem->nextBlockFast(_PREHASH_AgentData);
gMessageSystem->addUUIDFast(_PREHASH_AgentID, gAgent.getID());
gMessageSystem->addUUIDFast(_PREHASH_SessionID, gAgent.getSessionID());
gMessageSystem->addUUIDFast(_PREHASH_GroupID, gAgent.getGroupID());
gMessageSystem->nextBlockFast(_PREHASH_ObjectData);
gMessageSystem->addU8Fast(_PREHASH_Material, material);
U32 flags = 0; // not selected
if (use_physics)
{
flags |= FLAGS_USE_PHYSICS;
}
if (create_selected)
{
flags |= FLAGS_CREATE_SELECTED;
}
gMessageSystem->addU32Fast(_PREHASH_AddFlags, flags );
LLPCode volume_pcode; // ...PCODE_VOLUME, or the original on error
switch (pcode)
{
case LL_PCODE_SPHERE:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_CIRCLE_HALF, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_TORUS:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1.f, 0.25f ); // "top size"
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LLViewerObject::LL_VO_SQUARE_TORUS:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1.f, 0.25f ); // "top size"
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LLViewerObject::LL_VO_TRIANGLE_TORUS:
rotation.setQuat(90.f * DEG_TO_RAD, LLVector3::y_axis);
volume_params.setType( LL_PCODE_PROFILE_EQUALTRI, LL_PCODE_PATH_CIRCLE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1.f, 0.25f ); // "top size"
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_SPHERE_HEMI:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE_HALF, LL_PCODE_PATH_CIRCLE );
//volume_params.setBeginAndEndS( 0.5f, 1.f );
volume_params.setBeginAndEndT( 0.f, 0.5f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CUBE:
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_PRISM:
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 1 );
volume_params.setShear ( -0.5f, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_PYRAMID:
volume_params.setType( LL_PCODE_PROFILE_SQUARE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_TETRAHEDRON:
volume_params.setType( LL_PCODE_PROFILE_EQUALTRI, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CYLINDER:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CYLINDER_HEMI:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.25f, 0.75f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 1, 1 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CONE:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.f, 1.f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
case LL_PCODE_CONE_HEMI:
volume_params.setType( LL_PCODE_PROFILE_CIRCLE, LL_PCODE_PATH_LINE );
volume_params.setBeginAndEndS( 0.25f, 0.75f );
volume_params.setBeginAndEndT( 0.f, 1.f );
volume_params.setRatio ( 0, 0 );
volume_params.setShear ( 0, 0 );
LLVolumeMessage::packVolumeParams(&volume_params, gMessageSystem);
volume_pcode = LL_PCODE_VOLUME;
break;
default:
LLVolumeMessage::packVolumeParams(0, gMessageSystem);
volume_pcode = pcode;
break;
}
gMessageSystem->addU8Fast(_PREHASH_PCode, volume_pcode);
gMessageSystem->addVector3Fast(_PREHASH_Scale, scale );
gMessageSystem->addQuatFast(_PREHASH_Rotation, rotation );
gMessageSystem->addVector3Fast(_PREHASH_RayStart, ray_start_region );
gMessageSystem->addVector3Fast(_PREHASH_RayEnd, ray_end_region );
gMessageSystem->addU8Fast(_PREHASH_BypassRaycast, (U8)b_hit_land );
gMessageSystem->addU8Fast(_PREHASH_RayEndIsIntersection, (U8)FALSE );
gMessageSystem->addU8Fast(_PREHASH_State, state);
// Limit raycast to a single object.
// Speeds up server raycast + avoid problems with server ray hitting objects
// that were clipped by the near plane or culled on the viewer.
LLUUID ray_target_id;
if( hit_obj )
{
ray_target_id = hit_obj->getID();
}
else
{
ray_target_id.setNull();
}
gMessageSystem->addUUIDFast(_PREHASH_RayTargetID, ray_target_id );
// Pack in name value pairs
gMessageSystem->sendReliable(regionp->getHost());
// Spawns a message, so must be after above send
if (create_selected)
{
gSelectMgr->deselectAll();
gViewerWindow->getWindow()->incBusyCount();
}
// VEFFECT: AddObject
LLHUDEffectSpiral *effectp = (LLHUDEffectSpiral *)gHUDManager->createViewerEffect(LLHUDObject::LL_HUD_EFFECT_BEAM, TRUE);
effectp->setSourceObject((LLViewerObject*)gAgent.getAvatarObject());
effectp->setPositionGlobal(regionp->getPosGlobalFromRegion(ray_end_region));
effectp->setDuration(LL_HUD_DUR_SHORT);
effectp->setColor(LLColor4U(gAgent.getEffectColor()));
gViewerStats->incStat(LLViewerStats::ST_CREATE_COUNT);
return TRUE;
}
// writes contents to datapacker
BOOL LLBVHLoader::serialize(LLDataPacker& dp)
{
JointVector::iterator ji;
KeyVector::iterator ki;
F32 time;
// count number of non-ignored joints
S32 numJoints = 0;
for (ji=mJoints.begin(); ji!=mJoints.end(); ++ji)
{
Joint *joint = *ji;
if ( ! joint->mIgnore )
numJoints++;
}
// print header
dp.packU16(KEYFRAME_MOTION_VERSION, "version");
dp.packU16(KEYFRAME_MOTION_SUBVERSION, "sub_version");
dp.packS32(mPriority, "base_priority");
dp.packF32(mDuration, "duration");
dp.packString(mEmoteName, "emote_name");
dp.packF32(mLoopInPoint, "loop_in_point");
dp.packF32(mLoopOutPoint, "loop_out_point");
dp.packS32(mLoop, "loop");
dp.packF32(mEaseIn, "ease_in_duration");
dp.packF32(mEaseOut, "ease_out_duration");
dp.packU32(mHand, "hand_pose");
dp.packU32(numJoints, "num_joints");
for ( ji = mJoints.begin();
ji != mJoints.end();
++ji )
{
Joint *joint = *ji;
// if ignored, skip it
if ( joint->mIgnore )
continue;
LLQuaternion first_frame_rot;
LLQuaternion fixup_rot;
dp.packString(joint->mOutName, "joint_name");
dp.packS32(joint->mPriority, "joint_priority");
// compute coordinate frame rotation
LLQuaternion frameRot( joint->mFrameMatrix );
LLQuaternion frameRotInv = ~frameRot;
LLQuaternion offsetRot( joint->mOffsetMatrix );
// find mergechild and mergeparent joints, if specified
LLQuaternion mergeParentRot;
LLQuaternion mergeChildRot;
Joint *mergeParent = NULL;
Joint *mergeChild = NULL;
JointVector::iterator mji;
for (mji=mJoints.begin(); mji!=mJoints.end(); ++mji)
{
Joint *mjoint = *mji;
if ( !joint->mMergeParentName.empty() && (mjoint->mName == joint->mMergeParentName) )
{
mergeParent = *mji;
}
if ( !joint->mMergeChildName.empty() && (mjoint->mName == joint->mMergeChildName) )
{
mergeChild = *mji;
}
}
dp.packS32(joint->mNumRotKeys, "num_rot_keys");
LLQuaternion::Order order = bvhStringToOrder( joint->mOrder );
S32 outcount = 0;
S32 frame = 1;
for ( ki = joint->mKeys.begin();
ki != joint->mKeys.end();
++ki )
{
if ((frame == 1) && joint->mRelativeRotationKey)
{
first_frame_rot = mayaQ( ki->mRot[0], ki->mRot[1], ki->mRot[2], order);
fixup_rot.shortestArc(LLVector3::z_axis * first_frame_rot * frameRot, LLVector3::z_axis);
}
if (ki->mIgnoreRot)
{
frame++;
continue;
}
time = (F32)frame * mFrameTime;
if (mergeParent)
{
mergeParentRot = mayaQ( mergeParent->mKeys[frame-1].mRot[0],
mergeParent->mKeys[frame-1].mRot[1],
mergeParent->mKeys[frame-1].mRot[2],
bvhStringToOrder(mergeParent->mOrder) );
LLQuaternion parentFrameRot( mergeParent->mFrameMatrix );
LLQuaternion parentOffsetRot( mergeParent->mOffsetMatrix );
mergeParentRot = ~parentFrameRot * mergeParentRot * parentFrameRot * parentOffsetRot;
}
else
{
mergeParentRot.loadIdentity();
}
if (mergeChild)
{
mergeChildRot = mayaQ( mergeChild->mKeys[frame-1].mRot[0],
mergeChild->mKeys[frame-1].mRot[1],
mergeChild->mKeys[frame-1].mRot[2],
bvhStringToOrder(mergeChild->mOrder) );
LLQuaternion childFrameRot( mergeChild->mFrameMatrix );
LLQuaternion childOffsetRot( mergeChild->mOffsetMatrix );
mergeChildRot = ~childFrameRot * mergeChildRot * childFrameRot * childOffsetRot;
}
else
{
mergeChildRot.loadIdentity();
}
LLQuaternion inRot = mayaQ( ki->mRot[0], ki->mRot[1], ki->mRot[2], order);
LLQuaternion outRot = frameRotInv* mergeChildRot * inRot * mergeParentRot * ~first_frame_rot * frameRot * offsetRot;
U16 time_short = F32_to_U16(time, 0.f, mDuration);
dp.packU16(time_short, "time");
U16 x, y, z;
LLVector3 rot_vec = outRot.packToVector3();
rot_vec.quantize16(-1.f, 1.f, -1.f, 1.f);
x = F32_to_U16(rot_vec.mV[VX], -1.f, 1.f);
y = F32_to_U16(rot_vec.mV[VY], -1.f, 1.f);
z = F32_to_U16(rot_vec.mV[VZ], -1.f, 1.f);
dp.packU16(x, "rot_angle_x");
dp.packU16(y, "rot_angle_y");
dp.packU16(z, "rot_angle_z");
outcount++;
frame++;
}
// output position keys (only for 1st joint)
if ( ji == mJoints.begin() && !joint->mIgnorePositions )
{
dp.packS32(joint->mNumPosKeys, "num_pos_keys");
LLVector3 relPos = joint->mRelativePosition;
LLVector3 relKey;
frame = 1;
for ( ki = joint->mKeys.begin();
ki != joint->mKeys.end();
++ki )
{
if ((frame == 1) && joint->mRelativePositionKey)
{
relKey.setVec(ki->mPos);
}
if (ki->mIgnorePos)
{
frame++;
continue;
}
time = (F32)frame * mFrameTime;
LLVector3 inPos = (LLVector3(ki->mPos) - relKey) * ~first_frame_rot;// * fixup_rot;
LLVector3 outPos = inPos * frameRot * offsetRot;
outPos *= INCHES_TO_METERS;
outPos -= relPos;
outPos.clamp(-LL_MAX_PELVIS_OFFSET, LL_MAX_PELVIS_OFFSET);
U16 time_short = F32_to_U16(time, 0.f, mDuration);
dp.packU16(time_short, "time");
U16 x, y, z;
outPos.quantize16(-LL_MAX_PELVIS_OFFSET, LL_MAX_PELVIS_OFFSET, -LL_MAX_PELVIS_OFFSET, LL_MAX_PELVIS_OFFSET);
x = F32_to_U16(outPos.mV[VX], -LL_MAX_PELVIS_OFFSET, LL_MAX_PELVIS_OFFSET);
y = F32_to_U16(outPos.mV[VY], -LL_MAX_PELVIS_OFFSET, LL_MAX_PELVIS_OFFSET);
z = F32_to_U16(outPos.mV[VZ], -LL_MAX_PELVIS_OFFSET, LL_MAX_PELVIS_OFFSET);
dp.packU16(x, "pos_x");
dp.packU16(y, "pos_y");
dp.packU16(z, "pos_z");
frame++;
}
}
else
{
dp.packS32(0, "num_pos_keys");
}
}
S32 num_constraints = (S32)mConstraints.size();
dp.packS32(num_constraints, "num_constraints");
for (ConstraintVector::iterator constraint_it = mConstraints.begin();
constraint_it != mConstraints.end();
constraint_it++)
{
U8 byte = constraint_it->mChainLength;
dp.packU8(byte, "chain_lenght");
byte = constraint_it->mConstraintType;
dp.packU8(byte, "constraint_type");
dp.packBinaryDataFixed((U8*)constraint_it->mSourceJointName, 16, "source_volume");
dp.packVector3(constraint_it->mSourceOffset, "source_offset");
dp.packBinaryDataFixed((U8*)constraint_it->mTargetJointName, 16, "target_volume");
dp.packVector3(constraint_it->mTargetOffset, "target_offset");
dp.packVector3(constraint_it->mTargetDir, "target_dir");
dp.packF32(constraint_it->mEaseInStart, "ease_in_start");
dp.packF32(constraint_it->mEaseInStop, "ease_in_stop");
dp.packF32(constraint_it->mEaseOutStart, "ease_out_start");
dp.packF32(constraint_it->mEaseOutStop, "ease_out_stop");
}
return TRUE;
}
void LLAudioEngine_OpenAL::updateWind(LLVector3 wind_vec, F32 camera_altitude)
{
if (true)
return;
LLVector3 wind_pos;
F32 pitch;
F32 center_freq;
if (!mEnableWind)
return;
if(!mWindData)
return;
if (mWindUpdateTimer.checkExpirationAndReset(LL_WIND_UPDATE_INTERVAL))
{
// wind comes in as Linden coordinate (+X = forward, +Y = left, +Z = up)
// need to convert this to the conventional orientation DS3D and OpenAL use
// where +X = right, +Y = up, +Z = backwards
wind_vec.setVec(-wind_vec.mV[1], wind_vec.mV[2], -wind_vec.mV[0]);
pitch = 1.0f + mapWindVecToPitch(wind_vec);
center_freq = 80.0f * powf(pitch,2.5f*(mapWindVecToGain(wind_vec)+1.0f));
//TESTING
mMaxWindGain=1.0;
mTargetFreq = center_freq;
mTargetGain = (F32)mapWindVecToGain(wind_vec) * mMaxWindGain;
mTargetPanGainR = (F32)mapWindVecToPan(wind_vec);
ALfloat source0Pos[]={mListenerp->getPosition().mV[0],mListenerp->getPosition().mV[1],mListenerp->getPosition().mV[2]};
ALfloat source0Vel[]={ 0.0, 0.0, 0.0};
alSourcef(mWindSource, AL_GAIN, mTargetGain);
alSourcef(mWindSource, AL_PITCH, pitch);
alSourcefv(mWindSource, AL_POSITION, source0Pos);
alSourcefv(mWindSource, AL_VELOCITY, source0Vel);
alSourcei(mWindSource, AL_LOOPING, AL_FALSE);
}
int processed;
alGetSourcei(mWindSource, AL_BUFFERS_PROCESSED, &processed);
while(processed--)
{
ALuint buffer;
alSourceUnqueueBuffers(mWindSource, 1, &buffer);
checkALError();
alBufferData(buffer,AL_FORMAT_STEREO16,windDSP((void*)mWindData,mWindDataSize/mBytesPerSample),mWindDataSize,mSampleRate);
checkALError();
alSourceQueueBuffers(mWindSource, 1, &buffer);
checkALError();
}
int playing;
alGetSourcei(mWindSource, AL_SOURCE_STATE, &playing);
if(playing==AL_STOPPED)
alSourcePlay(mWindSource);
checkALError();
}
// -----------------------------------------------------------------------------
void LLViewerJoystick::moveObjects(bool reset)
{
static bool toggle_send_to_sim = false;
if (!gFocusMgr.getAppHasFocus() || mDriverState != JDS_INITIALIZED
|| !gSavedSettings.getBOOL("JoystickEnabled") || !gSavedSettings.getBOOL("JoystickBuildEnabled"))
{
return;
}
S32 axis[] =
{
gSavedSettings.getS32("JoystickAxis0"),
gSavedSettings.getS32("JoystickAxis1"),
gSavedSettings.getS32("JoystickAxis2"),
gSavedSettings.getS32("JoystickAxis3"),
gSavedSettings.getS32("JoystickAxis4"),
gSavedSettings.getS32("JoystickAxis5"),
};
if (reset || mResetFlag)
{
resetDeltas(axis);
return;
}
F32 axis_scale[] =
{
gSavedSettings.getF32("BuildAxisScale0"),
gSavedSettings.getF32("BuildAxisScale1"),
gSavedSettings.getF32("BuildAxisScale2"),
gSavedSettings.getF32("BuildAxisScale3"),
gSavedSettings.getF32("BuildAxisScale4"),
gSavedSettings.getF32("BuildAxisScale5"),
};
F32 dead_zone[] =
{
gSavedSettings.getF32("BuildAxisDeadZone0"),
gSavedSettings.getF32("BuildAxisDeadZone1"),
gSavedSettings.getF32("BuildAxisDeadZone2"),
gSavedSettings.getF32("BuildAxisDeadZone3"),
gSavedSettings.getF32("BuildAxisDeadZone4"),
gSavedSettings.getF32("BuildAxisDeadZone5"),
};
F32 cur_delta[6];
F32 time = gFrameIntervalSeconds;
// avoid making ridicously big movements if there's a big drop in fps
if (time > .2f)
{
time = .2f;
}
// max feather is 32
F32 feather = gSavedSettings.getF32("BuildFeathering");
bool is_zero = true, absolute = gSavedSettings.getBOOL("Cursor3D");
for (U32 i = 0; i < 6; i++)
{
cur_delta[i] = -mAxes[axis[i]];
F32 tmp = cur_delta[i];
if (absolute)
{
cur_delta[i] = cur_delta[i] - sLastDelta[i];
}
sLastDelta[i] = tmp;
is_zero = is_zero && (cur_delta[i] == 0.f);
if (cur_delta[i] > 0)
{
cur_delta[i] = llmax(cur_delta[i]-dead_zone[i], 0.f);
}
else
{
cur_delta[i] = llmin(cur_delta[i]+dead_zone[i], 0.f);
}
cur_delta[i] *= axis_scale[i];
if (!absolute)
{
cur_delta[i] *= time;
}
sDelta[i] = sDelta[i] + (cur_delta[i]-sDelta[i])*time*feather;
}
U32 upd_type = UPD_NONE;
LLVector3 v;
if (!is_zero)
{
// Clear AFK state if moved beyond the deadzone
if (gAwayTimer.getElapsedTimeF32() > MIN_AFK_TIME)
{
gAgent.clearAFK();
}
if (sDelta[0] || sDelta[1] || sDelta[2])
{
upd_type |= UPD_POSITION;
v.setVec(sDelta[0], sDelta[1], sDelta[2]);
}
if (sDelta[3] || sDelta[4] || sDelta[5])
{
upd_type |= UPD_ROTATION;
}
// the selection update could fail, so we won't send
if (LLSelectMgr::getInstance()->selectionMove(v, sDelta[3],sDelta[4],sDelta[5], upd_type))
{
toggle_send_to_sim = true;
}
}
else if (toggle_send_to_sim)
{
LLSelectMgr::getInstance()->sendSelectionMove();
toggle_send_to_sim = false;
}
}
BOOL LLFace::getGeometryVolume(const LLVolume& volume,
const S32 &f,
const LLMatrix4& mat_vert_in, const LLMatrix3& mat_norm_in,
const U16 &index_offset,
bool force_rebuild)
{
llassert(verify());
const LLVolumeFace &vf = volume.getVolumeFace(f);
S32 num_vertices = (S32)vf.mNumVertices;
S32 num_indices = (S32) vf.mNumIndices;
if (mVertexBuffer.notNull())
{
if (num_indices + (S32) mIndicesIndex > mVertexBuffer->getNumIndices())
{
llwarns << "Index buffer overflow!" << llendl;
llwarns << "Indices Count: " << mIndicesCount
<< " VF Num Indices: " << num_indices
<< " Indices Index: " << mIndicesIndex
<< " VB Num Indices: " << mVertexBuffer->getNumIndices() << llendl;
llwarns << "Last Indices Count: " << mLastIndicesCount
<< " Last Indices Index: " << mLastIndicesIndex
<< " Face Index: " << f
<< " Pool Type: " << mPoolType << llendl;
return FALSE;
}
if (num_vertices + mGeomIndex > mVertexBuffer->getNumVerts())
{
llwarns << "Vertex buffer overflow!" << llendl;
return FALSE;
}
}
LLStrider<LLVector3> vertices;
LLStrider<LLVector2> tex_coords;
LLStrider<LLVector2> tex_coords2;
LLStrider<LLVector3> normals;
LLStrider<LLColor4U> colors;
LLStrider<LLVector3> binormals;
LLStrider<U16> indicesp;
#if MESH_ENABLED
LLStrider<LLVector4> weights;
#endif //MESH_ENABLED
BOOL full_rebuild = force_rebuild || mDrawablep->isState(LLDrawable::REBUILD_VOLUME);
BOOL global_volume = mDrawablep->getVOVolume()->isVolumeGlobal();
LLVector3 scale;
if (global_volume)
{
scale.setVec(1,1,1);
}
else
{
scale = mVObjp->getScale();
}
bool rebuild_pos = full_rebuild || mDrawablep->isState(LLDrawable::REBUILD_POSITION);
bool rebuild_color = full_rebuild || mDrawablep->isState(LLDrawable::REBUILD_COLOR);
bool rebuild_tcoord = full_rebuild || mDrawablep->isState(LLDrawable::REBUILD_TCOORD);
bool rebuild_normal = rebuild_pos && mVertexBuffer->hasDataType(LLVertexBuffer::TYPE_NORMAL);
bool rebuild_binormal = rebuild_pos && mVertexBuffer->hasDataType(LLVertexBuffer::TYPE_BINORMAL);
#if MESH_ENABLED
bool rebuild_weights = rebuild_pos && mVertexBuffer->hasDataType(LLVertexBuffer::TYPE_WEIGHT4);
#endif //MESH_ENABLED
const LLTextureEntry *tep = mVObjp->getTE(f);
if (!tep) rebuild_color = FALSE; // can't get color when tep is NULL
U8 bump_code = tep ? tep->getBumpmap() : 0;
BOOL is_static = mDrawablep->isStatic();
BOOL is_global = is_static;
LLVector3 center_sum(0.f, 0.f, 0.f);
if (is_global)
{
setState(GLOBAL);
}
else
{
clearState(GLOBAL);
}
LLColor4U color = (tep ? LLColor4U(tep->getColor()) : LLColor4U::white);
if (rebuild_color) // FALSE if tep == NULL
{
if (tep)
{
GLfloat alpha[4] =
{
0.00f,
0.25f,
0.5f,
0.75f
};
if (getPoolType() != LLDrawPool::POOL_ALPHA && (LLPipeline::sRenderDeferred || (LLPipeline::sRenderBump && tep->getShiny())))
{
color.mV[3] = U8 (alpha[tep->getShiny()] * 255);
}
}
}
// INDICES
if (full_rebuild)
{
mVertexBuffer->getIndexStrider(indicesp, mIndicesIndex);
for (U32 i = 0; i < (U32) num_indices; i++)
{
indicesp[i] = vf.mIndices[i] + index_offset;
}
//mVertexBuffer->setBuffer(0);
}
LLMatrix4a mat_normal;
mat_normal.loadu(mat_norm_in);
//if it's not fullbright and has no normals, bake sunlight based on face normal
//bool bake_sunlight = !getTextureEntry()->getFullbright() &&
// !mVertexBuffer->hasDataType(LLVertexBuffer::TYPE_NORMAL);
F32 r = 0, os = 0, ot = 0, ms = 0, mt = 0, cos_ang = 0, sin_ang = 0;
if (rebuild_tcoord)
{
bool do_xform;
if (tep)
{
r = tep->getRotation();
os = tep->mOffsetS;
ot = tep->mOffsetT;
ms = tep->mScaleS;
mt = tep->mScaleT;
cos_ang = cos(r);
sin_ang = sin(r);
if (cos_ang != 1.f ||
sin_ang != 0.f ||
os != 0.f ||
ot != 0.f ||
ms != 1.f ||
mt != 1.f)
{
do_xform = true;
}
else
{
do_xform = false;
}
}
else
{
do_xform = false;
}
//bump setup
LLVector4a binormal_dir( -sin_ang, cos_ang, 0.f );
LLVector4a bump_s_primary_light_ray(0.f, 0.f, 0.f);
LLVector4a bump_t_primary_light_ray(0.f, 0.f, 0.f);
LLQuaternion bump_quat;
if (mDrawablep->isActive())
{
bump_quat = LLQuaternion(mDrawablep->getRenderMatrix());
}
if (bump_code)
{
mVObjp->getVolume()->genBinormals(f);
F32 offset_multiple;
switch( bump_code )
{
case BE_NO_BUMP:
offset_multiple = 0.f;
break;
case BE_BRIGHTNESS:
case BE_DARKNESS:
if( mTexture.notNull() && mTexture->hasGLTexture())
{
// Offset by approximately one texel
S32 cur_discard = mTexture->getDiscardLevel();
S32 max_size = llmax( mTexture->getWidth(), mTexture->getHeight() );
max_size <<= cur_discard;
const F32 ARTIFICIAL_OFFSET = 2.f;
offset_multiple = ARTIFICIAL_OFFSET / (F32)max_size;
}
else
{
offset_multiple = 1.f/256;
}
break;
default: // Standard bumpmap textures. Assumed to be 256x256
offset_multiple = 1.f / 256;
break;
}
F32 s_scale = 1.f;
F32 t_scale = 1.f;
if( tep )
{
tep->getScale( &s_scale, &t_scale );
}
// Use the nudged south when coming from above sun angle, such
// that emboss mapping always shows up on the upward faces of cubes when
// it's noon (since a lot of builders build with the sun forced to noon).
LLVector3 sun_ray = gSky.mVOSkyp->mBumpSunDir;
LLVector3 moon_ray = gSky.getMoonDirection();
LLVector3& primary_light_ray = (sun_ray.mV[VZ] > 0) ? sun_ray : moon_ray;
bump_s_primary_light_ray.load3((offset_multiple * s_scale * primary_light_ray).mV);
bump_t_primary_light_ray.load3((offset_multiple * t_scale * primary_light_ray).mV);
}
U8 texgen = getTextureEntry()->getTexGen();
if (rebuild_tcoord && texgen != LLTextureEntry::TEX_GEN_DEFAULT)
{ //planar texgen needs binormals
mVObjp->getVolume()->genBinormals(f);
}
U8 tex_mode = 0;
if (isState(TEXTURE_ANIM))
{
LLVOVolume* vobj = (LLVOVolume*) (LLViewerObject*) mVObjp;
tex_mode = vobj->mTexAnimMode;
if (!tex_mode)
{
clearState(TEXTURE_ANIM);
}
else
{
os = ot = 0.f;
r = 0.f;
cos_ang = 1.f;
sin_ang = 0.f;
ms = mt = 1.f;
do_xform = false;
}
if (getVirtualSize() >= MIN_TEX_ANIM_SIZE)
{ //don't override texture transform during tc bake
tex_mode = 0;
}
}
LLVector4a scalea;
scalea.load3(scale.mV);
bool do_bump = bump_code && mVertexBuffer->hasDataType(LLVertexBuffer::TYPE_TEXCOORD1);
bool do_tex_mat = tex_mode && mTextureMatrix;
if (!do_bump)
{ //not in atlas or not bump mapped, might be able to do a cheap update
mVertexBuffer->getTexCoord0Strider(tex_coords, mGeomIndex);
if (texgen != LLTextureEntry::TEX_GEN_PLANAR)
{
if (!do_tex_mat)
{
if (!do_xform)
{
tex_coords.assignArray((U8*) vf.mTexCoords, sizeof(vf.mTexCoords[0]), num_vertices);
}
else
{
for (S32 i = 0; i < num_vertices; i++)
{
LLVector2 tc(vf.mTexCoords[i]);
xform(tc, cos_ang, sin_ang, os, ot, ms, mt);
*tex_coords++ = tc;
}
}
}
else
{ //do tex mat, no texgen, no atlas, no bump
for (S32 i = 0; i < num_vertices; i++)
{
LLVector2 tc(vf.mTexCoords[i]);
//LLVector4a& norm = vf.mNormals[i];
//LLVector4a& center = *(vf.mCenter);
LLVector3 tmp(tc.mV[0], tc.mV[1], 0.f);
tmp = tmp * *mTextureMatrix;
tc.mV[0] = tmp.mV[0];
tc.mV[1] = tmp.mV[1];
*tex_coords++ = tc;
}
}
}
else
{ //no bump, no atlas, tex gen planar
if (do_tex_mat)
{
for (S32 i = 0; i < num_vertices; i++)
{
LLVector2 tc(vf.mTexCoords[i]);
LLVector4a& norm = vf.mNormals[i];
LLVector4a& center = *(vf.mCenter);
LLVector4a vec = vf.mPositions[i];
vec.mul(scalea);
planarProjection(tc, norm, center, vec);
LLVector3 tmp(tc.mV[0], tc.mV[1], 0.f);
tmp = tmp * *mTextureMatrix;
tc.mV[0] = tmp.mV[0];
tc.mV[1] = tmp.mV[1];
*tex_coords++ = tc;
}
}
else
{
for (S32 i = 0; i < num_vertices; i++)
{
LLVector2 tc(vf.mTexCoords[i]);
LLVector4a& norm = vf.mNormals[i];
LLVector4a& center = *(vf.mCenter);
LLVector4a vec = vf.mPositions[i];
vec.mul(scalea);
planarProjection(tc, norm, center, vec);
xform(tc, cos_ang, sin_ang, os, ot, ms, mt);
*tex_coords++ = tc;
}
}
}
//mVertexBuffer->setBuffer(0);
}
else
{ //either bump mapped or in atlas, just do the whole expensive loop
mVertexBuffer->getTexCoord0Strider(tex_coords, mGeomIndex);
std::vector<LLVector2> bump_tc;
for (S32 i = 0; i < num_vertices; i++)
{
LLVector2 tc(vf.mTexCoords[i]);
LLVector4a& norm = vf.mNormals[i];
LLVector4a& center = *(vf.mCenter);
if (texgen != LLTextureEntry::TEX_GEN_DEFAULT)
{
LLVector4a vec = vf.mPositions[i];
vec.mul(scalea);
switch (texgen)
{
case LLTextureEntry::TEX_GEN_PLANAR:
planarProjection(tc, norm, center, vec);
break;
case LLTextureEntry::TEX_GEN_SPHERICAL:
sphericalProjection(tc, norm, center, vec);
break;
case LLTextureEntry::TEX_GEN_CYLINDRICAL:
cylindricalProjection(tc, norm, center, vec);
break;
default:
break;
}
}
if (tex_mode && mTextureMatrix)
{
LLVector3 tmp(tc.mV[0], tc.mV[1], 0.f);
tmp = tmp * *mTextureMatrix;
tc.mV[0] = tmp.mV[0];
tc.mV[1] = tmp.mV[1];
}
else
{
xform(tc, cos_ang, sin_ang, os, ot, ms, mt);
}
*tex_coords++ = tc;
if (do_bump)
{
bump_tc.push_back(tc);
}
}
//mVertexBuffer->setBuffer(0);
if (do_bump)
{
mVertexBuffer->getTexCoord1Strider(tex_coords2, mGeomIndex);
for (S32 i = 0; i < num_vertices; i++)
{
LLVector4a tangent;
tangent.setCross3(vf.mBinormals[i], vf.mNormals[i]);
LLMatrix4a tangent_to_object;
tangent_to_object.setRows(tangent, vf.mBinormals[i], vf.mNormals[i]);
LLVector4a t;
tangent_to_object.rotate(binormal_dir, t);
LLVector4a binormal;
mat_normal.rotate(t, binormal);
//VECTORIZE THIS
if (mDrawablep->isActive())
{
LLVector3 t;
t.set(binormal.getF32ptr());
t *= bump_quat;
binormal.load3(t.mV);
}
binormal.normalize3fast();
LLVector2 tc = bump_tc[i];
tc += LLVector2( bump_s_primary_light_ray.dot3(tangent).getF32(), bump_t_primary_light_ray.dot3(binormal).getF32() );
*tex_coords2++ = tc;
}
//mVertexBuffer->setBuffer(0);
}
}
}
if (rebuild_pos)
{
llassert(num_vertices > 0);
mVertexBuffer->getVertexStrider(vertices, mGeomIndex);
LLMatrix4a mat_vert;
mat_vert.loadu(mat_vert_in);
LLVector4a* src = vf.mPositions;
LLVector4a position;
for (S32 i = 0; i < num_vertices; i++)
{
mat_vert.affineTransform(src[i], position);
vertices[i].set(position.getF32ptr());
}
//mVertexBuffer->setBuffer(0);
}
if (rebuild_normal)
{
mVertexBuffer->getNormalStrider(normals, mGeomIndex);
for (S32 i = 0; i < num_vertices; i++)
{
LLVector4a normal;
mat_normal.rotate(vf.mNormals[i], normal);
normal.normalize3fast();
normals[i].set(normal.getF32ptr());
}
//mVertexBuffer->setBuffer(0);
}
if (rebuild_binormal)
{
mVertexBuffer->getBinormalStrider(binormals, mGeomIndex);
for (S32 i = 0; i < num_vertices; i++)
{
LLVector4a binormal;
mat_normal.rotate(vf.mBinormals[i], binormal);
binormal.normalize3fast();
binormals[i].set(binormal.getF32ptr());
}
//mVertexBuffer->setBuffer(0);
}
#if MESH_ENABLED
if (rebuild_weights && vf.mWeights)
{
mVertexBuffer->getWeight4Strider(weights, mGeomIndex);
weights.assignArray((U8*) vf.mWeights, sizeof(vf.mWeights[0]), num_vertices);
//mVertexBuffer->setBuffer(0);
}
#endif //MESH_ENABLED
if (rebuild_color)
{
mVertexBuffer->getColorStrider(colors, mGeomIndex);
for (S32 i = 0; i < num_vertices; i++)
{
colors[i] = color;
}
//mVertexBuffer->setBuffer(0);
}
if (rebuild_tcoord)
{
mTexExtents[0].setVec(0,0);
mTexExtents[1].setVec(1,1);
xform(mTexExtents[0], cos_ang, sin_ang, os, ot, ms, mt);
xform(mTexExtents[1], cos_ang, sin_ang, os, ot, ms, mt);
F32 es = vf.mTexCoordExtents[1].mV[0] - vf.mTexCoordExtents[0].mV[0] ;
F32 et = vf.mTexCoordExtents[1].mV[1] - vf.mTexCoordExtents[0].mV[1] ;
mTexExtents[0][0] *= es ;
mTexExtents[1][0] *= es ;
mTexExtents[0][1] *= et ;
mTexExtents[1][1] *= et ;
}
mLastVertexBuffer = mVertexBuffer;
mLastGeomCount = mGeomCount;
mLastGeomIndex = mGeomIndex;
mLastIndicesCount = mIndicesCount;
mLastIndicesIndex = mIndicesIndex;
return TRUE;
}
