/* draw a given stroke in 2d */
static void gp_draw_stroke (bGPDspoint *points, int totpoints, short thickness_s, short dflag, short sflag,
short debug, int offsx, int offsy, int winx, int winy)
{
/* otherwise thickness is twice that of the 3D view */
float thickness= (float)thickness_s * 0.5f;
/* if thickness is less than GP_DRAWTHICKNESS_SPECIAL, 'smooth' opengl lines look better
* - 'smooth' opengl lines are also required if Image Editor 'image-based' stroke
*/
if ( (thickness < GP_DRAWTHICKNESS_SPECIAL) ||
((dflag & GP_DRAWDATA_IEDITHACK) && (dflag & GP_DRAWDATA_ONLYV2D)) )
{
bGPDspoint *pt;
int i;
glBegin(GL_LINE_STRIP);
for (i=0, pt=points; i < totpoints && pt; i++, pt++) {
if (sflag & GP_STROKE_2DSPACE) {
glVertex2f(pt->x, pt->y);
}
else if (sflag & GP_STROKE_2DIMAGE) {
const float x= (pt->x * winx) + offsx;
const float y= (pt->y * winy) + offsy;
glVertex2f(x, y);
}
else {
const float x= (pt->x / 100 * winx) + offsx;
const float y= (pt->y / 100 * winy) + offsy;
glVertex2f(x, y);
}
}
glEnd();
}
/* tesselation code - draw stroke as series of connected quads with connection
* edges rotated to minimise shrinking artifacts, and rounded endcaps
*/
else
{
bGPDspoint *pt1, *pt2;
float pm[2];
int i;
glShadeModel(GL_FLAT);
glBegin(GL_QUADS);
for (i=0, pt1=points, pt2=points+1; i < (totpoints-1); i++, pt1++, pt2++) {
float s0[2], s1[2]; /* segment 'center' points */
float t0[2], t1[2]; /* tesselated coordinates */
float m1[2], m2[2]; /* gradient and normal */
float mt[2], sc[2]; /* gradient for thickness, point for end-cap */
float pthick; /* thickness at segment point */
/* get x and y coordinates from points */
if (sflag & GP_STROKE_2DSPACE) {
s0[0]= pt1->x; s0[1]= pt1->y;
s1[0]= pt2->x; s1[1]= pt2->y;
}
else if (sflag & GP_STROKE_2DIMAGE) {
s0[0]= (pt1->x * winx) + offsx;
s0[1]= (pt1->y * winy) + offsy;
s1[0]= (pt2->x * winx) + offsx;
s1[1]= (pt2->y * winy) + offsy;
}
else {
s0[0]= (pt1->x / 100 * winx) + offsx;
s0[1]= (pt1->y / 100 * winy) + offsy;
s1[0]= (pt2->x / 100 * winx) + offsx;
s1[1]= (pt2->y / 100 * winy) + offsy;
}
/* calculate gradient and normal - 'angle'=(ny/nx) */
m1[1]= s1[1] - s0[1];
m1[0]= s1[0] - s0[0];
normalize_v2(m1);
m2[1]= -m1[0];
m2[0]= m1[1];
/* always use pressure from first point here */
pthick= (pt1->pressure * thickness);
/* if the first segment, start of segment is segment's normal */
if (i == 0) {
/* draw start cap first
* - make points slightly closer to center (about halfway across)
*/
mt[0]= m2[0] * pthick * 0.5f;
mt[1]= m2[1] * pthick * 0.5f;
sc[0]= s0[0] - (m1[0] * pthick * 0.75f);
sc[1]= s0[1] - (m1[1] * pthick * 0.75f);
t0[0]= sc[0] - mt[0];
t0[1]= sc[1] - mt[1];
t1[0]= sc[0] + mt[0];
t1[1]= sc[1] + mt[1];
glVertex2fv(t0);
glVertex2fv(t1);
/* calculate points for start of segment */
mt[0]= m2[0] * pthick;
mt[1]= m2[1] * pthick;
t0[0]= s0[0] - mt[0];
t0[1]= s0[1] - mt[1];
t1[0]= s0[0] + mt[0];
t1[1]= s0[1] + mt[1];
/* draw this line twice (first to finish off start cap, then for stroke) */
glVertex2fv(t1);
glVertex2fv(t0);
glVertex2fv(t0);
glVertex2fv(t1);
}
/* if not the first segment, use bisector of angle between segments */
else {
float mb[2]; /* bisector normal */
float athick, dfac; /* actual thickness, difference between thicknesses */
/* calculate gradient of bisector (as average of normals) */
mb[0]= (pm[0] + m2[0]) / 2;
mb[1]= (pm[1] + m2[1]) / 2;
normalize_v2(mb);
/* calculate gradient to apply
* - as basis, use just pthick * bisector gradient
* - if cross-section not as thick as it should be, add extra padding to fix it
*/
mt[0]= mb[0] * pthick;
mt[1]= mb[1] * pthick;
athick= len_v2(mt);
dfac= pthick - (athick * 2);
if ( ((athick * 2.0f) < pthick) && (IS_EQF(athick, pthick)==0) )
{
mt[0] += (mb[0] * dfac);
mt[1] += (mb[1] * dfac);
}
/* calculate points for start of segment */
t0[0]= s0[0] - mt[0];
t0[1]= s0[1] - mt[1];
t1[0]= s0[0] + mt[0];
t1[1]= s0[1] + mt[1];
/* draw this line twice (once for end of current segment, and once for start of next) */
glVertex2fv(t1);
glVertex2fv(t0);
glVertex2fv(t0);
glVertex2fv(t1);
}
/* if last segment, also draw end of segment (defined as segment's normal) */
if (i == totpoints-2) {
/* for once, we use second point's pressure (otherwise it won't be drawn) */
pthick= (pt2->pressure * thickness);
/* calculate points for end of segment */
mt[0]= m2[0] * pthick;
mt[1]= m2[1] * pthick;
t0[0]= s1[0] - mt[0];
t0[1]= s1[1] - mt[1];
t1[0]= s1[0] + mt[0];
t1[1]= s1[1] + mt[1];
/* draw this line twice (once for end of stroke, and once for endcap)*/
glVertex2fv(t1);
glVertex2fv(t0);
glVertex2fv(t0);
glVertex2fv(t1);
/* draw end cap as last step
* - make points slightly closer to center (about halfway across)
*/
mt[0]= m2[0] * pthick * 0.5f;
mt[1]= m2[1] * pthick * 0.5f;
sc[0]= s1[0] + (m1[0] * pthick * 0.75f);
sc[1]= s1[1] + (m1[1] * pthick * 0.75f);
t0[0]= sc[0] - mt[0];
t0[1]= sc[1] - mt[1];
t1[0]= sc[0] + mt[0];
t1[1]= sc[1] + mt[1];
glVertex2fv(t1);
glVertex2fv(t0);
}
/* store stroke's 'natural' normal for next stroke to use */
copy_v2_v2(pm, m2);
}
glEnd();
}
/* draw debug points of curve on top? (original stroke points) */
if (debug) {
bGPDspoint *pt;
int i;
glBegin(GL_POINTS);
for (i=0, pt=points; i < totpoints && pt; i++, pt++) {
if (sflag & GP_STROKE_2DSPACE) {
glVertex2fv(&pt->x);
}
else if (sflag & GP_STROKE_2DIMAGE) {
const float x= (float)((pt->x * winx) + offsx);
const float y= (float)((pt->y * winy) + offsy);
glVertex2f(x, y);
}
else {
const float x= (float)(pt->x / 100 * winx) + offsx;
const float y= (float)(pt->y / 100 * winy) + offsy;
glVertex2f(x, y);
}
}
glEnd();
}
}
static void setup_vertex_point(Mask *mask, MaskSpline *spline, MaskSplinePoint *new_point,
const float point_co[2], const float tangent[2], const float u,
MaskSplinePoint *reference_point, const short reference_adjacent,
const float view_zoom)
{
MaskSplinePoint *prev_point = NULL;
MaskSplinePoint *next_point = NULL;
BezTriple *bezt;
float co[3];
const float len = 10.0; /* default length of handle in pixel space */
copy_v2_v2(co, point_co);
co[2] = 0.0f;
/* point coordinate */
bezt = &new_point->bezt;
bezt->h1 = bezt->h2 = HD_ALIGN;
if (reference_point) {
bezt->h1 = bezt->h2 = MAX2(reference_point->bezt.h2, reference_point->bezt.h1);
}
else if (reference_adjacent) {
if (spline->tot_point != 1) {
int index = (int)(new_point - spline->points);
prev_point = &spline->points[(index - 1) % spline->tot_point];
next_point = &spline->points[(index + 1) % spline->tot_point];
bezt->h1 = bezt->h2 = MAX2(prev_point->bezt.h2, next_point->bezt.h1);
/* note, we may want to copy other attributes later, radius? pressure? color? */
}
}
copy_v3_v3(bezt->vec[0], co);
copy_v3_v3(bezt->vec[1], co);
copy_v3_v3(bezt->vec[2], co);
/* initial offset for handles */
if (spline->tot_point == 1) {
/* first point of splien is aligned horizontally */
bezt->vec[0][0] -= len * view_zoom;
bezt->vec[2][0] += len * view_zoom;
}
else if (tangent) {
float vec[2];
copy_v2_v2(vec, tangent);
mul_v2_fl(vec, len);
sub_v2_v2(bezt->vec[0], vec);
add_v2_v2(bezt->vec[2], vec);
if (reference_adjacent) {
BKE_mask_calc_handle_adjacent_interp(spline, new_point, u);
}
}
else {
/* calculating auto handles works much nicer */
#if 0
/* next points are aligning in the direction of previous/next point */
MaskSplinePoint *point;
float v1[2], v2[2], vec[2];
float dir = 1.0f;
if (new_point == spline->points) {
point = new_point + 1;
dir = -1.0f;
}
else
point = new_point - 1;
if (spline->tot_point < 3) {
v1[0] = point->bezt.vec[1][0] * width;
v1[1] = point->bezt.vec[1][1] * height;
v2[0] = new_point->bezt.vec[1][0] * width;
v2[1] = new_point->bezt.vec[1][1] * height;
}
else {
if (new_point == spline->points) {
v1[0] = spline->points[1].bezt.vec[1][0] * width;
v1[1] = spline->points[1].bezt.vec[1][1] * height;
v2[0] = spline->points[spline->tot_point - 1].bezt.vec[1][0] * width;
v2[1] = spline->points[spline->tot_point - 1].bezt.vec[1][1] * height;
}
else {
v1[0] = spline->points[0].bezt.vec[1][0] * width;
v1[1] = spline->points[0].bezt.vec[1][1] * height;
v2[0] = spline->points[spline->tot_point - 2].bezt.vec[1][0] * width;
v2[1] = spline->points[spline->tot_point - 2].bezt.vec[1][1] * height;
}
}
sub_v2_v2v2(vec, v1, v2);
mul_v2_fl(vec, len * dir / len_v2(vec));
vec[0] /= width;
vec[1] /= height;
add_v2_v2(bezt->vec[0], vec);
sub_v2_v2(bezt->vec[2], vec);
#else
BKE_mask_calc_handle_point_auto(spline, new_point, TRUE);
BKE_mask_calc_handle_adjacent_interp(spline, new_point, u);
#endif
}
BKE_mask_parent_init(&new_point->parent);
/* select new point */
MASKPOINT_SEL_ALL(new_point);
ED_mask_select_flush_all(mask);
}
/* tries to realize the wanted velocity taking all constraints into account */
void boid_body(BoidBrainData *bbd, ParticleData *pa)
{
BoidSettings *boids = bbd->part->boids;
BoidParticle *bpa = pa->boid;
BoidValues val;
EffectedPoint epoint;
float acc[3] = {0.0f, 0.0f, 0.0f}, tan_acc[3], nor_acc[3];
float dvec[3], bvec[3];
float new_dir[3], new_speed;
float old_dir[3], old_speed;
float wanted_dir[3];
float q[4], mat[3][3]; /* rotation */
float ground_co[3] = {0.0f, 0.0f, 0.0f}, ground_nor[3] = {0.0f, 0.0f, 1.0f};
float force[3] = {0.0f, 0.0f, 0.0f};
float pa_mass=bbd->part->mass, dtime=bbd->dfra*bbd->timestep;
set_boid_values(&val, boids, pa);
/* make sure there's something in new velocity, location & rotation */
copy_particle_key(&pa->state,&pa->prev_state,0);
if(bbd->part->flag & PART_SIZEMASS)
pa_mass*=pa->size;
/* if boids can't fly they fall to the ground */
if((boids->options & BOID_ALLOW_FLIGHT)==0 && ELEM(bpa->data.mode, eBoidMode_OnLand, eBoidMode_Climbing)==0 && psys_uses_gravity(bbd->sim))
bpa->data.mode = eBoidMode_Falling;
if(bpa->data.mode == eBoidMode_Falling) {
/* Falling boids are only effected by gravity. */
acc[2] = bbd->sim->scene->physics_settings.gravity[2];
}
else {
/* figure out acceleration */
float landing_level = 2.0f;
float level = landing_level + 1.0f;
float new_vel[3];
if(bpa->data.mode == eBoidMode_Liftoff) {
bpa->data.mode = eBoidMode_InAir;
bpa->ground = boid_find_ground(bbd, pa, ground_co, ground_nor);
}
else if(bpa->data.mode == eBoidMode_InAir && boids->options & BOID_ALLOW_LAND) {
/* auto-leveling & landing if close to ground */
bpa->ground = boid_find_ground(bbd, pa, ground_co, ground_nor);
/* level = how many particle sizes above ground */
level = (pa->prev_state.co[2] - ground_co[2])/(2.0f * pa->size) - 0.5f;
landing_level = - boids->landing_smoothness * pa->prev_state.vel[2] * pa_mass;
if(pa->prev_state.vel[2] < 0.0f) {
if(level < 1.0f) {
bbd->wanted_co[0] = bbd->wanted_co[1] = bbd->wanted_co[2] = 0.0f;
bbd->wanted_speed = 0.0f;
bpa->data.mode = eBoidMode_Falling;
}
else if(level < landing_level) {
bbd->wanted_speed *= (level - 1.0f)/landing_level;
bbd->wanted_co[2] *= (level - 1.0f)/landing_level;
}
}
}
copy_v3_v3(old_dir, pa->prev_state.ave);
new_speed = normalize_v3_v3(wanted_dir, bbd->wanted_co);
/* first check if we have valid direction we want to go towards */
if(new_speed == 0.0f) {
copy_v3_v3(new_dir, old_dir);
}
else {
float old_dir2[2], wanted_dir2[2], nor[3], angle;
copy_v2_v2(old_dir2, old_dir);
normalize_v2(old_dir2);
copy_v2_v2(wanted_dir2, wanted_dir);
normalize_v2(wanted_dir2);
/* choose random direction to turn if wanted velocity */
/* is directly behind regardless of z-coordinate */
if(dot_v2v2(old_dir2, wanted_dir2) < -0.99f) {
wanted_dir[0] = 2.0f*(0.5f - BLI_frand());
wanted_dir[1] = 2.0f*(0.5f - BLI_frand());
wanted_dir[2] = 2.0f*(0.5f - BLI_frand());
normalize_v3(wanted_dir);
}
/* constrain direction with maximum angular velocity */
angle = saacos(dot_v3v3(old_dir, wanted_dir));
angle = MIN2(angle, val.max_ave);
cross_v3_v3v3(nor, old_dir, wanted_dir);
axis_angle_to_quat( q,nor, angle);
copy_v3_v3(new_dir, old_dir);
mul_qt_v3(q, new_dir);
normalize_v3(new_dir);
/* save direction in case resulting velocity too small */
axis_angle_to_quat( q,nor, angle*dtime);
copy_v3_v3(pa->state.ave, old_dir);
mul_qt_v3(q, pa->state.ave);
normalize_v3(pa->state.ave);
}
/* constrain speed with maximum acceleration */
old_speed = len_v3(pa->prev_state.vel);
if(bbd->wanted_speed < old_speed)
new_speed = MAX2(bbd->wanted_speed, old_speed - val.max_acc);
else
new_speed = MIN2(bbd->wanted_speed, old_speed + val.max_acc);
/* combine direction and speed */
copy_v3_v3(new_vel, new_dir);
mul_v3_fl(new_vel, new_speed);
/* maintain minimum flying velocity if not landing */
if(level >= landing_level) {
float len2 = dot_v2v2(new_vel,new_vel);
float root;
len2 = MAX2(len2, val.min_speed*val.min_speed);
root = sasqrt(new_speed*new_speed - len2);
new_vel[2] = new_vel[2] < 0.0f ? -root : root;
normalize_v2(new_vel);
mul_v2_fl(new_vel, sasqrt(len2));
}
/* finally constrain speed to max speed */
new_speed = normalize_v3(new_vel);
mul_v3_fl(new_vel, MIN2(new_speed, val.max_speed));
/* get acceleration from difference of velocities */
sub_v3_v3v3(acc, new_vel, pa->prev_state.vel);
/* break acceleration to components */
project_v3_v3v3(tan_acc, acc, pa->prev_state.ave);
sub_v3_v3v3(nor_acc, acc, tan_acc);
}
/* account for effectors */
pd_point_from_particle(bbd->sim, pa, &pa->state, &epoint);
pdDoEffectors(bbd->sim->psys->effectors, bbd->sim->colliders, bbd->part->effector_weights, &epoint, force, NULL);
if(ELEM(bpa->data.mode, eBoidMode_OnLand, eBoidMode_Climbing)) {
float length = normalize_v3(force);
length = MAX2(0.0f, length - boids->land_stick_force);
mul_v3_fl(force, length);
}
add_v3_v3(acc, force);
/* store smoothed acceleration for nice banking etc. */
madd_v3_v3fl(bpa->data.acc, acc, dtime);
mul_v3_fl(bpa->data.acc, 1.0f / (1.0f + dtime));
/* integrate new location & velocity */
/* by regarding the acceleration as a force at this stage we*/
/* can get better control allthough it's a bit unphysical */
mul_v3_fl(acc, 1.0f/pa_mass);
copy_v3_v3(dvec, acc);
mul_v3_fl(dvec, dtime*dtime*0.5f);
copy_v3_v3(bvec, pa->prev_state.vel);
mul_v3_fl(bvec, dtime);
add_v3_v3(dvec, bvec);
add_v3_v3(pa->state.co, dvec);
madd_v3_v3fl(pa->state.vel, acc, dtime);
//if(bpa->data.mode != eBoidMode_InAir)
bpa->ground = boid_find_ground(bbd, pa, ground_co, ground_nor);
/* change modes, constrain movement & keep track of down vector */
switch(bpa->data.mode) {
case eBoidMode_InAir:
{
float grav[3];
grav[0]= 0.0f;
grav[1]= 0.0f;
grav[2]= bbd->sim->scene->physics_settings.gravity[2] < 0.0f ? -1.0f : 0.0f;
/* don't take forward acceleration into account (better banking) */
if(dot_v3v3(bpa->data.acc, pa->state.vel) > 0.0f) {
project_v3_v3v3(dvec, bpa->data.acc, pa->state.vel);
sub_v3_v3v3(dvec, bpa->data.acc, dvec);
}
else {
copy_v3_v3(dvec, bpa->data.acc);
}
/* gather apparent gravity */
madd_v3_v3v3fl(bpa->gravity, grav, dvec, -boids->banking);
normalize_v3(bpa->gravity);
/* stick boid on goal when close enough */
if(bbd->goal_ob && boid_goal_signed_dist(pa->state.co, bbd->goal_co, bbd->goal_nor) <= pa->size * boids->height) {
bpa->data.mode = eBoidMode_Climbing;
bpa->ground = bbd->goal_ob;
boid_find_ground(bbd, pa, ground_co, ground_nor);
boid_climb(boids, pa, ground_co, ground_nor);
}
else if(pa->state.co[2] <= ground_co[2] + pa->size * boids->height) {
/* land boid when below ground */
if(boids->options & BOID_ALLOW_LAND) {
pa->state.co[2] = ground_co[2] + pa->size * boids->height;
pa->state.vel[2] = 0.0f;
bpa->data.mode = eBoidMode_OnLand;
}
/* fly above ground */
else if(bpa->ground) {
pa->state.co[2] = ground_co[2] + pa->size * boids->height;
pa->state.vel[2] = 0.0f;
}
}
break;
}
case eBoidMode_Falling:
{
float grav[3];
grav[0]= 0.0f;
grav[1]= 0.0f;
grav[2]= bbd->sim->scene->physics_settings.gravity[2] < 0.0f ? -1.0f : 0.0f;
/* gather apparent gravity */
madd_v3_v3fl(bpa->gravity, grav, dtime);
normalize_v3(bpa->gravity);
if(boids->options & BOID_ALLOW_LAND) {
/* stick boid on goal when close enough */
if(bbd->goal_ob && boid_goal_signed_dist(pa->state.co, bbd->goal_co, bbd->goal_nor) <= pa->size * boids->height) {
bpa->data.mode = eBoidMode_Climbing;
bpa->ground = bbd->goal_ob;
boid_find_ground(bbd, pa, ground_co, ground_nor);
boid_climb(boids, pa, ground_co, ground_nor);
}
/* land boid when really near ground */
else if(pa->state.co[2] <= ground_co[2] + 1.01f * pa->size * boids->height){
pa->state.co[2] = ground_co[2] + pa->size * boids->height;
pa->state.vel[2] = 0.0f;
bpa->data.mode = eBoidMode_OnLand;
}
/* if we're falling, can fly and want to go upwards lets fly */
else if(boids->options & BOID_ALLOW_FLIGHT && bbd->wanted_co[2] > 0.0f)
bpa->data.mode = eBoidMode_InAir;
}
else
bpa->data.mode = eBoidMode_InAir;
break;
}
case eBoidMode_Climbing:
{
boid_climb(boids, pa, ground_co, ground_nor);
//float nor[3];
//copy_v3_v3(nor, ground_nor);
///* gather apparent gravity to r_ve */
//madd_v3_v3fl(pa->r_ve, ground_nor, -1.0);
//normalize_v3(pa->r_ve);
///* raise boid it's size from surface */
//mul_v3_fl(nor, pa->size * boids->height);
//add_v3_v3v3(pa->state.co, ground_co, nor);
///* remove normal component from velocity */
//project_v3_v3v3(v, pa->state.vel, ground_nor);
//sub_v3_v3v3(pa->state.vel, pa->state.vel, v);
break;
}
case eBoidMode_OnLand:
{
/* stick boid on goal when close enough */
if(bbd->goal_ob && boid_goal_signed_dist(pa->state.co, bbd->goal_co, bbd->goal_nor) <= pa->size * boids->height) {
bpa->data.mode = eBoidMode_Climbing;
bpa->ground = bbd->goal_ob;
boid_find_ground(bbd, pa, ground_co, ground_nor);
boid_climb(boids, pa, ground_co, ground_nor);
}
/* ground is too far away so boid falls */
else if(pa->state.co[2]-ground_co[2] > 1.1f * pa->size * boids->height)
bpa->data.mode = eBoidMode_Falling;
else {
/* constrain to surface */
pa->state.co[2] = ground_co[2] + pa->size * boids->height;
pa->state.vel[2] = 0.0f;
}
if(boids->banking > 0.0f) {
float grav[3];
/* Don't take gravity's strength in to account, */
/* otherwise amount of banking is hard to control. */
negate_v3_v3(grav, ground_nor);
project_v3_v3v3(dvec, bpa->data.acc, pa->state.vel);
sub_v3_v3v3(dvec, bpa->data.acc, dvec);
/* gather apparent gravity */
madd_v3_v3v3fl(bpa->gravity, grav, dvec, -boids->banking);
normalize_v3(bpa->gravity);
}
else {
/* gather negative surface normal */
madd_v3_v3fl(bpa->gravity, ground_nor, -1.0f);
normalize_v3(bpa->gravity);
}
break;
}
}
/* save direction to state.ave unless the boid is falling */
/* (boids can't effect their direction when falling) */
if(bpa->data.mode!=eBoidMode_Falling && len_v3(pa->state.vel) > 0.1f*pa->size) {
copy_v3_v3(pa->state.ave, pa->state.vel);
pa->state.ave[2] *= bbd->part->boids->pitch;
normalize_v3(pa->state.ave);
}
/* apply damping */
if(ELEM(bpa->data.mode, eBoidMode_OnLand, eBoidMode_Climbing))
mul_v3_fl(pa->state.vel, 1.0f - 0.2f*bbd->part->dampfac);
/* calculate rotation matrix based on forward & down vectors */
if(bpa->data.mode == eBoidMode_InAir) {
copy_v3_v3(mat[0], pa->state.ave);
project_v3_v3v3(dvec, bpa->gravity, pa->state.ave);
sub_v3_v3v3(mat[2], bpa->gravity, dvec);
normalize_v3(mat[2]);
}
else {
project_v3_v3v3(dvec, pa->state.ave, bpa->gravity);
sub_v3_v3v3(mat[0], pa->state.ave, dvec);
normalize_v3(mat[0]);
copy_v3_v3(mat[2], bpa->gravity);
}
negate_v3(mat[2]);
cross_v3_v3v3(mat[1], mat[2], mat[0]);
/* apply rotation */
mat3_to_quat_is_ok( q,mat);
copy_qt_qt(pa->state.rot, q);
}
UvVertMap *BKE_mesh_uv_vert_map_create(
struct MPoly *mpoly, struct MLoop *mloop, struct MLoopUV *mloopuv,
unsigned int totpoly, unsigned int totvert,
const float limit[2], const bool selected, const bool use_winding)
{
UvVertMap *vmap;
UvMapVert *buf;
MPoly *mp;
unsigned int a;
int i, totuv, nverts;
bool *winding;
BLI_buffer_declare_static(vec2f, tf_uv_buf, BLI_BUFFER_NOP, 32);
totuv = 0;
/* generate UvMapVert array */
mp = mpoly;
for (a = 0; a < totpoly; a++, mp++)
if (!selected || (!(mp->flag & ME_HIDE) && (mp->flag & ME_FACE_SEL)))
totuv += mp->totloop;
if (totuv == 0)
return NULL;
vmap = (UvVertMap *)MEM_callocN(sizeof(*vmap), "UvVertMap");
buf = vmap->buf = (UvMapVert *)MEM_callocN(sizeof(*vmap->buf) * (size_t)totuv, "UvMapVert");
vmap->vert = (UvMapVert **)MEM_callocN(sizeof(*vmap->vert) * totvert, "UvMapVert*");
if (use_winding) {
winding = MEM_callocN(sizeof(*winding) * totpoly, "winding");
}
if (!vmap->vert || !vmap->buf) {
BKE_mesh_uv_vert_map_free(vmap);
return NULL;
}
mp = mpoly;
for (a = 0; a < totpoly; a++, mp++) {
if (!selected || (!(mp->flag & ME_HIDE) && (mp->flag & ME_FACE_SEL))) {
float (*tf_uv)[2];
if (use_winding) {
tf_uv = (float (*)[2])BLI_buffer_resize_data(&tf_uv_buf, vec2f, mp->totloop);
}
nverts = mp->totloop;
for (i = 0; i < nverts; i++) {
buf->tfindex = (unsigned char)i;
buf->f = a;
buf->separate = 0;
buf->next = vmap->vert[mloop[mp->loopstart + i].v];
vmap->vert[mloop[mp->loopstart + i].v] = buf;
if (use_winding) {
copy_v2_v2(tf_uv[i], mloopuv[mpoly[a].loopstart + i].uv);
}
buf++;
}
if (use_winding) {
winding[a] = cross_poly_v2((const float (*)[2])tf_uv, (unsigned int)nverts) > 0;
}
}
}
/* sort individual uvs for each vert */
for (a = 0; a < totvert; a++) {
UvMapVert *newvlist = NULL, *vlist = vmap->vert[a];
UvMapVert *iterv, *v, *lastv, *next;
float *uv, *uv2, uvdiff[2];
while (vlist) {
v = vlist;
vlist = vlist->next;
v->next = newvlist;
newvlist = v;
uv = mloopuv[mpoly[v->f].loopstart + v->tfindex].uv;
lastv = NULL;
iterv = vlist;
while (iterv) {
next = iterv->next;
uv2 = mloopuv[mpoly[iterv->f].loopstart + iterv->tfindex].uv;
sub_v2_v2v2(uvdiff, uv2, uv);
if (fabsf(uv[0] - uv2[0]) < limit[0] && fabsf(uv[1] - uv2[1]) < limit[1] &&
(!use_winding || winding[iterv->f] == winding[v->f]))
{
if (lastv) lastv->next = next;
else vlist = next;
iterv->next = newvlist;
newvlist = iterv;
}
else
lastv = iterv;
iterv = next;
}
newvlist->separate = 1;
}
vmap->vert[a] = newvlist;
}
if (use_winding) {
MEM_freeN(winding);
}
BLI_buffer_free(&tf_uv_buf);
return vmap;
}
static void draw_mesh_text(Scene *scene, Object *ob, int glsl)
{
Mesh *me = ob->data;
DerivedMesh *ddm;
MPoly *mp, *mface = me->mpoly;
MTexPoly *mtpoly = me->mtpoly;
MLoopUV *mloopuv = me->mloopuv;
MLoopUV *luv;
MLoopCol *mloopcol = me->mloopcol; /* why does mcol exist? */
MLoopCol *lcol;
bProperty *prop = BKE_bproperty_object_get(ob, "Text");
GPUVertexAttribs gattribs;
int a, totpoly = me->totpoly;
/* fake values to pass to GPU_render_text() */
MCol tmp_mcol[4] = {{0}};
MCol *tmp_mcol_pt = mloopcol ? tmp_mcol : NULL;
MTFace tmp_tf = {{{0}}};
/* don't draw without tfaces */
if (!mtpoly || !mloopuv)
return;
/* don't draw when editing */
if (ob->mode & OB_MODE_EDIT)
return;
else if (ob == OBACT)
if (paint_facesel_test(ob) || paint_vertsel_test(ob))
return;
ddm = mesh_get_derived_deform(scene, ob, CD_MASK_BAREMESH);
for (a = 0, mp = mface; a < totpoly; a++, mtpoly++, mp++) {
short matnr = mp->mat_nr;
int mf_smooth = mp->flag & ME_SMOOTH;
Material *mat = (me->mat) ? me->mat[matnr] : NULL;
int mode = mat ? mat->game.flag : GEMAT_INVISIBLE;
if (!(mode & GEMAT_INVISIBLE) && (mode & GEMAT_TEXT) && mp->totloop >= 3) {
/* get the polygon as a tri/quad */
int mp_vi[4];
float v1[3], v2[3], v3[3], v4[3];
char string[MAX_PROPSTRING];
int characters, i, glattrib = -1, badtex = 0;
/* TEXFACE */
ME_MTEXFACE_CPY(&tmp_tf, mtpoly);
if (glsl) {
GPU_enable_material(matnr + 1, &gattribs);
for (i = 0; i < gattribs.totlayer; i++) {
if (gattribs.layer[i].type == CD_MTFACE) {
glattrib = gattribs.layer[i].glindex;
break;
}
}
}
else {
badtex = set_draw_settings_cached(0, &tmp_tf, mat, Gtexdraw);
if (badtex) {
continue;
}
}
mp_vi[0] = me->mloop[mp->loopstart + 0].v;
mp_vi[1] = me->mloop[mp->loopstart + 1].v;
mp_vi[2] = me->mloop[mp->loopstart + 2].v;
mp_vi[3] = (mp->totloop >= 4) ? me->mloop[mp->loopstart + 3].v : 0;
/* UV */
luv = &mloopuv[mp->loopstart];
copy_v2_v2(tmp_tf.uv[0], luv->uv); luv++;
copy_v2_v2(tmp_tf.uv[1], luv->uv); luv++;
copy_v2_v2(tmp_tf.uv[2], luv->uv); luv++;
if (mp->totloop >= 4) {
copy_v2_v2(tmp_tf.uv[3], luv->uv);
}
/* COLOR */
if (mloopcol) {
unsigned int totloop_clamp = min_ii(4, mp->totloop);
unsigned int j;
lcol = &mloopcol[mp->loopstart];
for (j = 0; j < totloop_clamp; j++, lcol++) {
MESH_MLOOPCOL_TO_MCOL(lcol, &tmp_mcol[j]);
}
}
/* LOCATION */
ddm->getVertCo(ddm, mp_vi[0], v1);
ddm->getVertCo(ddm, mp_vi[1], v2);
ddm->getVertCo(ddm, mp_vi[2], v3);
if (mp->totloop >= 4) {
ddm->getVertCo(ddm, mp_vi[3], v4);
}
/* The BM_FONT handling is in the gpu module, shared with the
* game engine, was duplicated previously */
BKE_bproperty_set_valstr(prop, string);
characters = strlen(string);
if (!BKE_image_has_ibuf(mtpoly->tpage, NULL))
characters = 0;
if (!mf_smooth) {
float nor[3];
normal_tri_v3(nor, v1, v2, v3);
glNormal3fv(nor);
}
GPU_render_text(&tmp_tf, mode, string, characters,
(unsigned int *)tmp_mcol_pt, v1, v2, v3, (mp->totloop >= 4 ? v4 : NULL), glattrib);
}
}
ddm->release(ddm);
}
/* Draw all kind of tracks. */
static void draw_tracking_tracks(SpaceClip *sc, Scene *scene, ARegion *ar, MovieClip *clip,
int width, int height, float zoomx, float zoomy)
{
float x, y;
MovieTracking *tracking = &clip->tracking;
ListBase *tracksbase = BKE_tracking_get_active_tracks(tracking);
ListBase *plane_tracks_base = BKE_tracking_get_active_plane_tracks(tracking);
MovieTrackingTrack *track, *act_track;
MovieTrackingPlaneTrack *plane_track, *active_plane_track;
MovieTrackingMarker *marker;
int framenr = ED_space_clip_get_clip_frame_number(sc);
int undistort = sc->user.render_flag & MCLIP_PROXY_RENDER_UNDISTORT;
float *marker_pos = NULL, *fp, *active_pos = NULL, cur_pos[2];
/* ** find window pixel coordinates of origin ** */
/* UI_view2d_view_to_region_no_clip return integer values, this could
* lead to 1px flickering when view is locked to selection during playback.
* to avoid this flickering, calculate base point in the same way as it happens
* in UI_view2d_view_to_region_no_clip, but do it in floats here */
UI_view2d_view_to_region_fl(&ar->v2d, 0.0f, 0.0f, &x, &y);
glPushMatrix();
glTranslatef(x, y, 0);
glPushMatrix();
glScalef(zoomx, zoomy, 0);
glMultMatrixf(sc->stabmat);
glScalef(width, height, 0);
act_track = BKE_tracking_track_get_active(tracking);
/* Draw plane tracks */
active_plane_track = BKE_tracking_plane_track_get_active(tracking);
for (plane_track = plane_tracks_base->first;
plane_track;
plane_track = plane_track->next)
{
if ((plane_track->flag & PLANE_TRACK_HIDDEN) == 0) {
draw_plane_track(sc, scene, plane_track, framenr, plane_track == active_plane_track, width, height);
}
}
if (sc->user.render_flag & MCLIP_PROXY_RENDER_UNDISTORT) {
int count = 0;
/* count */
track = tracksbase->first;
while (track) {
if ((track->flag & TRACK_HIDDEN) == 0) {
marker = BKE_tracking_marker_get(track, framenr);
if (MARKER_VISIBLE(sc, track, marker))
count++;
}
track = track->next;
}
/* undistort */
if (count) {
marker_pos = MEM_callocN(2 * sizeof(float) * count, "draw_tracking_tracks marker_pos");
track = tracksbase->first;
fp = marker_pos;
while (track) {
if ((track->flag & TRACK_HIDDEN) == 0) {
marker = BKE_tracking_marker_get(track, framenr);
if (MARKER_VISIBLE(sc, track, marker)) {
ED_clip_point_undistorted_pos(sc, marker->pos, fp);
if (track == act_track)
active_pos = fp;
fp += 2;
}
}
track = track->next;
}
}
}
if (sc->flag & SC_SHOW_TRACK_PATH) {
track = tracksbase->first;
while (track) {
if ((track->flag & TRACK_HIDDEN) == 0)
draw_track_path(sc, clip, track);
track = track->next;
}
}
/* markers outline and non-selected areas */
track = tracksbase->first;
fp = marker_pos;
while (track) {
if ((track->flag & TRACK_HIDDEN) == 0) {
marker = BKE_tracking_marker_get(track, framenr);
if (MARKER_VISIBLE(sc, track, marker)) {
copy_v2_v2(cur_pos, fp ? fp : marker->pos);
draw_marker_outline(sc, track, marker, cur_pos, width, height);
draw_marker_areas(sc, track, marker, cur_pos, width, height, 0, 0);
draw_marker_slide_zones(sc, track, marker, cur_pos, 1, 0, 0, width, height);
draw_marker_slide_zones(sc, track, marker, cur_pos, 0, 0, 0, width, height);
if (fp)
fp += 2;
}
}
track = track->next;
}
/* selected areas only, so selection wouldn't be overlapped by
* non-selected areas */
track = tracksbase->first;
fp = marker_pos;
while (track) {
if ((track->flag & TRACK_HIDDEN) == 0) {
int act = track == act_track;
marker = BKE_tracking_marker_get(track, framenr);
if (MARKER_VISIBLE(sc, track, marker)) {
if (!act) {
copy_v2_v2(cur_pos, fp ? fp : marker->pos);
draw_marker_areas(sc, track, marker, cur_pos, width, height, 0, 1);
draw_marker_slide_zones(sc, track, marker, cur_pos, 0, 1, 0, width, height);
}
if (fp)
fp += 2;
}
}
track = track->next;
}
/* active marker would be displayed on top of everything else */
if (act_track) {
if ((act_track->flag & TRACK_HIDDEN) == 0) {
marker = BKE_tracking_marker_get(act_track, framenr);
if (MARKER_VISIBLE(sc, act_track, marker)) {
copy_v2_v2(cur_pos, active_pos ? active_pos : marker->pos);
draw_marker_areas(sc, act_track, marker, cur_pos, width, height, 1, 1);
draw_marker_slide_zones(sc, act_track, marker, cur_pos, 0, 1, 1, width, height);
}
}
}
if (sc->flag & SC_SHOW_BUNDLES) {
MovieTrackingObject *object = BKE_tracking_object_get_active(tracking);
float pos[4], vec[4], mat[4][4], aspy;
glEnable(GL_POINT_SMOOTH);
glPointSize(3.0f);
aspy = 1.0f / clip->tracking.camera.pixel_aspect;
BKE_tracking_get_projection_matrix(tracking, object, framenr, width, height, mat);
track = tracksbase->first;
while (track) {
if ((track->flag & TRACK_HIDDEN) == 0 && track->flag & TRACK_HAS_BUNDLE) {
marker = BKE_tracking_marker_get(track, framenr);
if (MARKER_VISIBLE(sc, track, marker)) {
float npos[2];
copy_v3_v3(vec, track->bundle_pos);
vec[3] = 1;
mul_v4_m4v4(pos, mat, vec);
pos[0] = (pos[0] / (pos[3] * 2.0f) + 0.5f) * width;
pos[1] = (pos[1] / (pos[3] * 2.0f) + 0.5f) * height * aspy;
BKE_tracking_distort_v2(tracking, pos, npos);
if (npos[0] >= 0.0f && npos[1] >= 0.0f && npos[0] <= width && npos[1] <= height * aspy) {
vec[0] = (marker->pos[0] + track->offset[0]) * width;
vec[1] = (marker->pos[1] + track->offset[1]) * height * aspy;
sub_v2_v2(vec, npos);
if (len_squared_v2(vec) < (3.0f * 3.0f))
glColor3f(0.0f, 1.0f, 0.0f);
else
glColor3f(1.0f, 0.0f, 0.0f);
glBegin(GL_POINTS);
if (undistort)
glVertex3f(pos[0] / width, pos[1] / (height * aspy), 0);
else
glVertex3f(npos[0] / width, npos[1] / (height * aspy), 0);
glEnd();
}
}
}
track = track->next;
}
glDisable(GL_POINT_SMOOTH);
}
glPopMatrix();
if (sc->flag & SC_SHOW_NAMES) {
/* scaling should be cleared before drawing texts, otherwise font would also be scaled */
track = tracksbase->first;
fp = marker_pos;
while (track) {
if ((track->flag & TRACK_HIDDEN) == 0) {
marker = BKE_tracking_marker_get(track, framenr);
if (MARKER_VISIBLE(sc, track, marker)) {
int act = track == act_track;
copy_v2_v2(cur_pos, fp ? fp : marker->pos);
draw_marker_texts(sc, track, marker, cur_pos, act, width, height, zoomx, zoomy);
if (fp)
fp += 2;
}
}
track = track->next;
}
}
glPopMatrix();
if (marker_pos)
MEM_freeN(marker_pos);
}
static void walkEvent(bContext *C, wmOperator *op, WalkInfo *walk, const wmEvent *event)
{
if (event->type == TIMER && event->customdata == walk->timer) {
walk->redraw = true;
}
else if (ELEM(event->type, MOUSEMOVE, INBETWEEN_MOUSEMOVE)) {
#ifdef USE_TABLET_SUPPORT
if (walk->is_cursor_first) {
/* wait until we get the 'warp' event */
if ((walk->center_mval[0] == event->mval[0]) &&
(walk->center_mval[1] == event->mval[1]))
{
walk->is_cursor_first = false;
}
else {
/* note, its possible the system isn't giving us the warp event
* ideally we shouldn't have to worry about this, see: T45361 */
wmWindow *win = CTX_wm_window(C);
WM_cursor_warp(win,
walk->ar->winrct.xmin + walk->center_mval[0],
walk->ar->winrct.ymin + walk->center_mval[1]);
}
return;
}
if ((walk->is_cursor_absolute == false) && WM_event_is_absolute(event)) {
walk->is_cursor_absolute = true;
copy_v2_v2_int(walk->prev_mval, event->mval);
copy_v2_v2_int(walk->center_mval, event->mval);
/* without this we can't turn 180d */
CLAMP_MIN(walk->mouse_speed, 4.0f);
}
#endif /* USE_TABLET_SUPPORT */
walk->moffset[0] += event->mval[0] - walk->prev_mval[0];
walk->moffset[1] += event->mval[1] - walk->prev_mval[1];
copy_v2_v2_int(walk->prev_mval, event->mval);
if ((walk->center_mval[0] != event->mval[0]) ||
(walk->center_mval[1] != event->mval[1]))
{
walk->redraw = true;
#ifdef USE_TABLET_SUPPORT
if (walk->is_cursor_absolute) {
/* pass */
}
else
#endif
if (wm_event_is_last_mousemove(event)) {
wmWindow *win = CTX_wm_window(C);
#ifdef __APPLE__
if ((abs(walk->prev_mval[0] - walk->center_mval[0]) > walk->center_mval[0] / 2) ||
(abs(walk->prev_mval[1] - walk->center_mval[1]) > walk->center_mval[1] / 2))
#endif
{
WM_cursor_warp(win,
walk->ar->winrct.xmin + walk->center_mval[0],
walk->ar->winrct.ymin + walk->center_mval[1]);
copy_v2_v2_int(walk->prev_mval, walk->center_mval);
}
}
}
}
else if (event->type == NDOF_MOTION) {
/* do these automagically get delivered? yes. */
// puts("ndof motion detected in walk mode!");
// static const char *tag_name = "3D mouse position";
const wmNDOFMotionData *incoming_ndof = event->customdata;
switch (incoming_ndof->progress) {
case P_STARTING:
/* start keeping track of 3D mouse position */
#ifdef NDOF_WALK_DEBUG
puts("start keeping track of 3D mouse position");
#endif
/* fall-through */
case P_IN_PROGRESS:
/* update 3D mouse position */
#ifdef NDOF_WALK_DEBUG
putchar('.'); fflush(stdout);
#endif
if (walk->ndof == NULL) {
// walk->ndof = MEM_mallocN(sizeof(wmNDOFMotionData), tag_name);
walk->ndof = MEM_dupallocN(incoming_ndof);
// walk->ndof = malloc(sizeof(wmNDOFMotionData));
}
else {
memcpy(walk->ndof, incoming_ndof, sizeof(wmNDOFMotionData));
}
break;
case P_FINISHING:
/* stop keeping track of 3D mouse position */
#ifdef NDOF_WALK_DEBUG
puts("stop keeping track of 3D mouse position");
#endif
if (walk->ndof) {
MEM_freeN(walk->ndof);
// free(walk->ndof);
walk->ndof = NULL;
}
/* update the time else the view will jump when 2D mouse/timer resume */
walk->time_lastdraw = PIL_check_seconds_timer();
break;
default:
break; /* should always be one of the above 3 */
}
}
/* handle modal keymap first */
else if (event->type == EVT_MODAL_MAP) {
switch (event->val) {
case WALK_MODAL_CANCEL:
walk->state = WALK_CANCEL;
break;
case WALK_MODAL_CONFIRM:
walk->state = WALK_CONFIRM;
break;
case WALK_MODAL_ACCELERATE:
base_speed *= 1.0f + (walk->is_slow ? 0.01f : 0.1f);
break;
case WALK_MODAL_DECELERATE:
base_speed /= 1.0f + (walk->is_slow ? 0.01f : 0.1f);
break;
/* implement WASD keys */
case WALK_MODAL_DIR_FORWARD:
walk->active_directions |= WALK_BIT_FORWARD;
break;
case WALK_MODAL_DIR_BACKWARD:
walk->active_directions |= WALK_BIT_BACKWARD;
break;
case WALK_MODAL_DIR_LEFT:
walk->active_directions |= WALK_BIT_LEFT;
break;
case WALK_MODAL_DIR_RIGHT:
walk->active_directions |= WALK_BIT_RIGHT;
break;
case WALK_MODAL_DIR_UP:
walk->active_directions |= WALK_BIT_UP;
break;
case WALK_MODAL_DIR_DOWN:
walk->active_directions |= WALK_BIT_DOWN;
break;
case WALK_MODAL_DIR_FORWARD_STOP:
walk->active_directions &= ~WALK_BIT_FORWARD;
break;
case WALK_MODAL_DIR_BACKWARD_STOP:
walk->active_directions &= ~WALK_BIT_BACKWARD;
break;
case WALK_MODAL_DIR_LEFT_STOP:
walk->active_directions &= ~WALK_BIT_LEFT;
break;
case WALK_MODAL_DIR_RIGHT_STOP:
walk->active_directions &= ~WALK_BIT_RIGHT;
break;
case WALK_MODAL_DIR_UP_STOP:
walk->active_directions &= ~WALK_BIT_UP;
break;
case WALK_MODAL_DIR_DOWN_STOP:
walk->active_directions &= ~WALK_BIT_DOWN;
break;
case WALK_MODAL_FAST_ENABLE:
walk->is_fast = true;
break;
case WALK_MODAL_FAST_DISABLE:
walk->is_fast = false;
break;
case WALK_MODAL_SLOW_ENABLE:
walk->is_slow = true;
break;
case WALK_MODAL_SLOW_DISABLE:
walk->is_slow = false;
break;
#define JUMP_SPEED_MIN 1.0f
#define JUMP_TIME_MAX 0.2f /* s */
#define JUMP_SPEED_MAX sqrtf(2.0f * walk->gravity * walk->jump_height)
case WALK_MODAL_JUMP_STOP:
if (walk->gravity_state == WALK_GRAVITY_STATE_JUMP) {
float t;
/* delta time */
t = (float)(PIL_check_seconds_timer() - walk->teleport.initial_time);
/* reduce the veolocity, if JUMP wasn't hold for long enough */
t = min_ff(t, JUMP_TIME_MAX);
walk->speed_jump = JUMP_SPEED_MIN + t * (JUMP_SPEED_MAX - JUMP_SPEED_MIN) / JUMP_TIME_MAX;
/* when jumping, duration is how long it takes before we start going down */
walk->teleport.duration = getVelocityZeroTime(walk->gravity, walk->speed_jump);
/* no more increase of jump speed */
walk->gravity_state = WALK_GRAVITY_STATE_ON;
}
break;
case WALK_MODAL_JUMP:
if ((walk->navigation_mode == WALK_MODE_GRAVITY) &&
(walk->gravity_state == WALK_GRAVITY_STATE_OFF) &&
(walk->teleport.state == WALK_TELEPORT_STATE_OFF))
{
/* no need to check for ground,
* walk->gravity wouldn't be off
* if we were over a hole */
walk->gravity_state = WALK_GRAVITY_STATE_JUMP;
walk->speed_jump = JUMP_SPEED_MAX;
walk->teleport.initial_time = PIL_check_seconds_timer();
copy_v3_v3(walk->teleport.origin, walk->rv3d->viewinv[3]);
/* using previous vec because WASD keys are not called when SPACE is */
copy_v2_v2(walk->teleport.direction, walk->dvec_prev);
/* when jumping, duration is how long it takes before we start going down */
walk->teleport.duration = getVelocityZeroTime(walk->gravity, walk->speed_jump);
}
break;
case WALK_MODAL_TELEPORT:
{
float loc[3], nor[3];
float distance;
bool ret = walk_ray_cast(walk->rv3d, walk, loc, nor, &distance);
/* in case we are teleporting middle way from a jump */
walk->speed_jump = 0.0f;
if (ret) {
WalkTeleport *teleport = &walk->teleport;
teleport->state = WALK_TELEPORT_STATE_ON;
teleport->initial_time = PIL_check_seconds_timer();
teleport->duration = U.walk_navigation.teleport_time;
teleport->navigation_mode = walk->navigation_mode;
walk_navigation_mode_set(C, op, walk, WALK_MODE_FREE);
copy_v3_v3(teleport->origin, walk->rv3d->viewinv[3]);
/* stop the camera from a distance (camera height) */
normalize_v3(nor);
mul_v3_fl(nor, walk->view_height);
add_v3_v3(loc, nor);
sub_v3_v3v3(teleport->direction, loc, teleport->origin);
}
else {
walk->teleport.state = WALK_TELEPORT_STATE_OFF;
}
break;
}
#undef JUMP_SPEED_MAX
#undef JUMP_TIME_MAX
#undef JUMP_SPEED_MIN
case WALK_MODAL_TOGGLE:
if (walk->navigation_mode == WALK_MODE_GRAVITY) {
walk_navigation_mode_set(C, op, walk, WALK_MODE_FREE);
}
else { /* WALK_MODE_FREE */
walk_navigation_mode_set(C, op, walk, WALK_MODE_GRAVITY);
}
break;
}
}
}
int imagewraposa(Tex *tex, Image *ima, ImBuf *ibuf, const float texvec[3], const float DXT[2], const float DYT[2], TexResult *texres, struct ImagePool *pool, const bool skip_load_image)
{
TexResult texr;
float fx, fy, minx, maxx, miny, maxy, dx, dy, dxt[2], dyt[2];
float maxd, pixsize, val1, val2, val3;
int curmap, retval, imaprepeat, imapextend;
/* TXF: since dxt/dyt might be modified here and since they might be needed after imagewraposa() call,
* make a local copy here so that original vecs remain untouched */
copy_v2_v2(dxt, DXT);
copy_v2_v2(dyt, DYT);
/* anisotropic filtering */
if (tex->texfilter != TXF_BOX)
return imagewraposa_aniso(tex, ima, ibuf, texvec, dxt, dyt, texres, pool, skip_load_image);
texres->tin= texres->ta= texres->tr= texres->tg= texres->tb= 0.0f;
/* we need to set retval OK, otherwise texture code generates normals itself... */
retval = texres->nor ? 3 : 1;
/* quick tests */
if (ibuf==NULL && ima==NULL)
return retval;
if (ima) {
/* hack for icon render */
if (skip_load_image && !BKE_image_has_loaded_ibuf(ima))
return retval;
ibuf = BKE_image_pool_acquire_ibuf(ima, &tex->iuser, pool);
ima->flag|= IMA_USED_FOR_RENDER;
}
if (ibuf==NULL || (ibuf->rect==NULL && ibuf->rect_float==NULL)) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
/* mipmap test */
image_mipmap_test(tex, ibuf);
if (ima) {
if ((tex->imaflag & TEX_USEALPHA) && (ima->flag & IMA_IGNORE_ALPHA) == 0) {
if ((tex->imaflag & TEX_CALCALPHA) == 0) {
texres->talpha = true;
}
}
}
texr.talpha= texres->talpha;
if (tex->imaflag & TEX_IMAROT) {
fy= texvec[0];
fx= texvec[1];
}
else {
fx= texvec[0];
fy= texvec[1];
}
if (ibuf->flags & IB_fields) {
if (R.r.mode & R_FIELDS) { /* field render */
if (R.flag & R_SEC_FIELD) { /* correction for 2nd field */
/* fac1= 0.5/( (float)ibuf->y ); */
/* fy-= fac1; */
}
else { /* first field */
fy+= 0.5f/( (float)ibuf->y );
}
}
}
/* pixel coordinates */
minx = min_fff(dxt[0], dyt[0], dxt[0] + dyt[0]);
maxx = max_fff(dxt[0], dyt[0], dxt[0] + dyt[0]);
miny = min_fff(dxt[1], dyt[1], dxt[1] + dyt[1]);
maxy = max_fff(dxt[1], dyt[1], dxt[1] + dyt[1]);
/* tex_sharper has been removed */
minx= (maxx-minx)/2.0f;
miny= (maxy-miny)/2.0f;
if (tex->imaflag & TEX_FILTER_MIN) {
/* make sure the filtersize is minimal in pixels (normal, ref map can have miniature pixel dx/dy) */
float addval= (0.5f * tex->filtersize) / (float) MIN2(ibuf->x, ibuf->y);
if (addval > minx)
minx= addval;
if (addval > miny)
miny= addval;
}
else if (tex->filtersize!=1.0f) {
minx*= tex->filtersize;
miny*= tex->filtersize;
dxt[0]*= tex->filtersize;
dxt[1]*= tex->filtersize;
dyt[0]*= tex->filtersize;
dyt[1]*= tex->filtersize;
}
if (tex->imaflag & TEX_IMAROT) SWAP(float, minx, miny);
if (minx>0.25f) minx= 0.25f;
else if (minx<0.00001f) minx= 0.00001f; /* side faces of unit-cube */
if (miny>0.25f) miny= 0.25f;
else if (miny<0.00001f) miny= 0.00001f;
/* repeat and clip */
imaprepeat= (tex->extend==TEX_REPEAT);
imapextend= (tex->extend==TEX_EXTEND);
if (tex->extend == TEX_REPEAT) {
if (tex->flag & (TEX_REPEAT_XMIR|TEX_REPEAT_YMIR)) {
imaprepeat= 0;
imapextend= 1;
}
}
if (tex->extend == TEX_CHECKER) {
int xs, ys, xs1, ys1, xs2, ys2, boundary;
xs= (int)floor(fx);
ys= (int)floor(fy);
/* both checkers available, no boundary exceptions, checkerdist will eat aliasing */
if ( (tex->flag & TEX_CHECKER_ODD) && (tex->flag & TEX_CHECKER_EVEN) ) {
fx-= xs;
fy-= ys;
}
else if ((tex->flag & TEX_CHECKER_ODD) == 0 &&
(tex->flag & TEX_CHECKER_EVEN) == 0)
{
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
else {
xs1= (int)floor(fx-minx);
ys1= (int)floor(fy-miny);
xs2= (int)floor(fx+minx);
ys2= (int)floor(fy+miny);
boundary= (xs1!=xs2) || (ys1!=ys2);
if (boundary==0) {
if ( (tex->flag & TEX_CHECKER_ODD)==0) {
if ((xs + ys) & 1) {
/* pass */
}
else {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
}
if ( (tex->flag & TEX_CHECKER_EVEN)==0) {
if ((xs + ys) & 1) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
}
fx-= xs;
fy-= ys;
}
else {
if (tex->flag & TEX_CHECKER_ODD) {
if ((xs1+ys) & 1) fx-= xs2;
else fx-= xs1;
if ((ys1+xs) & 1) fy-= ys2;
else fy-= ys1;
}
if (tex->flag & TEX_CHECKER_EVEN) {
if ((xs1+ys) & 1) fx-= xs1;
else fx-= xs2;
if ((ys1+xs) & 1) fy-= ys1;
else fy-= ys2;
}
}
}
/* scale around center, (0.5, 0.5) */
if (tex->checkerdist<1.0f) {
fx= (fx-0.5f)/(1.0f-tex->checkerdist) +0.5f;
fy= (fy-0.5f)/(1.0f-tex->checkerdist) +0.5f;
minx/= (1.0f-tex->checkerdist);
miny/= (1.0f-tex->checkerdist);
}
}
if (tex->extend == TEX_CLIPCUBE) {
if (fx+minx<0.0f || fy+miny<0.0f || fx-minx>1.0f || fy-miny>1.0f || texvec[2]<-1.0f || texvec[2]>1.0f) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
}
else if (tex->extend==TEX_CLIP || tex->extend==TEX_CHECKER) {
if (fx+minx<0.0f || fy+miny<0.0f || fx-minx>1.0f || fy-miny>1.0f) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
}
else {
if (imapextend) {
if (fx>1.0f) fx = 1.0f;
else if (fx<0.0f) fx= 0.0f;
}
else {
if (fx>1.0f) fx -= (int)(fx);
else if (fx<0.0f) fx+= 1-(int)(fx);
}
if (imapextend) {
if (fy>1.0f) fy = 1.0f;
else if (fy<0.0f) fy= 0.0f;
}
else {
if (fy>1.0f) fy -= (int)(fy);
else if (fy<0.0f) fy+= 1-(int)(fy);
}
}
/* warning no return! */
if ( (R.flag & R_SEC_FIELD) && (ibuf->flags & IB_fields) ) {
ibuf->rect+= (ibuf->x*ibuf->y);
}
/* choice: */
if (tex->imaflag & TEX_MIPMAP) {
ImBuf *previbuf, *curibuf;
float bumpscale;
dx = minx;
dy = miny;
maxd = max_ff(dx, dy);
if (maxd > 0.5f) maxd = 0.5f;
pixsize = 1.0f / (float) MIN2(ibuf->x, ibuf->y);
bumpscale= pixsize/maxd;
if (bumpscale>1.0f) bumpscale= 1.0f;
else bumpscale*=bumpscale;
curmap= 0;
previbuf= curibuf= ibuf;
while (curmap < IMB_MIPMAP_LEVELS && ibuf->mipmap[curmap]) {
if (maxd < pixsize) break;
previbuf= curibuf;
curibuf= ibuf->mipmap[curmap];
pixsize= 1.0f / (float)MIN2(curibuf->x, curibuf->y);
curmap++;
}
if (previbuf!=curibuf || (tex->imaflag & TEX_INTERPOL)) {
/* sample at least 1 pixel */
if (minx < 0.5f / ibuf->x) minx = 0.5f / ibuf->x;
if (miny < 0.5f / ibuf->y) miny = 0.5f / ibuf->y;
}
if (texres->nor && (tex->imaflag & TEX_NORMALMAP)==0) {
/* a bit extra filter */
//minx*= 1.35f;
//miny*= 1.35f;
boxsample(curibuf, fx-minx, fy-miny, fx+minx, fy+miny, texres, imaprepeat, imapextend);
val1= texres->tr+texres->tg+texres->tb;
boxsample(curibuf, fx-minx+dxt[0], fy-miny+dxt[1], fx+minx+dxt[0], fy+miny+dxt[1], &texr, imaprepeat, imapextend);
val2= texr.tr + texr.tg + texr.tb;
boxsample(curibuf, fx-minx+dyt[0], fy-miny+dyt[1], fx+minx+dyt[0], fy+miny+dyt[1], &texr, imaprepeat, imapextend);
val3= texr.tr + texr.tg + texr.tb;
/* don't switch x or y! */
texres->nor[0]= (val1-val2);
texres->nor[1]= (val1-val3);
if (previbuf!=curibuf) { /* interpolate */
boxsample(previbuf, fx-minx, fy-miny, fx+minx, fy+miny, &texr, imaprepeat, imapextend);
/* calc rgb */
dx= 2.0f*(pixsize-maxd)/pixsize;
if (dx>=1.0f) {
texres->ta= texr.ta; texres->tb= texr.tb;
texres->tg= texr.tg; texres->tr= texr.tr;
}
else {
dy= 1.0f-dx;
texres->tb= dy*texres->tb+ dx*texr.tb;
texres->tg= dy*texres->tg+ dx*texr.tg;
texres->tr= dy*texres->tr+ dx*texr.tr;
texres->ta= dy*texres->ta+ dx*texr.ta;
}
val1= dy*val1+ dx*(texr.tr + texr.tg + texr.tb);
boxsample(previbuf, fx-minx+dxt[0], fy-miny+dxt[1], fx+minx+dxt[0], fy+miny+dxt[1], &texr, imaprepeat, imapextend);
val2= dy*val2+ dx*(texr.tr + texr.tg + texr.tb);
boxsample(previbuf, fx-minx+dyt[0], fy-miny+dyt[1], fx+minx+dyt[0], fy+miny+dyt[1], &texr, imaprepeat, imapextend);
val3= dy*val3+ dx*(texr.tr + texr.tg + texr.tb);
texres->nor[0]= (val1-val2); /* vals have been interpolated above! */
texres->nor[1]= (val1-val3);
if (dx<1.0f) {
dy= 1.0f-dx;
texres->tb= dy*texres->tb+ dx*texr.tb;
texres->tg= dy*texres->tg+ dx*texr.tg;
texres->tr= dy*texres->tr+ dx*texr.tr;
texres->ta= dy*texres->ta+ dx*texr.ta;
}
}
texres->nor[0]*= bumpscale;
texres->nor[1]*= bumpscale;
}
else {
maxx= fx+minx;
minx= fx-minx;
maxy= fy+miny;
miny= fy-miny;
boxsample(curibuf, minx, miny, maxx, maxy, texres, imaprepeat, imapextend);
if (previbuf!=curibuf) { /* interpolate */
boxsample(previbuf, minx, miny, maxx, maxy, &texr, imaprepeat, imapextend);
fx= 2.0f*(pixsize-maxd)/pixsize;
if (fx>=1.0f) {
texres->ta= texr.ta; texres->tb= texr.tb;
texres->tg= texr.tg; texres->tr= texr.tr;
}
else {
fy= 1.0f-fx;
texres->tb= fy*texres->tb+ fx*texr.tb;
texres->tg= fy*texres->tg+ fx*texr.tg;
texres->tr= fy*texres->tr+ fx*texr.tr;
texres->ta= fy*texres->ta+ fx*texr.ta;
}
}
}
}
else {
const int intpol = tex->imaflag & TEX_INTERPOL;
if (intpol) {
/* sample 1 pixel minimum */
if (minx < 0.5f / ibuf->x) minx = 0.5f / ibuf->x;
if (miny < 0.5f / ibuf->y) miny = 0.5f / ibuf->y;
}
if (texres->nor && (tex->imaflag & TEX_NORMALMAP)==0) {
boxsample(ibuf, fx-minx, fy-miny, fx+minx, fy+miny, texres, imaprepeat, imapextend);
val1= texres->tr+texres->tg+texres->tb;
boxsample(ibuf, fx-minx+dxt[0], fy-miny+dxt[1], fx+minx+dxt[0], fy+miny+dxt[1], &texr, imaprepeat, imapextend);
val2= texr.tr + texr.tg + texr.tb;
boxsample(ibuf, fx-minx+dyt[0], fy-miny+dyt[1], fx+minx+dyt[0], fy+miny+dyt[1], &texr, imaprepeat, imapextend);
val3= texr.tr + texr.tg + texr.tb;
/* don't switch x or y! */
texres->nor[0]= (val1-val2);
texres->nor[1]= (val1-val3);
}
else
boxsample(ibuf, fx-minx, fy-miny, fx+minx, fy+miny, texres, imaprepeat, imapextend);
}
if (tex->imaflag & TEX_CALCALPHA) {
texres->ta = texres->tin = texres->ta * max_fff(texres->tr, texres->tg, texres->tb);
}
else {
texres->tin = texres->ta;
}
if (tex->flag & TEX_NEGALPHA) texres->ta= 1.0f-texres->ta;
if ( (R.flag & R_SEC_FIELD) && (ibuf->flags & IB_fields) ) {
ibuf->rect-= (ibuf->x*ibuf->y);
}
if (texres->nor && (tex->imaflag & TEX_NORMALMAP)) {
/* qdn: normal from color
* The invert of the red channel is to make
* the normal map compliant with the outside world.
* It needs to be done because in Blender
* the normal used in the renderer points inward. It is generated
* this way in calc_vertexnormals(). Should this ever change
* this negate must be removed. */
texres->nor[0] = -2.f*(texres->tr - 0.5f);
texres->nor[1] = 2.f*(texres->tg - 0.5f);
texres->nor[2] = 2.f*(texres->tb - 0.5f);
}
/* de-premul, this is being premulled in shade_input_do_shade() */
/* do not de-premul for generated alpha, it is already in straight */
if (texres->ta!=1.0f && texres->ta>1e-4f && !(tex->imaflag & TEX_CALCALPHA)) {
mul_v3_fl(&texres->tr, 1.0f / texres->ta);
}
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
BRICONTRGB;
return retval;
}
int EEVEE_screen_raytrace_init(EEVEE_ViewLayerData *sldata, EEVEE_Data *vedata)
{
EEVEE_CommonUniformBuffer *common_data = &sldata->common_data;
EEVEE_StorageList *stl = vedata->stl;
EEVEE_FramebufferList *fbl = vedata->fbl;
EEVEE_TextureList *txl = vedata->txl;
EEVEE_EffectsInfo *effects = stl->effects;
const float *viewport_size = DRW_viewport_size_get();
const DRWContextState *draw_ctx = DRW_context_state_get();
const Scene *scene_eval = DEG_get_evaluated_scene(draw_ctx->depsgraph);
/* Compute pixel size, (shared with contact shadows) */
copy_v2_v2(common_data->ssr_pixelsize, viewport_size);
invert_v2(common_data->ssr_pixelsize);
if (scene_eval->eevee.flag & SCE_EEVEE_SSR_ENABLED) {
const bool use_refraction = (scene_eval->eevee.flag & SCE_EEVEE_SSR_REFRACTION) != 0;
if (use_refraction) {
/* TODO: Opti: Could be shared. */
DRW_texture_ensure_fullscreen_2d(
&txl->refract_color, GPU_R11F_G11F_B10F, DRW_TEX_FILTER | DRW_TEX_MIPMAP);
GPU_framebuffer_ensure_config(
&fbl->refract_fb, {GPU_ATTACHMENT_NONE, GPU_ATTACHMENT_TEXTURE(txl->refract_color)});
}
const bool is_persp = DRW_view_is_persp_get(NULL);
if (effects->ssr_was_persp != is_persp) {
effects->ssr_was_persp = is_persp;
DRW_viewport_request_redraw();
EEVEE_temporal_sampling_reset(vedata);
stl->g_data->valid_double_buffer = false;
}
effects->reflection_trace_full = (scene_eval->eevee.flag & SCE_EEVEE_SSR_HALF_RESOLUTION) == 0;
common_data->ssr_thickness = scene_eval->eevee.ssr_thickness;
common_data->ssr_border_fac = scene_eval->eevee.ssr_border_fade;
common_data->ssr_firefly_fac = scene_eval->eevee.ssr_firefly_fac;
common_data->ssr_max_roughness = scene_eval->eevee.ssr_max_roughness;
common_data->ssr_quality = 1.0f - 0.95f * scene_eval->eevee.ssr_quality;
common_data->ssr_brdf_bias = 0.1f + common_data->ssr_quality * 0.6f; /* Range [0.1, 0.7]. */
if (common_data->ssr_firefly_fac < 1e-8f) {
common_data->ssr_firefly_fac = FLT_MAX;
}
const int divisor = (effects->reflection_trace_full) ? 1 : 2;
int tracing_res[2] = {(int)viewport_size[0] / divisor, (int)viewport_size[1] / divisor};
int size_fs[2] = {(int)viewport_size[0], (int)viewport_size[1]};
const bool high_qual_input = true; /* TODO dither low quality input */
const eGPUTextureFormat format = (high_qual_input) ? GPU_RGBA16F : GPU_RGBA8;
/* MRT for the shading pass in order to output needed data for the SSR pass. */
effects->ssr_specrough_input = DRW_texture_pool_query_2d(
size_fs[0], size_fs[1], format, &draw_engine_eevee_type);
GPU_framebuffer_texture_attach(fbl->main_fb, effects->ssr_specrough_input, 2, 0);
/* Raytracing output */
effects->ssr_hit_output = DRW_texture_pool_query_2d(
tracing_res[0], tracing_res[1], GPU_RG16I, &draw_engine_eevee_type);
effects->ssr_pdf_output = DRW_texture_pool_query_2d(
tracing_res[0], tracing_res[1], GPU_R16F, &draw_engine_eevee_type);
GPU_framebuffer_ensure_config(&fbl->screen_tracing_fb,
{GPU_ATTACHMENT_NONE,
GPU_ATTACHMENT_TEXTURE(effects->ssr_hit_output),
GPU_ATTACHMENT_TEXTURE(effects->ssr_pdf_output)});
/* Enable double buffering to be able to read previous frame color */
return EFFECT_SSR | EFFECT_NORMAL_BUFFER | EFFECT_DOUBLE_BUFFER |
((use_refraction) ? EFFECT_REFRACT : 0);
}
/* Cleanup to release memory */
GPU_FRAMEBUFFER_FREE_SAFE(fbl->screen_tracing_fb);
effects->ssr_specrough_input = NULL;
effects->ssr_hit_output = NULL;
effects->ssr_pdf_output = NULL;
return 0;
}
/**
* Copies data from loop/poly to face (assumes all triangles or quads, as generated by most subdivisions)
*/
static void loops_to_customdata_corners(DerivedMesh *output)
{
int i, numPolys, numTex, numCol, hasPCol;
MPoly *polys;
//if (!CustomData_get_layer_n(&output->loopData, CD_MLOOPCOL, n)) {
// Not sure how this works with "n" ?
// CustomData_add_layer(&output->loopData, CD_MLOOPCOL, CD_CALLOC, NULL, output->numVertData);
//}
numCol = CustomData_number_of_layers(&output->loopData, CD_MLOOPCOL);
numTex = CustomData_number_of_layers(&output->loopData, CD_MLOOPUV);
hasPCol = CustomData_has_layer(&output->loopData, CD_PREVIEW_MLOOPCOL);
polys = output->getPolyArray(output);
numPolys = output->getNumPolys(output);
for (i = 0; i < numTex; i++) {
int k;
MTexPoly *texpoly = CustomData_get_layer_n(&output->polyData, CD_MTEXPOLY, i);
MLoopUV *mloopuv = CustomData_get_layer_n(&output->loopData, CD_MLOOPUV, i);
MTFace *texface = CustomData_get_layer_n(&output->faceData, CD_MTFACE, i);
if (!texface) {
texface = CustomData_add_layer(&output->faceData, CD_MTFACE, CD_CALLOC, NULL, numPolys);
}
for (k = 0; k < numPolys; k++) {
int j;
MPoly *poly = &polys[k];
MLoopUV *ml = &mloopuv[poly->loopstart];
ME_MTEXFACE_CPY(&texface[k], &texpoly[k]);
for (j = 0; j < poly->totloop; j++) {
copy_v2_v2(texface[k].uv[j], ml[j].uv);
}
}
}
for (i = 0; i < numCol; i++) {
int k;
MLoopCol *mloopcol = CustomData_get_layer_n(&output->loopData, CD_MLOOPCOL, i);
MCol *mcol = CustomData_get_layer_n(&output->faceData, CD_MCOL, i);
if (!mcol) {
mcol = CustomData_add_layer(&output->faceData, CD_MCOL, CD_CALLOC, NULL, numPolys * 4);
}
for (k = 0; k < numPolys; k++) {
int j;
MPoly *poly = &polys[k];
MLoopCol *ml = &mloopcol[poly->loopstart];
for (j = 0; j < poly->totloop; j++) {
MESH_MLOOPCOL_TO_MCOL(&ml[j], &mcol[j]);
}
mcol += 4;
}
}
if (hasPCol) {
int k;
MLoopCol *mloopcol = CustomData_get_layer(&output->loopData, CD_PREVIEW_MLOOPCOL);
MCol *mcol = CustomData_get_layer(&output->faceData, CD_PREVIEW_MCOL);
if (!mcol) {
mcol = CustomData_add_layer(&output->faceData, CD_MCOL, CD_CALLOC, NULL, numPolys * 4);
}
for (k = 0; k < numPolys; k++) {
int j;
MPoly *poly = &polys[k];
MLoopCol *ml = &mloopcol[poly->loopstart];
for (j = 0; j < poly->totloop; j++) {
MESH_MLOOPCOL_TO_MCOL(&ml[j], &mcol[j]);
}
mcol += 4;
}
}
}
/**
* This function populates pixel_array and returns TRUE if things are correct
*/
static bool cast_ray_highpoly(
BVHTreeFromMesh *treeData, TriTessFace *triangles[], BakePixel *pixel_array, BakeHighPolyData *highpoly,
const float co[3], const float dir[3], const int pixel_id, const int tot_highpoly,
const float du_dx, const float du_dy, const float dv_dx, const float dv_dy)
{
int i;
int primitive_id = -1;
float uv[2];
int hit_mesh = -1;
float hit_distance = FLT_MAX;
BVHTreeRayHit *hits;
hits = MEM_mallocN(sizeof(BVHTreeRayHit) * tot_highpoly, "Bake Highpoly to Lowpoly: BVH Rays");
for (i = 0; i < tot_highpoly; i++) {
float co_high[3], dir_high[3];
hits[i].index = -1;
/* TODO: we should use FLT_MAX here, but sweepsphere code isn't prepared for that */
hits[i].dist = 10000.0f;
/* transform the ray from the world space to the highpoly space */
mul_v3_m4v3(co_high, highpoly[i].imat, co);
/* rotates */
mul_v3_mat3_m4v3(dir_high, highpoly[i].imat, dir);
normalize_v3(dir_high);
/* cast ray */
if (treeData[i].tree) {
BLI_bvhtree_ray_cast(treeData[i].tree, co_high, dir_high, 0.0f, &hits[i], treeData[i].raycast_callback, &treeData[i]);
}
if (hits[i].index != -1) {
/* cull backface */
const float dot = dot_v3v3(dir_high, hits[i].no);
if (dot < 0.0f) {
float distance;
float hit_world[3];
/* distance comparison in world space */
mul_v3_m4v3(hit_world, highpoly[i].obmat, hits[i].co);
distance = len_squared_v3v3(hit_world, co);
if (distance < hit_distance) {
hit_mesh = i;
hit_distance = distance;
}
}
}
}
if (hit_mesh != -1) {
calc_barycentric_from_point(triangles[hit_mesh], hits[hit_mesh].index, hits[hit_mesh].co, &primitive_id, uv);
pixel_array[pixel_id].primitive_id = primitive_id;
pixel_array[pixel_id].object_id = hit_mesh;
copy_v2_v2(pixel_array[pixel_id].uv, uv);
/* the differentials are relative to the UV/image space, so the highpoly differentials
* are the same as the low poly differentials */
pixel_array[pixel_id].du_dx = du_dx;
pixel_array[pixel_id].du_dy = du_dy;
pixel_array[pixel_id].dv_dx = dv_dx;
pixel_array[pixel_id].dv_dy = dv_dy;
}
else {
pixel_array[pixel_id].primitive_id = -1;
pixel_array[pixel_id].object_id = -1;
}
MEM_freeN(hits);
return hit_mesh != -1;
}
static int create_primitive_from_points(bContext *C, wmOperator *op, const float (*points)[2],
int num_points, char handle_type)
{
ScrArea *sa = CTX_wm_area(C);
Scene *scene = CTX_data_scene(C);
Mask *mask;
MaskLayer *mask_layer;
MaskSpline *new_spline;
float scale, location[2], frame_size[2];
int i, width, height;
int size = RNA_float_get(op->ptr, "size");
ED_mask_get_size(sa, &width, &height);
scale = (float)size / max_ii(width, height);
/* Get location in mask space. */
frame_size[0] = width;
frame_size[1] = height;
RNA_float_get_array(op->ptr, "location", location);
location[0] /= width;
location[1] /= height;
BKE_mask_coord_from_frame(location, location, frame_size);
/* Make it so new primitive is centered to mouse location. */
location[0] -= 0.5f * scale;
location[1] -= 0.5f * scale;
mask_layer = ED_mask_layer_ensure(C);
mask = CTX_data_edit_mask(C);
ED_mask_select_toggle_all(mask, SEL_DESELECT);
new_spline = BKE_mask_spline_add(mask_layer);
new_spline->flag = MASK_SPLINE_CYCLIC | SELECT;
new_spline->tot_point = num_points;
new_spline->points = MEM_recallocN(new_spline->points,
sizeof(MaskSplinePoint) * new_spline->tot_point);
mask_layer->act_spline = new_spline;
mask_layer->act_point = NULL;
for (i = 0; i < num_points; i++) {
MaskSplinePoint *new_point = &new_spline->points[i];
BKE_mask_parent_init(&new_point->parent);
copy_v2_v2(new_point->bezt.vec[1], points[i]);
mul_v2_fl(new_point->bezt.vec[1], scale);
add_v2_v2(new_point->bezt.vec[1], location);
new_point->bezt.h1 = handle_type;
new_point->bezt.h2 = handle_type;
BKE_mask_point_select_set(new_point, true);
}
WM_event_add_notifier(C, NC_MASK | NA_EDITED, mask);
/* TODO: only update this spline */
BKE_mask_update_display(mask, CFRA);
return OPERATOR_FINISHED;
}
static void setup_vertex_point(
Mask *mask, MaskSpline *spline, MaskSplinePoint *new_point,
const float point_co[2], const float u, const float ctime,
const MaskSplinePoint *reference_point, const bool reference_adjacent)
{
const MaskSplinePoint *reference_parent_point = NULL;
BezTriple *bezt;
float co[3];
copy_v2_v2(co, point_co);
co[2] = 0.0f;
/* point coordinate */
bezt = &new_point->bezt;
bezt->h1 = bezt->h2 = HD_ALIGN;
if (reference_point) {
if (reference_point->bezt.h1 == HD_VECT && reference_point->bezt.h2 == HD_VECT) {
/* If the reference point is sharp try using some smooth point as reference
* for handles.
*/
int point_index = reference_point - spline->points;
int delta = new_point == spline->points ? 1 : -1;
int i = 0;
for (i = 0; i < spline->tot_point - 1; ++i) {
MaskSplinePoint *current_point;
point_index += delta;
if (point_index == -1 || point_index >= spline->tot_point) {
if (spline->flag & MASK_SPLINE_CYCLIC) {
if (point_index == -1) {
point_index = spline->tot_point - 1;
}
else if (point_index >= spline->tot_point) {
point_index = 0;
}
}
else {
break;
}
}
current_point = &spline->points[point_index];
if (current_point->bezt.h1 != HD_VECT || current_point->bezt.h2 != HD_VECT) {
bezt->h1 = bezt->h2 = MAX2(current_point->bezt.h2, current_point->bezt.h1);
break;
}
}
}
else {
bezt->h1 = bezt->h2 = MAX2(reference_point->bezt.h2, reference_point->bezt.h1);
}
reference_parent_point = reference_point;
}
else if (reference_adjacent) {
if (spline->tot_point != 1) {
MaskSplinePoint *prev_point, *next_point, *close_point;
const int index = (int)(new_point - spline->points);
if (spline->flag & MASK_SPLINE_CYCLIC) {
prev_point = &spline->points[mod_i(index - 1, spline->tot_point)];
next_point = &spline->points[mod_i(index + 1, spline->tot_point)];
}
else {
prev_point = (index != 0) ? &spline->points[index - 1] : NULL;
next_point = (index != spline->tot_point - 1) ? &spline->points[index + 1] : NULL;
}
if (prev_point && next_point) {
close_point = (len_squared_v2v2(new_point->bezt.vec[1], prev_point->bezt.vec[1]) <
len_squared_v2v2(new_point->bezt.vec[1], next_point->bezt.vec[1])) ?
prev_point : next_point;
}
else {
close_point = prev_point ? prev_point : next_point;
}
/* handle type */
char handle_type = 0;
if (prev_point) {
handle_type = prev_point->bezt.h2;
}
if (next_point) {
handle_type = MAX2(next_point->bezt.h2, handle_type);
}
bezt->h1 = bezt->h2 = handle_type;
/* parent */
reference_parent_point = close_point;
/* note, we may want to copy other attributes later, radius? pressure? color? */
}
}
copy_v3_v3(bezt->vec[0], co);
copy_v3_v3(bezt->vec[1], co);
copy_v3_v3(bezt->vec[2], co);
if (reference_parent_point) {
new_point->parent = reference_parent_point->parent;
if (new_point->parent.id) {
float parent_matrix[3][3];
BKE_mask_point_parent_matrix_get(new_point, ctime, parent_matrix);
invert_m3(parent_matrix);
mul_m3_v2(parent_matrix, new_point->bezt.vec[1]);
}
}
else {
BKE_mask_parent_init(&new_point->parent);
}
if (spline->tot_point != 1) {
BKE_mask_calc_handle_adjacent_interp(spline, new_point, u);
}
/* select new point */
MASKPOINT_SEL_ALL(new_point);
ED_mask_select_flush_all(mask);
}
static DerivedMesh *uvprojectModifier_do(UVProjectModifierData *umd,
Object *ob, DerivedMesh *dm)
{
float (*coords)[3], (*co)[3];
MLoopUV *mloop_uv;
MTexPoly *mtexpoly, *mt = NULL;
int i, numVerts, numPolys, numLoops;
Image *image = umd->image;
MPoly *mpoly, *mp;
MLoop *mloop;
const bool override_image = (umd->flags & MOD_UVPROJECT_OVERRIDEIMAGE) != 0;
Projector projectors[MOD_UVPROJECT_MAXPROJECTORS];
int num_projectors = 0;
char uvname[MAX_CUSTOMDATA_LAYER_NAME];
float aspx = umd->aspectx ? umd->aspectx : 1.0f;
float aspy = umd->aspecty ? umd->aspecty : 1.0f;
float scax = umd->scalex ? umd->scalex : 1.0f;
float scay = umd->scaley ? umd->scaley : 1.0f;
int free_uci = 0;
for (i = 0; i < umd->num_projectors; ++i)
if (umd->projectors[i])
projectors[num_projectors++].ob = umd->projectors[i];
if (num_projectors == 0) return dm;
/* make sure there are UV Maps available */
if (!CustomData_has_layer(&dm->loopData, CD_MLOOPUV)) return dm;
/* make sure we're using an existing layer */
CustomData_validate_layer_name(&dm->loopData, CD_MLOOPUV, umd->uvlayer_name, uvname);
/* calculate a projection matrix and normal for each projector */
for (i = 0; i < num_projectors; ++i) {
float tmpmat[4][4];
float offsetmat[4][4];
Camera *cam = NULL;
/* calculate projection matrix */
invert_m4_m4(projectors[i].projmat, projectors[i].ob->obmat);
projectors[i].uci = NULL;
if (projectors[i].ob->type == OB_CAMERA) {
cam = (Camera *)projectors[i].ob->data;
if (cam->type == CAM_PANO) {
projectors[i].uci = BLI_uvproject_camera_info(projectors[i].ob, NULL, aspx, aspy);
BLI_uvproject_camera_info_scale(projectors[i].uci, scax, scay);
free_uci = 1;
}
else {
CameraParams params;
/* setup parameters */
BKE_camera_params_init(¶ms);
BKE_camera_params_from_object(¶ms, projectors[i].ob);
/* compute matrix, viewplane, .. */
BKE_camera_params_compute_viewplane(¶ms, 1, 1, aspx, aspy);
/* scale the view-plane */
params.viewplane.xmin *= scax;
params.viewplane.xmax *= scax;
params.viewplane.ymin *= scay;
params.viewplane.ymax *= scay;
BKE_camera_params_compute_matrix(¶ms);
mul_m4_m4m4(tmpmat, params.winmat, projectors[i].projmat);
}
}
else {
copy_m4_m4(tmpmat, projectors[i].projmat);
}
unit_m4(offsetmat);
mul_mat3_m4_fl(offsetmat, 0.5);
offsetmat[3][0] = offsetmat[3][1] = offsetmat[3][2] = 0.5;
mul_m4_m4m4(projectors[i].projmat, offsetmat, tmpmat);
/* calculate worldspace projector normal (for best projector test) */
projectors[i].normal[0] = 0;
projectors[i].normal[1] = 0;
projectors[i].normal[2] = 1;
mul_mat3_m4_v3(projectors[i].ob->obmat, projectors[i].normal);
}
numPolys = dm->getNumPolys(dm);
numLoops = dm->getNumLoops(dm);
/* make sure we are not modifying the original UV map */
mloop_uv = CustomData_duplicate_referenced_layer_named(&dm->loopData,
CD_MLOOPUV, uvname, numLoops);
/* can be NULL */
mt = mtexpoly = CustomData_duplicate_referenced_layer_named(&dm->polyData,
CD_MTEXPOLY, uvname, numPolys);
numVerts = dm->getNumVerts(dm);
coords = MEM_malloc_arrayN(numVerts, sizeof(*coords),
"uvprojectModifier_do coords");
dm->getVertCos(dm, coords);
/* convert coords to world space */
for (i = 0, co = coords; i < numVerts; ++i, ++co)
mul_m4_v3(ob->obmat, *co);
/* if only one projector, project coords to UVs */
if (num_projectors == 1 && projectors[0].uci == NULL)
for (i = 0, co = coords; i < numVerts; ++i, ++co)
mul_project_m4_v3(projectors[0].projmat, *co);
mpoly = dm->getPolyArray(dm);
mloop = dm->getLoopArray(dm);
/* apply coords as UVs, and apply image if tfaces are new */
for (i = 0, mp = mpoly; i < numPolys; ++i, ++mp, ++mt) {
if (override_image || !image || (mtexpoly == NULL || mt->tpage == image)) {
if (num_projectors == 1) {
if (projectors[0].uci) {
unsigned int fidx = mp->totloop - 1;
do {
unsigned int lidx = mp->loopstart + fidx;
unsigned int vidx = mloop[lidx].v;
BLI_uvproject_from_camera(mloop_uv[lidx].uv, coords[vidx], projectors[0].uci);
} while (fidx--);
}
else {
/* apply transformed coords as UVs */
unsigned int fidx = mp->totloop - 1;
do {
unsigned int lidx = mp->loopstart + fidx;
unsigned int vidx = mloop[lidx].v;
copy_v2_v2(mloop_uv[lidx].uv, coords[vidx]);
} while (fidx--);
}
}
else {
/* multiple projectors, select the closest to face normal direction */
float face_no[3];
int j;
Projector *best_projector;
float best_dot;
/* get the untransformed face normal */
BKE_mesh_calc_poly_normal_coords(mp, mloop + mp->loopstart, (const float (*)[3])coords, face_no);
/* find the projector which the face points at most directly
* (projector normal with largest dot product is best)
*/
best_dot = dot_v3v3(projectors[0].normal, face_no);
best_projector = &projectors[0];
for (j = 1; j < num_projectors; ++j) {
float tmp_dot = dot_v3v3(projectors[j].normal,
face_no);
if (tmp_dot > best_dot) {
best_dot = tmp_dot;
best_projector = &projectors[j];
}
}
if (best_projector->uci) {
unsigned int fidx = mp->totloop - 1;
do {
unsigned int lidx = mp->loopstart + fidx;
unsigned int vidx = mloop[lidx].v;
BLI_uvproject_from_camera(mloop_uv[lidx].uv, coords[vidx], best_projector->uci);
} while (fidx--);
}
else {
unsigned int fidx = mp->totloop - 1;
do {
unsigned int lidx = mp->loopstart + fidx;
unsigned int vidx = mloop[lidx].v;
mul_v2_project_m4_v3(mloop_uv[lidx].uv, best_projector->projmat, coords[vidx]);
} while (fidx--);
}
}
}
if (override_image && mtexpoly) {
mt->tpage = image;
}
}
MEM_freeN(coords);
if (free_uci) {
int j;
for (j = 0; j < num_projectors; ++j) {
if (projectors[j].uci) {
MEM_freeN(projectors[j].uci);
}
}
}
/* Mark tessellated CD layers as dirty. */
dm->dirty |= DM_DIRTY_TESS_CDLAYERS;
return dm;
}
static int walkApply(bContext *C, wmOperator *op, WalkInfo *walk)
{
#define WALK_ROTATE_FAC 2.2f /* more is faster */
#define WALK_TOP_LIMIT DEG2RADF(85.0f)
#define WALK_BOTTOM_LIMIT DEG2RADF(-80.0f)
#define WALK_MOVE_SPEED base_speed
#define WALK_BOOST_FACTOR ((void)0, walk->speed_factor)
/* walk mode - Ctrl+Shift+F
* a walk loop where the user can move move the view as if they are in a walk game
*/
RegionView3D *rv3d = walk->rv3d;
ARegion *ar = walk->ar;
float mat[3][3]; /* 3x3 copy of the view matrix so we can move along the view axis */
float dvec[3] = {0.0f, 0.0f, 0.0f}; /* this is the direction that's added to the view offset per redraw */
int moffset[2]; /* mouse offset from the views center */
float tmp_quat[4]; /* used for rotating the view */
#ifdef NDOF_WALK_DEBUG
{
static unsigned int iteration = 1;
printf("walk timer %d\n", iteration++);
}
#endif
{
/* mouse offset from the center */
copy_v2_v2_int(moffset, walk->moffset);
/* apply moffset so we can re-accumulate */
walk->moffset[0] = 0;
walk->moffset[1] = 0;
/* revert mouse */
if (walk->is_reversed) {
moffset[1] = -moffset[1];
}
/* Should we redraw? */
if ((walk->active_directions) ||
moffset[0] || moffset[1] ||
walk->teleport.state == WALK_TELEPORT_STATE_ON ||
walk->gravity_state != WALK_GRAVITY_STATE_OFF)
{
float dvec_tmp[3];
/* time how fast it takes for us to redraw,
* this is so simple scenes don't walk too fast */
double time_current;
float time_redraw;
#ifdef NDOF_WALK_DRAW_TOOMUCH
walk->redraw = 1;
#endif
time_current = PIL_check_seconds_timer();
time_redraw = (float)(time_current - walk->time_lastdraw);
walk->time_lastdraw = time_current;
/* base speed in m/s */
walk->speed = WALK_MOVE_SPEED;
if (walk->is_fast) {
walk->speed *= WALK_BOOST_FACTOR;
}
else if (walk->is_slow) {
walk->speed *= 1.0f / WALK_BOOST_FACTOR;
}
copy_m3_m4(mat, rv3d->viewinv);
{
/* rotate about the X axis- look up/down */
if (moffset[1]) {
float upvec[3];
float angle;
float y;
/* relative offset */
y = (float) moffset[1] / ar->winy;
/* speed factor */
y *= WALK_ROTATE_FAC;
/* user adjustement factor */
y *= walk->mouse_speed;
/* clamp the angle limits */
/* it ranges from 90.0f to -90.0f */
angle = -asinf(rv3d->viewmat[2][2]);
if (angle > WALK_TOP_LIMIT && y > 0.0f)
y = 0.0f;
else if (angle < WALK_BOTTOM_LIMIT && y < 0.0f)
y = 0.0f;
copy_v3_fl3(upvec, 1.0f, 0.0f, 0.0f);
mul_m3_v3(mat, upvec);
/* Rotate about the relative up vec */
axis_angle_to_quat(tmp_quat, upvec, -y);
mul_qt_qtqt(rv3d->viewquat, rv3d->viewquat, tmp_quat);
}
/* rotate about the Y axis- look left/right */
if (moffset[0]) {
float upvec[3];
float x;
/* if we're upside down invert the moffset */
copy_v3_fl3(upvec, 0.0f, 1.0f, 0.0f);
mul_m3_v3(mat, upvec);
if (upvec[2] < 0.0f)
moffset[0] = -moffset[0];
/* relative offset */
x = (float) moffset[0] / ar->winx;
/* speed factor */
x *= WALK_ROTATE_FAC;
/* user adjustement factor */
x *= walk->mouse_speed;
/* Rotate about the relative up vec */
axis_angle_to_quat_single(tmp_quat, 'Z', x);
mul_qt_qtqt(rv3d->viewquat, rv3d->viewquat, tmp_quat);
}
}
/* WASD - 'move' translation code */
if ((walk->active_directions) &&
(walk->gravity_state == WALK_GRAVITY_STATE_OFF))
{
short direction;
zero_v3(dvec);
if ((walk->active_directions & WALK_BIT_FORWARD) ||
(walk->active_directions & WALK_BIT_BACKWARD))
{
direction = 0;
if ((walk->active_directions & WALK_BIT_FORWARD))
direction += 1;
if ((walk->active_directions & WALK_BIT_BACKWARD))
direction -= 1;
copy_v3_fl3(dvec_tmp, 0.0f, 0.0f, direction);
mul_m3_v3(mat, dvec_tmp);
if (walk->navigation_mode == WALK_MODE_GRAVITY) {
dvec_tmp[2] = 0.0f;
}
normalize_v3(dvec_tmp);
add_v3_v3(dvec, dvec_tmp);
}
if ((walk->active_directions & WALK_BIT_LEFT) ||
(walk->active_directions & WALK_BIT_RIGHT))
{
direction = 0;
if ((walk->active_directions & WALK_BIT_LEFT))
direction += 1;
if ((walk->active_directions & WALK_BIT_RIGHT))
direction -= 1;
dvec_tmp[0] = direction * rv3d->viewinv[0][0];
dvec_tmp[1] = direction * rv3d->viewinv[0][1];
dvec_tmp[2] = 0.0f;
normalize_v3(dvec_tmp);
add_v3_v3(dvec, dvec_tmp);
}
if ((walk->active_directions & WALK_BIT_UP) ||
(walk->active_directions & WALK_BIT_DOWN))
{
if (walk->navigation_mode == WALK_MODE_FREE) {
direction = 0;
if ((walk->active_directions & WALK_BIT_UP))
direction -= 1;
if ((walk->active_directions & WALK_BIT_DOWN))
direction = 1;
copy_v3_fl3(dvec_tmp, 0.0f, 0.0f, direction);
add_v3_v3(dvec, dvec_tmp);
}
}
/* apply movement */
mul_v3_fl(dvec, walk->speed * time_redraw);
}
/* stick to the floor */
if (walk->navigation_mode == WALK_MODE_GRAVITY &&
ELEM(walk->gravity_state,
WALK_GRAVITY_STATE_OFF,
WALK_GRAVITY_STATE_START))
{
bool ret;
float ray_distance;
float difference = -100.0f;
float fall_distance;
ret = walk_floor_distance_get(rv3d, walk, dvec, &ray_distance);
if (ret) {
difference = walk->view_height - ray_distance;
}
/* the distance we would fall naturally smoothly enough that we
* can manually drop the object without activating gravity */
fall_distance = time_redraw * walk->speed * WALK_BOOST_FACTOR;
if (fabsf(difference) < fall_distance) {
/* slope/stairs */
dvec[2] -= difference;
/* in case we switched from FREE to GRAVITY too close to the ground */
if (walk->gravity_state == WALK_GRAVITY_STATE_START)
walk->gravity_state = WALK_GRAVITY_STATE_OFF;
}
else {
/* hijack the teleport variables */
walk->teleport.initial_time = PIL_check_seconds_timer();
walk->gravity_state = WALK_GRAVITY_STATE_ON;
walk->teleport.duration = 0.0f;
copy_v3_v3(walk->teleport.origin, walk->rv3d->viewinv[3]);
copy_v2_v2(walk->teleport.direction, dvec);
}
}
/* Falling or jumping) */
if (ELEM(walk->gravity_state, WALK_GRAVITY_STATE_ON, WALK_GRAVITY_STATE_JUMP)) {
float t;
float z_cur, z_new;
bool ret;
float ray_distance, difference = -100.0f;
/* delta time */
t = (float)(PIL_check_seconds_timer() - walk->teleport.initial_time);
/* keep moving if we were moving */
copy_v2_v2(dvec, walk->teleport.direction);
z_cur = walk->rv3d->viewinv[3][2];
z_new = walk->teleport.origin[2] - getFreeFallDistance(walk->gravity, t) * walk->grid;
/* jump */
z_new += t * walk->speed_jump * walk->grid;
/* duration is the jump duration */
if (t > walk->teleport.duration) {
/* check to see if we are landing */
ret = walk_floor_distance_get(rv3d, walk, dvec, &ray_distance);
if (ret) {
difference = walk->view_height - ray_distance;
}
if (difference > 0.0f) {
/* quit falling, lands at "view_height" from the floor */
dvec[2] -= difference;
walk->gravity_state = WALK_GRAVITY_STATE_OFF;
walk->speed_jump = 0.0f;
}
else {
/* keep falling */
dvec[2] = z_cur - z_new;
}
}
else {
/* keep going up (jump) */
dvec[2] = z_cur - z_new;
}
}
/* Teleport */
else if (walk->teleport.state == WALK_TELEPORT_STATE_ON) {
float t; /* factor */
float new_loc[3];
float cur_loc[3];
/* linear interpolation */
t = (float)(PIL_check_seconds_timer() - walk->teleport.initial_time);
t /= walk->teleport.duration;
/* clamp so we don't go past our limit */
if (t >= 1.0f) {
t = 1.0f;
walk->teleport.state = WALK_TELEPORT_STATE_OFF;
walk_navigation_mode_set(C, op, walk, walk->teleport.navigation_mode);
}
mul_v3_v3fl(new_loc, walk->teleport.direction, t);
add_v3_v3(new_loc, walk->teleport.origin);
copy_v3_v3(cur_loc, walk->rv3d->viewinv[3]);
sub_v3_v3v3(dvec, cur_loc, new_loc);
}
if (rv3d->persp == RV3D_CAMOB) {
Object *lock_ob = ED_view3d_cameracontrol_object_get(walk->v3d_camera_control);
if (lock_ob->protectflag & OB_LOCK_LOCX) dvec[0] = 0.0f;
if (lock_ob->protectflag & OB_LOCK_LOCY) dvec[1] = 0.0f;
if (lock_ob->protectflag & OB_LOCK_LOCZ) dvec[2] = 0.0f;
}
/* scale the movement to the scene size */
mul_v3_v3fl(dvec_tmp, dvec, walk->grid);
add_v3_v3(rv3d->ofs, dvec_tmp);
if (rv3d->persp == RV3D_CAMOB) {
const bool do_rotate = (moffset[0] || moffset[1]);
const bool do_translate = (walk->speed != 0.0f);
walkMoveCamera(C, walk, do_rotate, do_translate);
}
}
else {
/* we're not redrawing but we need to update the time else the view will jump */
walk->time_lastdraw = PIL_check_seconds_timer();
}
/* end drawing */
copy_v3_v3(walk->dvec_prev, dvec);
}
return OPERATOR_FINISHED;
#undef WALK_ROTATE_FAC
#undef WALK_ZUP_CORRECT_FAC
#undef WALK_ZUP_CORRECT_ACCEL
#undef WALK_SMOOTH_FAC
#undef WALK_TOP_LIMIT
#undef WALK_BOTTOM_LIMIT
#undef WALK_MOVE_SPEED
#undef WALK_BOOST_FACTOR
}
static int slide_point_modal(bContext *C, wmOperator *op, wmEvent *event)
{
SlidePointData *data = (SlidePointData *)op->customdata;
BezTriple *bezt = &data->point->bezt;
float co[2], dco[2];
switch (event->type) {
case LEFTCTRLKEY:
case RIGHTCTRLKEY:
case LEFTSHIFTKEY:
case RIGHTSHIFTKEY:
if (ELEM(event->type, LEFTCTRLKEY, RIGHTCTRLKEY)) {
if (data->action == SLIDE_ACTION_FEATHER)
data->overall_feather = event->val == KM_PRESS;
else
data->curvature_only = event->val == KM_PRESS;
}
if (ELEM(event->type, LEFTSHIFTKEY, RIGHTSHIFTKEY))
data->accurate = event->val == KM_PRESS;
/* no break! update CV position */
case MOUSEMOVE:
{
ScrArea *sa = CTX_wm_area(C);
ARegion *ar = CTX_wm_region(C);
ED_mask_mouse_pos(sa, ar, event, co);
sub_v2_v2v2(dco, co, data->co);
if (data->action == SLIDE_ACTION_HANDLE) {
float delta[2], offco[2];
sub_v2_v2v2(delta, data->handle, data->co);
sub_v2_v2v2(offco, co, data->co);
if (data->accurate)
mul_v2_fl(offco, 0.2f);
add_v2_v2(offco, data->co);
add_v2_v2(offco, delta);
BKE_mask_point_set_handle(data->point, offco, data->curvature_only, data->handle, data->vec);
}
else if (data->action == SLIDE_ACTION_POINT) {
float delta[2];
copy_v2_v2(delta, dco);
if (data->accurate)
mul_v2_fl(delta, 0.2f);
add_v2_v2v2(bezt->vec[0], data->vec[0], delta);
add_v2_v2v2(bezt->vec[1], data->vec[1], delta);
add_v2_v2v2(bezt->vec[2], data->vec[2], delta);
}
else if (data->action == SLIDE_ACTION_FEATHER) {
float vec[2], no[2], p[2], c[2], w, offco[2];
float *weight = NULL;
float weight_scalar = 1.0f;
int overall_feather = data->overall_feather || data->initial_feather;
add_v2_v2v2(offco, data->feather, dco);
if (data->uw) {
/* project on both sides and find the closest one,
* prevents flickering when projecting onto both sides can happen */
const float u_pos = BKE_mask_spline_project_co(data->spline, data->point,
data->uw->u, offco, MASK_PROJ_NEG);
const float u_neg = BKE_mask_spline_project_co(data->spline, data->point,
data->uw->u, offco, MASK_PROJ_POS);
float dist_pos = FLT_MAX;
float dist_neg = FLT_MAX;
float co_pos[2];
float co_neg[2];
float u;
if (u_pos > 0.0f && u_pos < 1.0f) {
BKE_mask_point_segment_co(data->spline, data->point, u_pos, co_pos);
dist_pos = len_squared_v2v2(offco, co_pos);
}
if (u_neg > 0.0f && u_neg < 1.0f) {
BKE_mask_point_segment_co(data->spline, data->point, u_neg, co_neg);
dist_neg = len_squared_v2v2(offco, co_neg);
}
u = dist_pos < dist_neg ? u_pos : u_neg;
if (u > 0.0f && u < 1.0f) {
data->uw->u = u;
data->uw = BKE_mask_point_sort_uw(data->point, data->uw);
weight = &data->uw->w;
weight_scalar = BKE_mask_point_weight_scalar(data->spline, data->point, u);
if (weight_scalar != 0.0f) {
weight_scalar = 1.0f / weight_scalar;
}
BKE_mask_point_normal(data->spline, data->point, data->uw->u, no);
BKE_mask_point_segment_co(data->spline, data->point, data->uw->u, p);
}
}
else {
weight = &bezt->weight;
/* weight_scalar = 1.0f; keep as is */
copy_v2_v2(no, data->no);
copy_v2_v2(p, bezt->vec[1]);
}
if (weight) {
sub_v2_v2v2(c, offco, p);
project_v2_v2v2(vec, c, no);
w = len_v2(vec);
if (overall_feather) {
float delta;
if (dot_v2v2(no, vec) <= 0.0f)
w = -w;
delta = w - data->weight * data->weight_scalar;
if (data->orig_spline == NULL) {
/* restore weight for currently sliding point, so orig_spline would be created
* with original weights used
*/
*weight = data->weight;
data->orig_spline = BKE_mask_spline_copy(data->spline);
}
slide_point_delta_all_feather(data, delta);
}
else {
if (dot_v2v2(no, vec) <= 0.0f)
w = 0.0f;
if (data->orig_spline) {
/* restore possible overall feather changes */
slide_point_restore_spline(data);
BKE_mask_spline_free(data->orig_spline);
data->orig_spline = NULL;
}
if (weight_scalar != 0.0f) {
*weight = w * weight_scalar;
}
}
}
}
WM_event_add_notifier(C, NC_MASK | NA_EDITED, data->mask);
DAG_id_tag_update(&data->mask->id, 0);
break;
}
case LEFTMOUSE:
if (event->val == KM_RELEASE) {
Scene *scene = CTX_data_scene(C);
/* dont key sliding feather uw's */
if ((data->action == SLIDE_ACTION_FEATHER && data->uw) == FALSE) {
if (IS_AUTOKEY_ON(scene)) {
ED_mask_layer_shape_auto_key(data->masklay, CFRA);
}
}
WM_event_add_notifier(C, NC_MASK | NA_EDITED, data->mask);
DAG_id_tag_update(&data->mask->id, 0);
free_slide_point_data(op->customdata); /* keep this last! */
return OPERATOR_FINISHED;
}
break;
case ESCKEY:
cancel_slide_point(op->customdata);
WM_event_add_notifier(C, NC_MASK | NA_EDITED, data->mask);
DAG_id_tag_update(&data->mask->id, 0);
free_slide_point_data(op->customdata); /* keep this last! */
return OPERATOR_CANCELLED;
}
return OPERATOR_RUNNING_MODAL;
}
static void cancel_mouse_slide_plane_marker(SlidePlaneMarkerData *data)
{
copy_v2_v2(data->corner, data->old_corner);
}
static int imagewraposa_aniso(Tex *tex, Image *ima, ImBuf *ibuf, const float texvec[3], float dxt[2], float dyt[2], TexResult *texres, struct ImagePool *pool, const bool skip_load_image)
{
TexResult texr;
float fx, fy, minx, maxx, miny, maxy;
float maxd, val1, val2, val3;
int curmap, retval, intpol, extflag = 0;
afdata_t AFD;
void (*filterfunc)(TexResult*, ImBuf*, float, float, afdata_t*);
switch (tex->texfilter) {
case TXF_EWA:
filterfunc = ewa_eval;
break;
case TXF_FELINE:
filterfunc = feline_eval;
break;
case TXF_AREA:
default:
filterfunc = area_sample;
}
texres->tin = texres->ta = texres->tr = texres->tg = texres->tb = 0.f;
/* we need to set retval OK, otherwise texture code generates normals itself... */
retval = texres->nor ? 3 : 1;
/* quick tests */
if (ibuf==NULL && ima==NULL) return retval;
if (ima) { /* hack for icon render */
if (skip_load_image && !BKE_image_has_loaded_ibuf(ima)) {
return retval;
}
ibuf = BKE_image_pool_acquire_ibuf(ima, &tex->iuser, pool);
}
if ((ibuf == NULL) || ((ibuf->rect == NULL) && (ibuf->rect_float == NULL))) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
if (ima) {
ima->flag |= IMA_USED_FOR_RENDER;
}
/* mipmap test */
image_mipmap_test(tex, ibuf);
if (ima) {
if ((tex->imaflag & TEX_USEALPHA) && (ima->flag & IMA_IGNORE_ALPHA) == 0) {
if ((tex->imaflag & TEX_CALCALPHA) == 0) {
texres->talpha = 1;
}
}
}
texr.talpha = texres->talpha;
if (tex->imaflag & TEX_IMAROT) {
fy = texvec[0];
fx = texvec[1];
}
else {
fx = texvec[0];
fy = texvec[1];
}
if (ibuf->flags & IB_fields) {
if (R.r.mode & R_FIELDS) { /* field render */
if (R.flag & R_SEC_FIELD) { /* correction for 2nd field */
/* fac1= 0.5/( (float)ibuf->y ); */
/* fy-= fac1; */
}
else /* first field */
fy += 0.5f/( (float)ibuf->y );
}
}
/* pixel coordinates */
minx = min_fff(dxt[0], dyt[0], dxt[0] + dyt[0]);
maxx = max_fff(dxt[0], dyt[0], dxt[0] + dyt[0]);
miny = min_fff(dxt[1], dyt[1], dxt[1] + dyt[1]);
maxy = max_fff(dxt[1], dyt[1], dxt[1] + dyt[1]);
/* tex_sharper has been removed */
minx = (maxx - minx)*0.5f;
miny = (maxy - miny)*0.5f;
if (tex->imaflag & TEX_FILTER_MIN) {
/* make sure the filtersize is minimal in pixels (normal, ref map can have miniature pixel dx/dy) */
const float addval = (0.5f * tex->filtersize) / (float)MIN2(ibuf->x, ibuf->y);
if (addval > minx) minx = addval;
if (addval > miny) miny = addval;
}
else if (tex->filtersize != 1.f) {
minx *= tex->filtersize;
miny *= tex->filtersize;
dxt[0] *= tex->filtersize;
dxt[1] *= tex->filtersize;
dyt[0] *= tex->filtersize;
dyt[1] *= tex->filtersize;
}
if (tex->imaflag & TEX_IMAROT) {
float t;
SWAP(float, minx, miny);
/* must rotate dxt/dyt 90 deg
* yet another blender problem is that swapping X/Y axes (or any tex proj switches) should do something similar,
* but it doesn't, it only swaps coords, so filter area will be incorrect in those cases. */
t = dxt[0];
dxt[0] = dxt[1];
dxt[1] = -t;
t = dyt[0];
dyt[0] = dyt[1];
dyt[1] = -t;
}
/* side faces of unit-cube */
minx = (minx > 0.25f) ? 0.25f : ((minx < 1e-5f) ? 1e-5f : minx);
miny = (miny > 0.25f) ? 0.25f : ((miny < 1e-5f) ? 1e-5f : miny);
/* repeat and clip */
if (tex->extend == TEX_REPEAT) {
if ((tex->flag & (TEX_REPEAT_XMIR | TEX_REPEAT_YMIR)) == (TEX_REPEAT_XMIR | TEX_REPEAT_YMIR))
extflag = TXC_EXTD;
else if (tex->flag & TEX_REPEAT_XMIR)
extflag = TXC_XMIR;
else if (tex->flag & TEX_REPEAT_YMIR)
extflag = TXC_YMIR;
else
extflag = TXC_REPT;
}
else if (tex->extend == TEX_EXTEND)
extflag = TXC_EXTD;
if (tex->extend == TEX_CHECKER) {
int xs = (int)floorf(fx), ys = (int)floorf(fy);
/* both checkers available, no boundary exceptions, checkerdist will eat aliasing */
if ((tex->flag & TEX_CHECKER_ODD) && (tex->flag & TEX_CHECKER_EVEN)) {
fx -= xs;
fy -= ys;
}
else if ((tex->flag & TEX_CHECKER_ODD) == 0 &&
(tex->flag & TEX_CHECKER_EVEN) == 0)
{
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
else {
int xs1 = (int)floorf(fx - minx);
int ys1 = (int)floorf(fy - miny);
int xs2 = (int)floorf(fx + minx);
int ys2 = (int)floorf(fy + miny);
if ((xs1 != xs2) || (ys1 != ys2)) {
if (tex->flag & TEX_CHECKER_ODD) {
fx -= ((xs1 + ys) & 1) ? xs2 : xs1;
fy -= ((ys1 + xs) & 1) ? ys2 : ys1;
}
if (tex->flag & TEX_CHECKER_EVEN) {
fx -= ((xs1 + ys) & 1) ? xs1 : xs2;
fy -= ((ys1 + xs) & 1) ? ys1 : ys2;
}
}
else {
if ((tex->flag & TEX_CHECKER_ODD) == 0 && ((xs + ys) & 1) == 0) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
if ((tex->flag & TEX_CHECKER_EVEN) == 0 && (xs + ys) & 1) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
fx -= xs;
fy -= ys;
}
}
/* scale around center, (0.5, 0.5) */
if (tex->checkerdist < 1.f) {
const float omcd = 1.f / (1.f - tex->checkerdist);
fx = (fx - 0.5f)*omcd + 0.5f;
fy = (fy - 0.5f)*omcd + 0.5f;
minx *= omcd;
miny *= omcd;
}
}
if (tex->extend == TEX_CLIPCUBE) {
if ((fx + minx) < 0.f || (fy + miny) < 0.f || (fx - minx) > 1.f || (fy - miny) > 1.f || texvec[2] < -1.f || texvec[2] > 1.f) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
}
else if (tex->extend == TEX_CLIP || tex->extend == TEX_CHECKER) {
if ((fx + minx) < 0.f || (fy + miny) < 0.f || (fx - minx) > 1.f || (fy - miny) > 1.f) {
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
return retval;
}
}
else {
if (tex->extend == TEX_EXTEND) {
fx = (fx > 1.f) ? 1.f : ((fx < 0.f) ? 0.f : fx);
fy = (fy > 1.f) ? 1.f : ((fy < 0.f) ? 0.f : fy);
}
else {
fx -= floorf(fx);
fy -= floorf(fy);
}
}
intpol = tex->imaflag & TEX_INTERPOL;
/* warning no return! */
if ((R.flag & R_SEC_FIELD) && (ibuf->flags & IB_fields))
ibuf->rect += ibuf->x*ibuf->y;
/* struct common data */
copy_v2_v2(AFD.dxt, dxt);
copy_v2_v2(AFD.dyt, dyt);
AFD.intpol = intpol;
AFD.extflag = extflag;
/* brecht: added stupid clamping here, large dx/dy can give very large
* filter sizes which take ages to render, it may be better to do this
* more intelligently later in the code .. probably it's not noticeable */
if (AFD.dxt[0]*AFD.dxt[0] + AFD.dxt[1]*AFD.dxt[1] > 2.0f*2.0f)
mul_v2_fl(AFD.dxt, 2.0f/len_v2(AFD.dxt));
if (AFD.dyt[0]*AFD.dyt[0] + AFD.dyt[1]*AFD.dyt[1] > 2.0f*2.0f)
mul_v2_fl(AFD.dyt, 2.0f/len_v2(AFD.dyt));
/* choice: */
if (tex->imaflag & TEX_MIPMAP) {
ImBuf *previbuf, *curibuf;
float levf;
int maxlev;
ImBuf *mipmaps[IMB_MIPMAP_LEVELS + 1];
/* modify ellipse minor axis if too eccentric, use for area sampling as well
* scaling dxt/dyt as done in pbrt is not the same
* (as in ewa_eval(), scale by sqrt(ibuf->x) to maximize precision) */
const float ff = sqrtf(ibuf->x), q = ibuf->y/ff;
const float Ux = dxt[0]*ff, Vx = dxt[1]*q, Uy = dyt[0]*ff, Vy = dyt[1]*q;
const float A = Vx*Vx + Vy*Vy;
const float B = -2.f*(Ux*Vx + Uy*Vy);
const float C = Ux*Ux + Uy*Uy;
const float F = A*C - B*B*0.25f;
float a, b, th, ecc;
BLI_ewa_imp2radangle(A, B, C, F, &a, &b, &th, &ecc);
if (tex->texfilter == TXF_FELINE) {
float fProbes;
a *= ff;
b *= ff;
a = max_ff(a, 1.0f);
b = max_ff(b, 1.0f);
fProbes = 2.f*(a / b) - 1.f;
AFD.iProbes = round_fl_to_int(fProbes);
AFD.iProbes = MIN2(AFD.iProbes, tex->afmax);
if (AFD.iProbes < fProbes)
b = 2.f*a / (float)(AFD.iProbes + 1);
AFD.majrad = a/ff;
AFD.minrad = b/ff;
AFD.theta = th;
AFD.dusc = 1.f/ff;
AFD.dvsc = ff / (float)ibuf->y;
}
else { /* EWA & area */
if (ecc > (float)tex->afmax) b = a / (float)tex->afmax;
b *= ff;
}
maxd = max_ff(b, 1e-8f);
levf = ((float)M_LOG2E) * logf(maxd);
curmap = 0;
maxlev = 1;
mipmaps[0] = ibuf;
while (curmap < IMB_MIPMAP_LEVELS) {
mipmaps[curmap + 1] = ibuf->mipmap[curmap];
if (ibuf->mipmap[curmap]) maxlev++;
curmap++;
}
/* mipmap level */
if (levf < 0.f) { /* original image only */
previbuf = curibuf = mipmaps[0];
levf = 0.f;
}
else if (levf >= maxlev - 1) {
previbuf = curibuf = mipmaps[maxlev - 1];
levf = 0.f;
if (tex->texfilter == TXF_FELINE) AFD.iProbes = 1;
}
else {
const int lev = isnan(levf) ? 0 : (int)levf;
curibuf = mipmaps[lev];
previbuf = mipmaps[lev + 1];
levf -= floorf(levf);
}
/* filter functions take care of interpolation themselves, no need to modify dxt/dyt here */
if (texres->nor && ((tex->imaflag & TEX_NORMALMAP) == 0)) {
/* color & normal */
filterfunc(texres, curibuf, fx, fy, &AFD);
val1 = texres->tr + texres->tg + texres->tb;
filterfunc(&texr, curibuf, fx + dxt[0], fy + dxt[1], &AFD);
val2 = texr.tr + texr.tg + texr.tb;
filterfunc(&texr, curibuf, fx + dyt[0], fy + dyt[1], &AFD);
val3 = texr.tr + texr.tg + texr.tb;
/* don't switch x or y! */
texres->nor[0] = val1 - val2;
texres->nor[1] = val1 - val3;
if (previbuf != curibuf) { /* interpolate */
filterfunc(&texr, previbuf, fx, fy, &AFD);
/* rgb */
texres->tr += levf*(texr.tr - texres->tr);
texres->tg += levf*(texr.tg - texres->tg);
texres->tb += levf*(texr.tb - texres->tb);
texres->ta += levf*(texr.ta - texres->ta);
/* normal */
val1 += levf*((texr.tr + texr.tg + texr.tb) - val1);
filterfunc(&texr, previbuf, fx + dxt[0], fy + dxt[1], &AFD);
val2 += levf*((texr.tr + texr.tg + texr.tb) - val2);
filterfunc(&texr, previbuf, fx + dyt[0], fy + dyt[1], &AFD);
val3 += levf*((texr.tr + texr.tg + texr.tb) - val3);
texres->nor[0] = val1 - val2; /* vals have been interpolated above! */
texres->nor[1] = val1 - val3;
}
}
else { /* color */
filterfunc(texres, curibuf, fx, fy, &AFD);
if (previbuf != curibuf) { /* interpolate */
filterfunc(&texr, previbuf, fx, fy, &AFD);
texres->tr += levf*(texr.tr - texres->tr);
texres->tg += levf*(texr.tg - texres->tg);
texres->tb += levf*(texr.tb - texres->tb);
texres->ta += levf*(texr.ta - texres->ta);
}
if (tex->texfilter != TXF_EWA) {
alpha_clip_aniso(ibuf, fx-minx, fy-miny, fx+minx, fy+miny, extflag, texres);
}
}
}
else { /* no mipmap */
/* filter functions take care of interpolation themselves, no need to modify dxt/dyt here */
if (tex->texfilter == TXF_FELINE) {
const float ff = sqrtf(ibuf->x), q = ibuf->y/ff;
const float Ux = dxt[0]*ff, Vx = dxt[1]*q, Uy = dyt[0]*ff, Vy = dyt[1]*q;
const float A = Vx*Vx + Vy*Vy;
const float B = -2.f*(Ux*Vx + Uy*Vy);
const float C = Ux*Ux + Uy*Uy;
const float F = A*C - B*B*0.25f;
float a, b, th, ecc, fProbes;
BLI_ewa_imp2radangle(A, B, C, F, &a, &b, &th, &ecc);
a *= ff;
b *= ff;
a = max_ff(a, 1.0f);
b = max_ff(b, 1.0f);
fProbes = 2.f*(a / b) - 1.f;
/* no limit to number of Probes here */
AFD.iProbes = round_fl_to_int(fProbes);
if (AFD.iProbes < fProbes) b = 2.f*a / (float)(AFD.iProbes + 1);
AFD.majrad = a/ff;
AFD.minrad = b/ff;
AFD.theta = th;
AFD.dusc = 1.f/ff;
AFD.dvsc = ff / (float)ibuf->y;
}
if (texres->nor && ((tex->imaflag & TEX_NORMALMAP) == 0)) {
/* color & normal */
filterfunc(texres, ibuf, fx, fy, &AFD);
val1 = texres->tr + texres->tg + texres->tb;
filterfunc(&texr, ibuf, fx + dxt[0], fy + dxt[1], &AFD);
val2 = texr.tr + texr.tg + texr.tb;
filterfunc(&texr, ibuf, fx + dyt[0], fy + dyt[1], &AFD);
val3 = texr.tr + texr.tg + texr.tb;
/* don't switch x or y! */
texres->nor[0] = val1 - val2;
texres->nor[1] = val1 - val3;
}
else {
filterfunc(texres, ibuf, fx, fy, &AFD);
if (tex->texfilter != TXF_EWA) {
alpha_clip_aniso(ibuf, fx-minx, fy-miny, fx+minx, fy+miny, extflag, texres);
}
}
}
if (tex->imaflag & TEX_CALCALPHA)
texres->ta = texres->tin = texres->ta * max_fff(texres->tr, texres->tg, texres->tb);
else
texres->tin = texres->ta;
if (tex->flag & TEX_NEGALPHA) texres->ta = 1.f - texres->ta;
if ((R.flag & R_SEC_FIELD) && (ibuf->flags & IB_fields))
ibuf->rect -= ibuf->x*ibuf->y;
if (texres->nor && (tex->imaflag & TEX_NORMALMAP)) { /* normal from color */
/* The invert of the red channel is to make
* the normal map compliant with the outside world.
* It needs to be done because in Blender
* the normal used in the renderer points inward. It is generated
* this way in calc_vertexnormals(). Should this ever change
* this negate must be removed. */
texres->nor[0] = -2.f*(texres->tr - 0.5f);
texres->nor[1] = 2.f*(texres->tg - 0.5f);
texres->nor[2] = 2.f*(texres->tb - 0.5f);
}
/* de-premul, this is being premulled in shade_input_do_shade()
* TXF: this currently does not (yet?) work properly, destroys edge AA in clip/checker mode, so for now commented out
* also disabled in imagewraposa() to be able to compare results with blender's default texture filtering */
/* brecht: tried to fix this, see "TXF alpha" comments */
/* do not de-premul for generated alpha, it is already in straight */
if (texres->ta!=1.0f && texres->ta>1e-4f && !(tex->imaflag & TEX_CALCALPHA)) {
fx = 1.f/texres->ta;
texres->tr *= fx;
texres->tg *= fx;
texres->tb *= fx;
}
if (ima)
BKE_image_pool_release_ibuf(ima, ibuf, pool);
BRICONTRGB;
return retval;
}
static int slide_plane_marker_modal(bContext *C, wmOperator *op, const wmEvent *event)
{
SpaceClip *sc = CTX_wm_space_clip(C);
MovieClip *clip = ED_space_clip_get_clip(sc);
SlidePlaneMarkerData *data = (SlidePlaneMarkerData *)op->customdata;
float dx, dy, mdelta[2];
int next_corner_index, prev_corner_index, diag_corner_index;
const float *next_corner, *prev_corner, *diag_corner;
float next_edge[2], prev_edge[2], next_diag_edge[2], prev_diag_edge[2];
switch (event->type) {
case LEFTCTRLKEY:
case RIGHTCTRLKEY:
case LEFTSHIFTKEY:
case RIGHTSHIFTKEY:
if (ELEM(event->type, LEFTSHIFTKEY, RIGHTSHIFTKEY)) {
data->accurate = event->val == KM_PRESS;
}
ATTR_FALLTHROUGH;
case MOUSEMOVE:
mdelta[0] = event->mval[0] - data->previous_mval[0];
mdelta[1] = event->mval[1] - data->previous_mval[1];
dx = mdelta[0] / data->width / sc->zoom;
dy = mdelta[1] / data->height / sc->zoom;
if (data->accurate) {
dx /= 5.0f;
dy /= 5.0f;
}
data->corner[0] = data->previous_corner[0] + dx;
data->corner[1] = data->previous_corner[1] + dy;
/*
* prev_edge
* (Corner 3, current) <----------------------- (Corner 2, previous)
* | ^
* | |
* | |
* | |
* next_edge | | next_diag_edge
* | |
* | |
* | |
* v |
* (Corner 0, next) -----------------------> (Corner 1, diagonal)
* prev_diag_edge
*/
next_corner_index = (data->corner_index + 1) % 4;
prev_corner_index = (data->corner_index + 3) % 4;
diag_corner_index = (data->corner_index + 2) % 4;
next_corner = data->plane_marker->corners[next_corner_index];
prev_corner = data->plane_marker->corners[prev_corner_index];
diag_corner = data->plane_marker->corners[diag_corner_index];
sub_v2_v2v2(next_edge, next_corner, data->corner);
sub_v2_v2v2(prev_edge, data->corner, prev_corner);
sub_v2_v2v2(next_diag_edge, prev_corner, diag_corner);
sub_v2_v2v2(prev_diag_edge, diag_corner, next_corner);
if (cross_v2v2(prev_edge, next_edge) < 0.0f) {
closest_to_line_v2(data->corner, data->corner, prev_corner, next_corner);
}
if (cross_v2v2(next_diag_edge, prev_edge) < 0.0f) {
closest_to_line_v2(data->corner, data->corner, prev_corner, diag_corner);
}
if (cross_v2v2(next_edge, prev_diag_edge) < 0.0f) {
closest_to_line_v2(data->corner, data->corner, next_corner, diag_corner);
}
data->previous_mval[0] = event->mval[0];
data->previous_mval[1] = event->mval[1];
copy_v2_v2(data->previous_corner, data->corner);
DEG_id_tag_update(&sc->clip->id, 0);
WM_event_add_notifier(C, NC_MOVIECLIP | NA_EDITED, NULL);
break;
case LEFTMOUSE:
case RIGHTMOUSE:
if (event->type == data->event_type && event->val == KM_RELEASE) {
/* Marker is now keyframed. */
data->plane_marker->flag &= ~PLANE_MARKER_TRACKED;
slide_plane_marker_update_homographies(sc, data);
free_slide_plane_marker_data(op->customdata);
clip_tracking_show_cursor(C);
DEG_id_tag_update(&sc->clip->id, 0);
WM_event_add_notifier(C, NC_MOVIECLIP | NA_EDITED, clip);
return OPERATOR_FINISHED;
}
break;
case ESCKEY:
cancel_mouse_slide_plane_marker(op->customdata);
free_slide_plane_marker_data(op->customdata);
clip_tracking_show_cursor(C);
WM_event_add_notifier(C, NC_MOVIECLIP | NA_EDITED, clip);
return OPERATOR_CANCELLED;
}
return OPERATOR_RUNNING_MODAL;
}
static void voronoi_removeParabola(VoronoiProcess *process, VoronoiEvent *event)
{
VoronoiParabola *p1 = event->parabola;
VoronoiParabola *xl = voronoiParabola_getLeftParent(p1);
VoronoiParabola *xr = voronoiParabola_getRightParent(p1);
VoronoiParabola *p0 = voronoiParabola_getLeftChild(xl);
VoronoiParabola *p2 = voronoiParabola_getRightChild(xr);
VoronoiParabola *higher = NULL, *par, *gparent;
float p[2];
if (p0->event) {
BLI_freelinkN(&process->queue, p0->event);
p0->event = NULL;
}
if (p2->event) {
BLI_freelinkN(&process->queue, p2->event);
p2->event = NULL;
}
p[0] = event->site[0];
p[1] = voronoi_getY(process, p1->site, event->site[0]);
copy_v2_v2(xl->edge->end, p);
copy_v2_v2(xr->edge->end, p);
par = p1;
while (par != process->root) {
par = par->parent;
if (par == xl) {
higher = xl;
}
if (par == xr) {
higher = xr;
}
}
higher->edge = voronoiEdge_new(p, p0->site, p2->site);
BLI_addtail(&process->edges, higher->edge);
gparent = p1->parent->parent;
if (p1->parent->left == p1) {
if (gparent->left == p1->parent) {
voronoiParabola_setLeft(gparent, p1->parent->right);
}
if (gparent->right == p1->parent) {
voronoiParabola_setRight(gparent, p1->parent->right);
}
}
else {
if (gparent->left == p1->parent) {
voronoiParabola_setLeft(gparent, p1->parent->left);
}
if (gparent->right == p1->parent) {
voronoiParabola_setRight(gparent, p1->parent->left);
}
}
MEM_freeN(p1->parent);
MEM_freeN(p1);
voronoi_checkCircle(process, p0);
voronoi_checkCircle(process, p2);
}
static void stencil_restore(StencilControlData *scd)
{
copy_v2_v2(scd->dim_target, scd->init_sdim);
copy_v2_v2(scd->pos_target, scd->init_spos);
*scd->rot_target = scd->init_rot;
}
static void draw_distortion(SpaceClip *sc, ARegion *ar, MovieClip *clip,
int width, int height, float zoomx, float zoomy)
{
float x, y;
const int n = 10;
int i, j, a;
float pos[2], tpos[2], grid[11][11][2];
MovieTracking *tracking = &clip->tracking;
bGPdata *gpd = NULL;
float aspy = 1.0f / tracking->camera.pixel_aspect;
float dx = (float)width / n, dy = (float)height / n * aspy;
float offsx = 0.0f, offsy = 0.0f;
if (!tracking->camera.focal)
return;
if ((sc->flag & SC_SHOW_GRID) == 0 && (sc->flag & SC_MANUAL_CALIBRATION) == 0)
return;
UI_view2d_view_to_region_fl(&ar->v2d, 0.0f, 0.0f, &x, &y);
glPushMatrix();
glTranslatef(x, y, 0);
glScalef(zoomx, zoomy, 0);
glMultMatrixf(sc->stabmat);
glScalef(width, height, 0);
/* grid */
if (sc->flag & SC_SHOW_GRID) {
float val[4][2], idx[4][2];
float min[2], max[2];
for (a = 0; a < 4; a++) {
if (a < 2)
val[a][a % 2] = FLT_MAX;
else
val[a][a % 2] = -FLT_MAX;
}
zero_v2(pos);
for (i = 0; i <= n; i++) {
for (j = 0; j <= n; j++) {
if (i == 0 || j == 0 || i == n || j == n) {
BKE_tracking_distort_v2(tracking, pos, tpos);
for (a = 0; a < 4; a++) {
int ok;
if (a < 2)
ok = tpos[a % 2] < val[a][a % 2];
else
ok = tpos[a % 2] > val[a][a % 2];
if (ok) {
copy_v2_v2(val[a], tpos);
idx[a][0] = j;
idx[a][1] = i;
}
}
}
pos[0] += dx;
}
pos[0] = 0.0f;
pos[1] += dy;
}
INIT_MINMAX2(min, max);
for (a = 0; a < 4; a++) {
pos[0] = idx[a][0] * dx;
pos[1] = idx[a][1] * dy;
BKE_tracking_undistort_v2(tracking, pos, tpos);
minmax_v2v2_v2(min, max, tpos);
}
copy_v2_v2(pos, min);
dx = (max[0] - min[0]) / n;
dy = (max[1] - min[1]) / n;
for (i = 0; i <= n; i++) {
for (j = 0; j <= n; j++) {
BKE_tracking_distort_v2(tracking, pos, grid[i][j]);
grid[i][j][0] /= width;
grid[i][j][1] /= height * aspy;
pos[0] += dx;
}
pos[0] = min[0];
pos[1] += dy;
}
glColor3f(1.0f, 0.0f, 0.0f);
for (i = 0; i <= n; i++) {
glBegin(GL_LINE_STRIP);
for (j = 0; j <= n; j++) {
glVertex2fv(grid[i][j]);
}
glEnd();
}
for (j = 0; j <= n; j++) {
glBegin(GL_LINE_STRIP);
for (i = 0; i <= n; i++) {
glVertex2fv(grid[i][j]);
}
glEnd();
}
}
if (sc->gpencil_src != SC_GPENCIL_SRC_TRACK) {
gpd = clip->gpd;
}
if (sc->flag & SC_MANUAL_CALIBRATION && gpd) {
bGPDlayer *layer = gpd->layers.first;
while (layer) {
bGPDframe *frame = layer->frames.first;
if (layer->flag & GP_LAYER_HIDE) {
layer = layer->next;
continue;
}
glColor4fv(layer->color);
glLineWidth(layer->thickness);
glPointSize((float)(layer->thickness + 2));
while (frame) {
bGPDstroke *stroke = frame->strokes.first;
while (stroke) {
if (stroke->flag & GP_STROKE_2DSPACE) {
if (stroke->totpoints > 1) {
glBegin(GL_LINE_STRIP);
for (i = 0; i < stroke->totpoints - 1; i++) {
float npos[2], dpos[2], len;
int steps;
pos[0] = (stroke->points[i].x + offsx) * width;
pos[1] = (stroke->points[i].y + offsy) * height * aspy;
npos[0] = (stroke->points[i + 1].x + offsx) * width;
npos[1] = (stroke->points[i + 1].y + offsy) * height * aspy;
len = len_v2v2(pos, npos);
steps = ceil(len / 5.0f);
/* we want to distort only long straight lines */
if (stroke->totpoints == 2) {
BKE_tracking_undistort_v2(tracking, pos, pos);
BKE_tracking_undistort_v2(tracking, npos, npos);
}
sub_v2_v2v2(dpos, npos, pos);
mul_v2_fl(dpos, 1.0f / steps);
for (j = 0; j <= steps; j++) {
BKE_tracking_distort_v2(tracking, pos, tpos);
glVertex2f(tpos[0] / width, tpos[1] / (height * aspy));
add_v2_v2(pos, dpos);
}
}
glEnd();
}
else if (stroke->totpoints == 1) {
glBegin(GL_POINTS);
glVertex2f(stroke->points[0].x + offsx, stroke->points[0].y + offsy);
glEnd();
}
}
stroke = stroke->next;
}
frame = frame->next;
}
layer = layer->next;
}
}
glPopMatrix();
}
/* return non-zero if spline is selected */
static void draw_spline_points(const bContext *C, MaskLayer *masklay, MaskSpline *spline,
const char UNUSED(draw_flag), const char draw_type)
{
const bool is_spline_sel = (spline->flag & SELECT) && (masklay->restrictflag & MASK_RESTRICT_SELECT) == 0;
unsigned char rgb_spline[4];
MaskSplinePoint *points_array = BKE_mask_spline_point_array(spline);
SpaceClip *sc = CTX_wm_space_clip(C);
int undistort = FALSE;
int i, hsize, tot_feather_point;
float (*feather_points)[2], (*fp)[2];
if (!spline->tot_point)
return;
if (sc)
undistort = sc->clip && sc->user.render_flag & MCLIP_PROXY_RENDER_UNDISTORT;
/* TODO, add this to sequence editor */
hsize = 4; /* UI_GetThemeValuef(TH_HANDLE_VERTEX_SIZE); */
glPointSize(hsize);
mask_spline_color_get(masklay, spline, is_spline_sel, rgb_spline);
/* feather points */
feather_points = fp = BKE_mask_spline_feather_points(spline, &tot_feather_point);
for (i = 0; i < spline->tot_point; i++) {
/* watch it! this is intentionally not the deform array, only check for sel */
MaskSplinePoint *point = &spline->points[i];
int j;
for (j = 0; j <= point->tot_uw; j++) {
float feather_point[2];
int sel = FALSE;
copy_v2_v2(feather_point, *fp);
if (undistort)
mask_point_undistort_pos(sc, feather_point, feather_point);
if (j == 0) {
sel = MASKPOINT_ISSEL_ANY(point);
}
else {
sel = point->uw[j - 1].flag & SELECT;
}
if (sel) {
if (point == masklay->act_point)
glColor3f(1.0f, 1.0f, 1.0f);
else
glColor3f(1.0f, 1.0f, 0.0f);
}
else {
glColor3f(0.5f, 0.5f, 0.0f);
}
glBegin(GL_POINTS);
glVertex2fv(feather_point);
glEnd();
fp++;
}
}
MEM_freeN(feather_points);
/* control points */
for (i = 0; i < spline->tot_point; i++) {
/* watch it! this is intentionally not the deform array, only check for sel */
MaskSplinePoint *point = &spline->points[i];
MaskSplinePoint *point_deform = &points_array[i];
BezTriple *bezt = &point_deform->bezt;
float handle[2];
float vert[2];
const bool has_handle = BKE_mask_point_has_handle(point);
copy_v2_v2(vert, bezt->vec[1]);
BKE_mask_point_handle(point_deform, handle);
if (undistort) {
mask_point_undistort_pos(sc, vert, vert);
mask_point_undistort_pos(sc, handle, handle);
}
/* draw handle segment */
if (has_handle) {
/* this could be split into its own loop */
if (draw_type == MASK_DT_OUTLINE) {
const unsigned char rgb_gray[4] = {0x60, 0x60, 0x60, 0xff};
glLineWidth(3);
glColor4ubv(rgb_gray);
glBegin(GL_LINES);
glVertex2fv(vert);
glVertex2fv(handle);
glEnd();
glLineWidth(1);
}
glColor3ubv(rgb_spline);
glBegin(GL_LINES);
glVertex2fv(vert);
glVertex2fv(handle);
glEnd();
}
/* draw CV point */
if (MASKPOINT_ISSEL_KNOT(point)) {
if (point == masklay->act_point)
glColor3f(1.0f, 1.0f, 1.0f);
else
glColor3f(1.0f, 1.0f, 0.0f);
}
else
glColor3f(0.5f, 0.5f, 0.0f);
glBegin(GL_POINTS);
glVertex2fv(vert);
glEnd();
/* draw handle points */
if (has_handle) {
if (MASKPOINT_ISSEL_HANDLE(point)) {
if (point == masklay->act_point)
glColor3f(1.0f, 1.0f, 1.0f);
else
glColor3f(1.0f, 1.0f, 0.0f);
}
else {
glColor3f(0.5f, 0.5f, 0.0f);
}
glBegin(GL_POINTS);
glVertex2fv(handle);
glEnd();
}
}
glPointSize(1.0f);
}