static void bvh_callback(void *userdata, int index, const BVHTreeRay *ray, BVHTreeRayHit *hit)
{
BVHCallbackUserData *data = (struct BVHCallbackUserData *)userdata;
const MLoopTri *lt = &data->sys->heat.mlooptri[index];
const MLoop *mloop = data->sys->heat.mloop;
float (*verts)[3] = data->sys->heat.verts;
const float *vtri_co[3];
float dist_test;
vtri_co[0] = verts[mloop[lt->tri[0]].v];
vtri_co[1] = verts[mloop[lt->tri[1]].v];
vtri_co[2] = verts[mloop[lt->tri[2]].v];
#ifdef USE_KDOPBVH_WATERTIGHT
if (isect_ray_tri_watertight_v3(data->start, ray->isect_precalc, UNPACK3(vtri_co), &dist_test, NULL))
#else
UNUSED_VARS(ray);
if (isect_ray_tri_v3(data->start, data->vec, UNPACK3(vtri_co), &dist_test, NULL))
#endif
{
if (dist_test < hit->dist) {
float n[3];
normal_tri_v3(n, UNPACK3(vtri_co));
if (dot_v3v3(n, data->vec) < -1e-5f) {
hit->index = index;
hit->dist = dist_test;
}
}
}
}
/* copy of function above */
static void mesh_looptri_spherecast(void *userdata, int index, const BVHTreeRay *ray, BVHTreeRayHit *hit)
{
const BVHTreeFromMesh *data = (BVHTreeFromMesh *) userdata;
const MVert *vert = data->vert;
const MLoopTri *lt = &data->looptri[index];
const float *vtri_co[3] = {
vert[data->loop[lt->tri[0]].v].co,
vert[data->loop[lt->tri[1]].v].co,
vert[data->loop[lt->tri[2]].v].co,
};
float dist;
if (data->sphere_radius == 0.0f)
dist = bvhtree_ray_tri_intersection(ray, hit->dist, UNPACK3(vtri_co));
else
dist = bvhtree_sphereray_tri_intersection(ray, data->sphere_radius, hit->dist, UNPACK3(vtri_co));
if (dist >= 0 && dist < hit->dist) {
hit->index = index;
hit->dist = dist;
madd_v3_v3v3fl(hit->co, ray->origin, ray->direction, dist);
normal_tri_v3(hit->no, UNPACK3(vtri_co));
}
}
/**
* Calculate a 3d segment from 2d window coordinates.
* This ray_start is located at the viewpoint, ray_end is a far point.
* ray_start and ray_end are clipped by the view near and far limits
* so points along this line are always in view.
* In orthographic view all resulting segments will be parallel.
* \param ar The region (used for the window width and height).
* \param v3d The 3d viewport (used for near and far clipping range).
* \param mval The area relative 2d location (such as event->mval, converted into float[2]).
* \param ray_start The world-space starting point of the segment.
* \param ray_end The world-space end point of the segment.
* \return success, FALSE if the segment is totally clipped.
*/
int ED_view3d_win_to_segment_clip(ARegion *ar, View3D *v3d, const float mval[2], float ray_start[3], float ray_end[3])
{
RegionView3D *rv3d = ar->regiondata;
ED_view3d_win_to_segment(ar, v3d, mval, ray_start, ray_end);
/* clipping */
if (rv3d->rflag & RV3D_CLIPPING) {
/* if the ray is totally clipped,
* restore the original values but return FALSE
* caller can choose what to do */
float tray_start[3] = {UNPACK3(ray_start)};
float tray_end[3] = {UNPACK3(ray_end)};
int a;
for (a = 0; a < 4; a++) {
if (clip_line_plane(tray_start, tray_end, rv3d->clip[a]) == FALSE) {
return FALSE;
}
}
/* copy in clipped values */
copy_v3_v3(ray_start, tray_start);
copy_v3_v3(ray_end, tray_end);
}
return TRUE;
}
static bool bmbvh_overlap_cb(void *userdata, int index_a, int index_b, int UNUSED(thread))
{
struct BMBVHTree_OverlapData *data = userdata;
const BMBVHTree *bmtree_a = data->tree_pair[0];
const BMBVHTree *bmtree_b = data->tree_pair[1];
BMLoop **tri_a = bmtree_a->looptris[index_a];
BMLoop **tri_b = bmtree_b->looptris[index_b];
const float *tri_a_co[3] = {tri_a[0]->v->co, tri_a[1]->v->co, tri_a[2]->v->co};
const float *tri_b_co[3] = {tri_b[0]->v->co, tri_b[1]->v->co, tri_b[2]->v->co};
float ix_pair[2][3];
int verts_shared = 0;
if (bmtree_a->looptris == bmtree_b->looptris) {
if (UNLIKELY(tri_a[0]->f == tri_b[0]->f)) {
return false;
}
verts_shared = (
ELEM(tri_a_co[0], UNPACK3(tri_b_co)) +
ELEM(tri_a_co[1], UNPACK3(tri_b_co)) +
ELEM(tri_a_co[2], UNPACK3(tri_b_co)));
/* if 2 points are shared, bail out */
if (verts_shared >= 2) {
return false;
}
}
return (isect_tri_tri_epsilon_v3(UNPACK3(tri_a_co), UNPACK3(tri_b_co), ix_pair[0], ix_pair[1], data->epsilon) &&
/* if we share a vertex, check the intersection isn't a 'point' */
((verts_shared == 0) || (len_squared_v3v3(ix_pair[0], ix_pair[1]) > data->epsilon)));
}
static void heat_laplacian_create(LaplacianSystem *sys)
{
const MLoopTri *mlooptri = sys->heat.mlooptri, *lt;
const MLoop *mloop = sys->heat.mloop;
int tottri = sys->heat.tottri;
int totvert = sys->heat.totvert;
int a;
/* heat specific definitions */
sys->heat.mindist = MEM_callocN(sizeof(float) * totvert, "HeatMinDist");
sys->heat.H = MEM_callocN(sizeof(float) * totvert, "HeatH");
sys->heat.p = MEM_callocN(sizeof(float) * totvert, "HeatP");
/* add verts and faces to laplacian */
for (a = 0; a < totvert; a++)
laplacian_add_vertex(sys, sys->heat.verts[a], 0);
for (a = 0, lt = mlooptri; a < tottri; a++, lt++) {
int vtri[3];
vtri[0] = mloop[lt->tri[0]].v;
vtri[1] = mloop[lt->tri[1]].v;
vtri[2] = mloop[lt->tri[2]].v;
laplacian_add_triangle(sys, UNPACK3(vtri));
}
/* for distance computation in set_H */
heat_calc_vnormals(sys);
for (a = 0; a < totvert; a++)
heat_set_H(sys, a);
}
double BLI_quadric_evaluate(const Quadric *q, const float v_fl[3])
{
const double v[3] = {UNPACK3(v_fl)};
return ((q->a2 * v[0] * v[0]) + (q->ab * 2 * v[0] * v[1]) + (q->ac * 2 * v[0] * v[2]) + (q->ad * 2 * v[0]) +
(q->b2 * v[1] * v[1]) + (q->bc * 2 * v[1] * v[2]) + (q->bd * 2 * v[1]) +
(q->c2 * v[2] * v[2]) + (q->cd * 2 * v[2]) +
(q->d2));
}
void BLF_state_print(int fontid)
{
FontBLF *font = blf_get(fontid);
if (font) {
printf("fontid %d %p\n", fontid, (void *)font);
printf(" name: '%s'\n", font->name);
printf(" size: %u\n", font->size);
printf(" dpi: %u\n", font->dpi);
printf(" pos: %.6f %.6f %.6f\n", UNPACK3(font->pos));
printf(" aspect: (%d) %.6f %.6f %.6f\n", (font->flags & BLF_ROTATION) != 0, UNPACK3(font->aspect));
printf(" angle: (%d) %.6f\n", (font->flags & BLF_ASPECT) != 0, font->angle);
printf(" flag: %d\n", font->flags);
}
else {
printf("fontid %d (NULL)\n", fontid);
}
fflush(stdout);
}
/**
* Only to check for error-cases.
*/
static void polyfill_validate_tri(unsigned int (*tris)[3], unsigned int tri_index, EdgeHash *ehash)
{
const unsigned int *tri = tris[tri_index];
int j_curr;
BLI_assert(!ELEM(tri[0], tri[1], tri[2]) &&
!ELEM(tri[1], tri[0], tri[2]) &&
!ELEM(tri[2], tri[0], tri[1]));
for (j_curr = 0; j_curr < 3; j_curr++) {
struct PolyEdge *e;
unsigned int e_v1 = tri[(j_curr ) ];
unsigned int e_v2 = tri[(j_curr + 1) % 3];
e = BLI_edgehash_lookup(ehash, e_v1, e_v2);
if (e) {
if (e->faces[0] == tri_index) {
BLI_assert(e->verts[0] == e_v1);
BLI_assert(e->verts[1] == e_v2);
}
else if (e->faces[1] == tri_index) {
BLI_assert(e->verts[0] == e_v2);
BLI_assert(e->verts[1] == e_v1);
}
else {
BLI_assert(0);
}
BLI_assert(e->faces[0] != e->faces[1]);
BLI_assert(ELEM(e_v1, UNPACK3(tri)));
BLI_assert(ELEM(e_v2, UNPACK3(tri)));
BLI_assert(ELEM(e_v1, UNPACK2(e->verts)));
BLI_assert(ELEM(e_v2, UNPACK2(e->verts)));
BLI_assert(e_v1 != tris[e->faces[0]][e->faces_other_v[0]]);
BLI_assert(e_v1 != tris[e->faces[1]][e->faces_other_v[1]]);
BLI_assert(e_v2 != tris[e->faces[0]][e->faces_other_v[0]]);
BLI_assert(e_v2 != tris[e->faces[1]][e->faces_other_v[1]]);
BLI_assert(ELEM(tri_index, UNPACK2(e->faces)));
}
}
}
/**
* This method computes the Laplacian Matrix and Differential Coordinates for all vertex in the mesh.
* The Linear system is LV = d
* Where L is Laplacian Matrix, V as the vertexes in Mesh, d is the differential coordinates
* The Laplacian Matrix is computes as a
* Lij = sum(Wij) (if i == j)
* Lij = Wij (if i != j)
* Wij is weight between vertex Vi and vertex Vj, we use cotangent weight
*
* The Differential Coordinate is computes as a
* di = Vi * sum(Wij) - sum(Wij * Vj)
* Where :
* di is the Differential Coordinate i
* sum (Wij) is the sum of all weights between vertex Vi and its vertexes neighbors (Vj)
* sum (Wij * Vj) is the sum of the product between vertex neighbor Vj and weight Wij for all neighborhood.
*
* This Laplacian Matrix is described in the paper:
* Desbrun M. et.al, Implicit fairing of irregular meshes using diffusion and curvature flow, SIGGRAPH '99, pag 317-324,
* New York, USA
*
* The computation of Laplace Beltrami operator on Hybrid Triangle/Quad Meshes is described in the paper:
* Pinzon A., Romero E., Shape Inflation With an Adapted Laplacian Operator For Hybrid Quad/Triangle Meshes,
* Conference on Graphics Patterns and Images, SIBGRAPI, 2013
*
* The computation of Differential Coordinates is described in the paper:
* Sorkine, O. Laplacian Surface Editing. Proceedings of the EUROGRAPHICS/ACM SIGGRAPH Symposium on Geometry Processing,
* 2004. p. 179-188.
*/
static void initLaplacianMatrix(LaplacianSystem *sys)
{
float no[3];
float w2, w3;
int i = 3, j, ti;
int idv[3];
for (ti = 0; ti < sys->total_tris; ti++) {
const unsigned int *vidt = sys->tris[ti];
const float *co[3];
co[0] = sys->co[vidt[0]];
co[1] = sys->co[vidt[1]];
co[2] = sys->co[vidt[2]];
normal_tri_v3(no, UNPACK3(co));
add_v3_v3(sys->no[vidt[0]], no);
add_v3_v3(sys->no[vidt[1]], no);
add_v3_v3(sys->no[vidt[2]], no);
for (j = 0; j < 3; j++) {
const float *v1, *v2, *v3;
idv[0] = vidt[j];
idv[1] = vidt[(j + 1) % i];
idv[2] = vidt[(j + 2) % i];
v1 = sys->co[idv[0]];
v2 = sys->co[idv[1]];
v3 = sys->co[idv[2]];
w2 = cotangent_tri_weight_v3(v3, v1, v2);
w3 = cotangent_tri_weight_v3(v2, v3, v1);
sys->delta[idv[0]][0] += v1[0] * (w2 + w3);
sys->delta[idv[0]][1] += v1[1] * (w2 + w3);
sys->delta[idv[0]][2] += v1[2] * (w2 + w3);
sys->delta[idv[0]][0] -= v2[0] * w2;
sys->delta[idv[0]][1] -= v2[1] * w2;
sys->delta[idv[0]][2] -= v2[2] * w2;
sys->delta[idv[0]][0] -= v3[0] * w3;
sys->delta[idv[0]][1] -= v3[1] * w3;
sys->delta[idv[0]][2] -= v3[2] * w3;
nlMatrixAdd(idv[0], idv[1], -w2);
nlMatrixAdd(idv[0], idv[2], -w3);
nlMatrixAdd(idv[0], idv[0], w2 + w3);
}
}
}
/* copy of function above */
static void mesh_looptri_nearest_point(void *userdata, int index, const float co[3], BVHTreeNearest *nearest)
{
const BVHTreeFromMesh *data = (BVHTreeFromMesh *) userdata;
const MVert *vert = data->vert;
const MLoopTri *lt = &data->looptri[index];
const float *vtri_co[3] = {
vert[data->loop[lt->tri[0]].v].co,
vert[data->loop[lt->tri[1]].v].co,
vert[data->loop[lt->tri[2]].v].co,
};
float nearest_tmp[3], dist_sq;
closest_on_tri_to_point_v3(nearest_tmp, co, UNPACK3(vtri_co));
dist_sq = len_squared_v3v3(co, nearest_tmp);
if (dist_sq < nearest->dist_sq) {
nearest->index = index;
nearest->dist_sq = dist_sq;
copy_v3_v3(nearest->co, nearest_tmp);
normal_tri_v3(nearest->no, UNPACK3(vtri_co));
}
}
static void harmonic_ray_callback(void *userdata, int index, const BVHTreeRay *ray, BVHTreeRayHit *hit)
{
struct MeshRayCallbackData *data = userdata;
MeshDeformBind *mdb = data->mdb;
const MLoop *mloop = mdb->cagedm_cache.mloop;
const MLoopTri *looptri = mdb->cagedm_cache.looptri, *lt;
const float (*poly_nors)[3] = mdb->cagedm_cache.poly_nors;
MeshDeformIsect *isec = data->isec;
float no[3], co[3], end[3], uvw[3], dist;
float *face[3];
lt = &looptri[index];
face[0] = mdb->cagecos[mloop[lt->tri[0]].v];
face[1] = mdb->cagecos[mloop[lt->tri[1]].v];
face[2] = mdb->cagecos[mloop[lt->tri[2]].v];
add_v3_v3v3(end, isec->start, isec->vec);
if (!meshdeform_tri_intersect(ray->origin, end, UNPACK3(face), co, uvw))
return;
if (poly_nors) {
copy_v3_v3(no, poly_nors[lt->poly]);
}
else {
normal_tri_v3(no, UNPACK3(face));
}
dist = len_v3v3(ray->origin, co) / isec->vec_length;
if (dist < hit->dist) {
hit->index = index;
hit->dist = dist;
copy_v3_v3(hit->co, co);
isec->isect = (dot_v3v3(no, ray->direction) <= 0.0f);
isec->lambda = dist;
}
}
void BKE_scanfill_obj_dump(ScanFillContext *sf_ctx)
{
FILE *f = fopen("test.obj", "w");
unsigned int i = 1;
ScanFillVert *eve;
ScanFillEdge *eed;
for (eve = sf_ctx->fillvertbase.first; eve; eve = eve->next, i++) {
fprintf(f, "v %f %f %f\n", UNPACK3(eve->co));
eve->keyindex = i;
}
for (eed = sf_ctx->filledgebase.first; eed; eed = eed->next) {
fprintf(f, "f %d %d\n", eed->v1->keyindex, eed->v2->keyindex);
}
fclose(f);
}
static void bmbvh_find_face_closest_cb(void *userdata, int index, const float co[3], BVHTreeNearest *hit)
{
struct FaceSearchUserData *bmcb_data = userdata;
const BMLoop **ltri = bmcb_data->looptris[index];
const float dist_max_sq = bmcb_data->dist_max_sq;
const float *tri_cos[3];
bmbvh_tri_from_face(tri_cos, ltri, bmcb_data->cos_cage);
float co_close[3];
closest_on_tri_to_point_v3(co_close, co, UNPACK3(tri_cos));
const float dist_sq = len_squared_v3v3(co, co_close);
if (dist_sq < hit->dist_sq && dist_sq < dist_max_sq) {
/* XXX, normal ignores cage */
copy_v3_v3(hit->no, ltri[0]->f->no);
hit->dist_sq = dist_sq;
hit->index = index;
}
}
static void polyedge_rotate(
unsigned int (*tris)[3],
struct PolyEdge *e,
EdgeHash *ehash)
{
unsigned int e_v1_new = tris[e->faces[0]][e->faces_other_v[0]];
unsigned int e_v2_new = tris[e->faces[1]][e->faces_other_v[1]];
#ifndef NDEBUG
polyfill_validate_tri(tris, e->faces[0], ehash);
polyfill_validate_tri(tris, e->faces[1], ehash);
#endif
BLI_assert(e_v1_new != e_v2_new);
BLI_assert(!ELEM(e_v2_new, UNPACK3(tris[e->faces[0]])));
BLI_assert(!ELEM(e_v1_new, UNPACK3(tris[e->faces[1]])));
tris[e->faces[0]][(e->faces_other_v[0] + 1) % 3] = e_v2_new;
tris[e->faces[1]][(e->faces_other_v[1] + 1) % 3] = e_v1_new;
e->faces_other_v[0] = (e->faces_other_v[0] + 2) % 3;
e->faces_other_v[1] = (e->faces_other_v[1] + 2) % 3;
BLI_assert((tris[e->faces[0]][e->faces_other_v[0]] != e_v1_new) &&
(tris[e->faces[0]][e->faces_other_v[0]] != e_v2_new));
BLI_assert((tris[e->faces[1]][e->faces_other_v[1]] != e_v1_new) &&
(tris[e->faces[1]][e->faces_other_v[1]] != e_v2_new));
BLI_edgehash_remove(ehash, e->verts[0], e->verts[1], NULL);
BLI_edgehash_insert(ehash, e_v1_new, e_v2_new, e);
if (e_v1_new < e_v2_new) {
e->verts[0] = e_v1_new;
e->verts[1] = e_v2_new;
}
else {
/* maintain winding info */
e->verts[0] = e_v2_new;
e->verts[1] = e_v1_new;
SWAP(unsigned int, e->faces[0], e->faces[1]);
SWAP(unsigned int, e->faces_other_v[0], e->faces_other_v[1]);
}
/* update adjacent data */
{
unsigned int e_side = 0;
for (e_side = 0; e_side < 2; e_side++) {
/* 't_other' which we need to swap out is always the same edge-order */
const unsigned int t_other = (((e->faces_other_v[e_side]) + 2)) % 3;
unsigned int t_index = e->faces[e_side];
unsigned int t_index_other = e->faces[!e_side];
unsigned int *tri = tris[t_index];
struct PolyEdge *e_other;
unsigned int e_v1 = tri[(t_other ) ];
unsigned int e_v2 = tri[(t_other + 1) % 3];
e_other = BLI_edgehash_lookup(ehash, e_v1, e_v2);
if (e_other) {
BLI_assert(t_index != e_other->faces[0] && t_index != e_other->faces[1]);
if (t_index_other == e_other->faces[0]) {
e_other->faces[0] = t_index;
e_other->faces_other_v[0] = (t_other + 2) % 3;
BLI_assert(!ELEM(tri[e_other->faces_other_v[0]], e_v1, e_v2));
}
else if (t_index_other == e_other->faces[1]) {
e_other->faces[1] = t_index;
e_other->faces_other_v[1] = (t_other + 2) % 3;
BLI_assert(!ELEM(tri[e_other->faces_other_v[1]], e_v1, e_v2));
}
else {
BLI_assert(0);
}
}
}
}
#ifndef NDEBUG
polyfill_validate_tri(tris, e->faces[0], ehash);
polyfill_validate_tri(tris, e->faces[1], ehash);
#endif
BLI_assert(!ELEM(tris[e->faces[0]][e->faces_other_v[0]], UNPACK2(e->verts)));
BLI_assert(!ELEM(tris[e->faces[1]][e->faces_other_v[1]], UNPACK2(e->verts)));
}
void Controller::ComputeViewMap()
{
if (!_ListOfModels.size())
return;
DeleteViewMap(true);
// retrieve the 3D viewpoint and transformations information
//----------------------------------------------------------
// Save the viewpoint context at the view level in order
// to be able to restore it later:
// Restore the context of view:
// we need to perform all these operations while the
// 3D context is on.
Vec3f vp(UNPACK3(g_freestyle.viewpoint));
#if 0
if (G.debug & G_DEBUG_FREESTYLE) {
cout << "mv" << endl;
}
#endif
real mv[4][4];
for (int i = 0; i < 4; i++) {
for (int j = 0; j < 4; j++) {
mv[i][j] = g_freestyle.mv[i][j];
#if 0
if (G.debug & G_DEBUG_FREESTYLE) {
cout << mv[i][j] << " ";
}
#endif
}
#if 0
if (G.debug & G_DEBUG_FREESTYLE) {
cout << endl;
}
#endif
}
#if 0
if (G.debug & G_DEBUG_FREESTYLE) {
cout << "\nproj" << endl;
}
#endif
real proj[4][4];
for (int i = 0; i < 4; i++) {
for (int j = 0; j < 4; j++) {
proj[i][j] = g_freestyle.proj[i][j];
#if 0
if (G.debug & G_DEBUG_FREESTYLE) {
cout << proj[i][j] << " ";
}
#endif
}
#if 0
if (G.debug & G_DEBUG_FREESTYLE) {
cout << endl;
}
#endif
}
int viewport[4];
for (int i = 0; i < 4; i++)
viewport[i] = g_freestyle.viewport[i];
#if 0
if (G.debug & G_DEBUG_FREESTYLE) {
cout << "\nfocal:" << _pView->GetFocalLength() << endl << endl;
}
#endif
// Flag the WXEdge structure for silhouette edge detection:
//----------------------------------------------------------
if (G.debug & G_DEBUG_FREESTYLE) {
cout << "\n=== Detecting silhouette edges ===" << endl;
}
_Chrono.start();
edgeDetector.setViewpoint(vp);
edgeDetector.enableOrthographicProjection(proj[3][3] != 0.0);
edgeDetector.enableRidgesAndValleysFlag(_ComputeRidges);
edgeDetector.enableSuggestiveContours(_ComputeSuggestive);
edgeDetector.enableMaterialBoundaries(_ComputeMaterialBoundaries);
edgeDetector.enableFaceSmoothness(_EnableFaceSmoothness);
edgeDetector.setCreaseAngle(_creaseAngle);
edgeDetector.setSphereRadius(_sphereRadius);
edgeDetector.setSuggestiveContourKrDerivativeEpsilon(_suggestiveContourKrDerivativeEpsilon);
edgeDetector.setRenderMonitor(_pRenderMonitor);
edgeDetector.processShapes(*_winged_edge);
real duration = _Chrono.stop();
if (G.debug & G_DEBUG_FREESTYLE) {
printf("Feature lines : %lf\n", duration);
}
if (_pRenderMonitor->testBreak())
return;
// Builds the view map structure from the flagged WSEdge structure:
//----------------------------------------------------------
ViewMapBuilder vmBuilder;
vmBuilder.setEnableQI(_EnableQI);
vmBuilder.setViewpoint(vp);
vmBuilder.setTransform(mv, proj, viewport, _pView->GetFocalLength(), _pView->GetAspect(), _pView->GetFovyRadian());
vmBuilder.setFrustum(_pView->znear(), _pView->zfar());
vmBuilder.setGrid(&_Grid);
vmBuilder.setRenderMonitor(_pRenderMonitor);
#if 0
// Builds a tesselated form of the silhouette for display purpose:
//---------------------------------------------------------------
ViewMapTesselator3D sTesselator3d;
ViewMapTesselator2D sTesselator2d;
sTesselator2d.setNature(_edgeTesselationNature);
sTesselator3d.setNature(_edgeTesselationNature);
#endif
if (G.debug & G_DEBUG_FREESTYLE) {
cout << "\n=== Building the view map ===" << endl;
}
_Chrono.start();
// Build View Map
_ViewMap = vmBuilder.BuildViewMap(*_winged_edge, _VisibilityAlgo, _EPSILON, _Scene3dBBox, _SceneNumFaces);
_ViewMap->setScene3dBBox(_Scene3dBBox);
if (G.debug & G_DEBUG_FREESTYLE) {
printf("ViewMap edge count : %i\n", _ViewMap->viewedges_size());
}
#if 0
// Tesselate the 3D edges:
_SilhouetteNode = sTesselator3d.Tesselate(_ViewMap);
_SilhouetteNode->addRef();
// Tesselate 2D edges
_ProjectedSilhouette = sTesselator2d.Tesselate(_ViewMap);
_ProjectedSilhouette->addRef();
#endif
duration = _Chrono.stop();
if (G.debug & G_DEBUG_FREESTYLE) {
printf("ViewMap building : %lf\n", duration);
}
#if 0
_pView->AddSilhouette(_SilhouetteNode);
_pView->AddSilhouette(_WRoot);
_pView->Add2DSilhouette(_ProjectedSilhouette);
_pView->Add2DVisibleSilhouette(_VisibleProjectedSilhouette);
_pView->AddDebug(_DebugNode);
#endif
// Draw the steerable density map:
//--------------------------------
if (_ComputeSteerableViewMap) {
ComputeSteerableViewMap();
}
// Reset Style modules modification flags
resetModified(true);
DeleteWingedEdge();
}
static bool view3d_ruler_pick(RulerInfo *ruler_info, const float mval[2],
RulerItem **r_ruler_item, int *r_co_index)
{
ARegion *ar = ruler_info->ar;
RulerItem *ruler_item;
float dist_best = RULER_PICK_DIST_SQ;
RulerItem *ruler_item_best = NULL;
int co_index_best = -1;
for (ruler_item = ruler_info->items.first; ruler_item; ruler_item = ruler_item->next) {
float co_ss[3][2];
float dist;
int j;
/* should these be checked? - ok for now not to */
for (j = 0; j < 3; j++) {
ED_view3d_project_float_global(ar, ruler_item->co[j], co_ss[j], V3D_PROJ_TEST_NOP);
}
if (ruler_item->flag & RULERITEM_USE_ANGLE) {
dist = min_ff(dist_squared_to_line_segment_v2(mval, co_ss[0], co_ss[1]),
dist_squared_to_line_segment_v2(mval, co_ss[1], co_ss[2]));
if (dist < dist_best) {
dist_best = dist;
ruler_item_best = ruler_item;
{
const float dist_points[3] = {
len_squared_v2v2(co_ss[0], mval),
len_squared_v2v2(co_ss[1], mval),
len_squared_v2v2(co_ss[2], mval),
};
if (min_fff(UNPACK3(dist_points)) < RULER_PICK_DIST_SQ) {
co_index_best = min_axis_v3(dist_points);
}
else {
co_index_best = -1;
}
}
}
}
else {
dist = dist_squared_to_line_segment_v2(mval, co_ss[0], co_ss[2]);
if (dist < dist_best) {
dist_best = dist;
ruler_item_best = ruler_item;
{
const float dist_points[2] = {
len_squared_v2v2(co_ss[0], mval),
len_squared_v2v2(co_ss[2], mval),
};
if (min_ff(UNPACK2(dist_points)) < RULER_PICK_DIST_SQ) {
co_index_best = (dist_points[0] < dist_points[1]) ? 0 : 2;
}
else {
co_index_best = -1;
}
}
}
}
}
if (ruler_item_best) {
*r_ruler_item = ruler_item_best;
*r_co_index = co_index_best;
return true;
}
else {
*r_ruler_item = NULL;
*r_co_index = -1;
return false;
}
}
/* used by node view too */
void ED_image_draw_info(Scene *scene, ARegion *ar, bool color_manage, bool use_default_view, int channels, int x, int y,
const unsigned char cp[4], const float fp[4], const float linearcol[4], int *zp, float *zpf)
{
rcti color_rect;
char str[256];
int dx = 6;
const int dy = 0.3f * UI_UNIT_Y;
/* text colors */
/* XXX colored text not allowed in Blender UI */
#if 0
unsigned char red[3] = {255, 50, 50};
unsigned char green[3] = {0, 255, 0};
unsigned char blue[3] = {100, 100, 255};
#else
unsigned char red[3] = {255, 255, 255};
unsigned char green[3] = {255, 255, 255};
unsigned char blue[3] = {255, 255, 255};
#endif
float hue = 0, sat = 0, val = 0, lum = 0, u = 0, v = 0;
float col[4], finalcol[4];
glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
glEnable(GL_BLEND);
/* noisy, high contrast make impossible to read if lower alpha is used. */
glColor4ub(0, 0, 0, 190);
glRecti(0.0, 0.0, BLI_rcti_size_x(&ar->winrct) + 1, UI_UNIT_Y);
glDisable(GL_BLEND);
BLF_size(blf_mono_font, 11 * U.pixelsize, U.dpi);
glColor3ub(255, 255, 255);
BLI_snprintf(str, sizeof(str), "X:%-4d Y:%-4d |", x, y);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
if (zp) {
glColor3ub(255, 255, 255);
BLI_snprintf(str, sizeof(str), " Z:%-.4f |", 0.5f + 0.5f * (((float)*zp) / (float)0x7fffffff));
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
}
if (zpf) {
glColor3ub(255, 255, 255);
BLI_snprintf(str, sizeof(str), " Z:%-.3f |", *zpf);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
}
if (channels >= 3) {
glColor3ubv(red);
if (fp)
BLI_snprintf(str, sizeof(str), " R:%-.5f", fp[0]);
else if (cp)
BLI_snprintf(str, sizeof(str), " R:%-3d", cp[0]);
else
BLI_snprintf(str, sizeof(str), " R:-");
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
glColor3ubv(green);
if (fp)
BLI_snprintf(str, sizeof(str), " G:%-.5f", fp[1]);
else if (cp)
BLI_snprintf(str, sizeof(str), " G:%-3d", cp[1]);
else
BLI_snprintf(str, sizeof(str), " G:-");
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
glColor3ubv(blue);
if (fp)
BLI_snprintf(str, sizeof(str), " B:%-.5f", fp[2]);
else if (cp)
BLI_snprintf(str, sizeof(str), " B:%-3d", cp[2]);
else
BLI_snprintf(str, sizeof(str), " B:-");
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
if (channels == 4) {
glColor3ub(255, 255, 255);
if (fp)
BLI_snprintf(str, sizeof(str), " A:%-.4f", fp[3]);
else if (cp)
BLI_snprintf(str, sizeof(str), " A:%-3d", cp[3]);
else
BLI_snprintf(str, sizeof(str), "- ");
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
}
if (color_manage) {
float rgba[4];
copy_v3_v3(rgba, linearcol);
if (channels == 3)
rgba[3] = 1.0f;
else
rgba[3] = linearcol[3];
if (use_default_view)
IMB_colormanagement_pixel_to_display_space_v4(rgba, rgba, NULL, &scene->display_settings);
else
IMB_colormanagement_pixel_to_display_space_v4(rgba, rgba, &scene->view_settings, &scene->display_settings);
BLI_snprintf(str, sizeof(str), " | CM R:%-.4f G:%-.4f B:%-.4f", rgba[0], rgba[1], rgba[2]);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
}
}
/* color rectangle */
if (channels == 1) {
if (fp) {
col[0] = col[1] = col[2] = fp[0];
}
else if (cp) {
col[0] = col[1] = col[2] = (float)cp[0] / 255.0f;
}
else {
col[0] = col[1] = col[2] = 0.0f;
}
col[3] = 1.0f;
}
else if (channels == 3) {
copy_v3_v3(col, linearcol);
col[3] = 1.0f;
}
else if (channels == 4) {
copy_v4_v4(col, linearcol);
}
else {
BLI_assert(0);
zero_v4(col);
}
if (color_manage) {
if (use_default_view)
IMB_colormanagement_pixel_to_display_space_v4(finalcol, col, NULL, &scene->display_settings);
else
IMB_colormanagement_pixel_to_display_space_v4(finalcol, col, &scene->view_settings, &scene->display_settings);
}
else {
copy_v4_v4(finalcol, col);
}
glDisable(GL_BLEND);
dx += 0.25f * UI_UNIT_X;
BLI_rcti_init(&color_rect, dx, dx + (1.5f * UI_UNIT_X), 0.15f * UI_UNIT_Y, 0.85f * UI_UNIT_Y);
if (channels == 4) {
rcti color_rect_half;
int color_quater_x, color_quater_y;
color_rect_half = color_rect;
color_rect_half.xmax = BLI_rcti_cent_x(&color_rect);
glRecti(color_rect.xmin, color_rect.ymin, color_rect.xmax, color_rect.ymax);
color_rect_half = color_rect;
color_rect_half.xmin = BLI_rcti_cent_x(&color_rect);
color_quater_x = BLI_rcti_cent_x(&color_rect_half);
color_quater_y = BLI_rcti_cent_y(&color_rect_half);
glColor4ub(UI_ALPHA_CHECKER_DARK, UI_ALPHA_CHECKER_DARK, UI_ALPHA_CHECKER_DARK, 255);
glRecti(color_rect_half.xmin, color_rect_half.ymin, color_rect_half.xmax, color_rect_half.ymax);
glColor4ub(UI_ALPHA_CHECKER_LIGHT, UI_ALPHA_CHECKER_LIGHT, UI_ALPHA_CHECKER_LIGHT, 255);
glRecti(color_quater_x, color_quater_y, color_rect_half.xmax, color_rect_half.ymax);
glRecti(color_rect_half.xmin, color_rect_half.ymin, color_quater_x, color_quater_y);
glEnable(GL_BLEND);
glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
glColor4f(UNPACK3(finalcol), fp ? fp[3] : (cp[3] / 255.0f));
glRecti(color_rect.xmin, color_rect.ymin, color_rect.xmax, color_rect.ymax);
glDisable(GL_BLEND);
}
else {
glColor3fv(finalcol);
glRecti(color_rect.xmin, color_rect.ymin, color_rect.xmax, color_rect.ymax);
}
/* draw outline */
glColor3ub(128, 128, 128);
glPolygonMode(GL_FRONT_AND_BACK, GL_LINE);
glRecti(color_rect.xmin, color_rect.ymin, color_rect.xmax, color_rect.ymax);
glPolygonMode(GL_FRONT_AND_BACK, GL_FILL);
dx += 1.75f * UI_UNIT_X;
glColor3ub(255, 255, 255);
if (channels == 1) {
if (fp) {
rgb_to_hsv(fp[0], fp[0], fp[0], &hue, &sat, &val);
rgb_to_yuv(fp[0], fp[0], fp[0], &lum, &u, &v);
}
else if (cp) {
rgb_to_hsv((float)cp[0] / 255.0f, (float)cp[0] / 255.0f, (float)cp[0] / 255.0f, &hue, &sat, &val);
rgb_to_yuv((float)cp[0] / 255.0f, (float)cp[0] / 255.0f, (float)cp[0] / 255.0f, &lum, &u, &v);
}
BLI_snprintf(str, sizeof(str), "V:%-.4f", val);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
BLI_snprintf(str, sizeof(str), " L:%-.4f", lum);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
}
else if (channels >= 3) {
rgb_to_hsv(finalcol[0], finalcol[1], finalcol[2], &hue, &sat, &val);
rgb_to_yuv(finalcol[0], finalcol[1], finalcol[2], &lum, &u, &v);
BLI_snprintf(str, sizeof(str), "H:%-.4f", hue);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
BLI_snprintf(str, sizeof(str), " S:%-.4f", sat);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
BLI_snprintf(str, sizeof(str), " V:%-.4f", val);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
BLI_snprintf(str, sizeof(str), " L:%-.4f", lum);
BLF_position(blf_mono_font, dx, dy, 0);
BLF_draw_ascii(blf_mono_font, str, sizeof(str));
dx += BLF_width(blf_mono_font, str, sizeof(str));
}
(void)dx;
}
static void rotateDifferentialCoordinates(LaplacianSystem *sys)
{
float alpha, beta, gamma;
float pj[3], ni[3], di[3];
float uij[3], dun[3], e2[3], pi[3], fni[3], vn[3][3];
int i, j, num_fni, k, fi;
int *fidn;
for (i = 0; i < sys->total_verts; i++) {
copy_v3_v3(pi, sys->co[i]);
copy_v3_v3(ni, sys->no[i]);
k = sys->unit_verts[i];
copy_v3_v3(pj, sys->co[k]);
sub_v3_v3v3(uij, pj, pi);
mul_v3_v3fl(dun, ni, dot_v3v3(uij, ni));
sub_v3_v3(uij, dun);
normalize_v3(uij);
cross_v3_v3v3(e2, ni, uij);
copy_v3_v3(di, sys->delta[i]);
alpha = dot_v3v3(ni, di);
beta = dot_v3v3(uij, di);
gamma = dot_v3v3(e2, di);
pi[0] = nlGetVariable(0, i);
pi[1] = nlGetVariable(1, i);
pi[2] = nlGetVariable(2, i);
zero_v3(ni);
num_fni = 0;
num_fni = sys->ringf_map[i].count;
for (fi = 0; fi < num_fni; fi++) {
const unsigned int *vin;
fidn = sys->ringf_map[i].indices;
vin = sys->tris[fidn[fi]];
for (j = 0; j < 3; j++) {
vn[j][0] = nlGetVariable(0, vin[j]);
vn[j][1] = nlGetVariable(1, vin[j]);
vn[j][2] = nlGetVariable(2, vin[j]);
if (vin[j] == sys->unit_verts[i]) {
copy_v3_v3(pj, vn[j]);
}
}
normal_tri_v3(fni, UNPACK3(vn));
add_v3_v3(ni, fni);
}
normalize_v3(ni);
sub_v3_v3v3(uij, pj, pi);
mul_v3_v3fl(dun, ni, dot_v3v3(uij, ni));
sub_v3_v3(uij, dun);
normalize_v3(uij);
cross_v3_v3v3(e2, ni, uij);
fni[0] = alpha * ni[0] + beta * uij[0] + gamma * e2[0];
fni[1] = alpha * ni[1] + beta * uij[1] + gamma * e2[1];
fni[2] = alpha * ni[2] + beta * uij[2] + gamma * e2[2];
if (len_squared_v3(fni) > FLT_EPSILON) {
nlRightHandSideSet(0, i, fni[0]);
nlRightHandSideSet(1, i, fni[1]);
nlRightHandSideSet(2, i, fni[2]);
}
else {
nlRightHandSideSet(0, i, sys->delta[i][0]);
nlRightHandSideSet(1, i, sys->delta[i][1]);
nlRightHandSideSet(2, i, sys->delta[i][2]);
}
}
}
