void ConstructRegionBrushes(scene::INodePtr brushes[6], const Vector3& region_mins, const Vector3& region_maxs)
{
const float THICKNESS = 10;
{
// set mins
Vector3 mins(region_mins[0]-THICKNESS, region_mins[1]-THICKNESS, region_mins[2]-THICKNESS);
// vary maxs
for(std::size_t i=0; i<3; i++)
{
Vector3 maxs(region_maxs[0]+THICKNESS, region_maxs[1]+THICKNESS, region_maxs[2]+THICKNESS);
maxs[i] = region_mins[i];
Brush_ConstructCuboid(*Node_getBrush(brushes[i]),
AABB::createFromMinMax(mins, maxs),
texdef_name_default(),
TextureProjection());
}
}
{
// set maxs
Vector3 maxs(region_maxs[0]+THICKNESS, region_maxs[1]+THICKNESS, region_maxs[2]+THICKNESS);
// vary mins
for(std::size_t i=0; i<3; i++)
{
Vector3 mins(region_mins[0]-THICKNESS, region_mins[1]-THICKNESS, region_mins[2]-THICKNESS);
mins[i] = region_maxs[i];
Brush_ConstructCuboid(*Node_getBrush(brushes[i+3]),
AABB::createFromMinMax(mins, maxs),
texdef_name_default(),
TextureProjection());
}
}
}
char* mthr(float time1, float time2, char* inject)
{
static char fmttime[] = "00:00A> 00:00A";
int h1 = hours(time1);
int m1 = mins(time1);
int h2 = hours(time2);
int m2 = mins(time2);
if (clock_is_24h_style()) {
mini_snprintf(fmttime, sizeof(fmttime), "%d:%02d%s %d:%02d",h1,m1,inject,h2,m2);
} else {
if (h1 > 11 && h2 > 11) {
if (h1 > 12) h1 -= 12;
if (h2 > 12) h2 -= 12;
mini_snprintf(fmttime, sizeof(fmttime), "%d:%02dP%s %d:%02dP",h1,m1,inject,h2,m2);
} else if (h1 > 11) {
if (h1 > 12) h1 -= 12;
if (h2 == 0) h2=12;
mini_snprintf(fmttime, sizeof(fmttime), "%d:%02dP%s %d:%02dA",h1,m1,inject,h2,m2);
} else if (h2 > 11) {
if (h2 > 12) h2 -= 12;
if (h1 == 0) h1=12;
mini_snprintf(fmttime, sizeof(fmttime), "%d:%02dA%s %d:%02dP",h1,m1,inject,h2,m2);
} else {
if (h1 == 0) h1=12;
if (h2 == 0) h2=12;
mini_snprintf(fmttime, sizeof(fmttime), "%d:%02dA%s %d:%02dA",h1,m1,inject,h2,m2);
}
}
return fmttime;
}
void ConstructRegionBrushes(scene::Node* brushes[6], const Vector3& region_mins, const Vector3& region_maxs)
{
{
// set mins
Vector3 mins(region_mins[0]-32, region_mins[1]-32, region_mins[2]-32);
// vary maxs
for(std::size_t i=0; i<3; i++)
{
Vector3 maxs(region_maxs[0]+32, region_maxs[1]+32, region_maxs[2]+32);
maxs[i] = region_mins[i];
Brush_ConstructCuboid(*Node_getBrush(*brushes[i]), aabb_for_minmax(mins, maxs), texdef_name_default(), TextureProjection());
}
}
{
// set maxs
Vector3 maxs(region_maxs[0]+32, region_maxs[1]+32, region_maxs[2]+32);
// vary mins
for(std::size_t i=0; i<3; i++)
{
Vector3 mins(region_mins[0]-32, region_mins[1]-32, region_mins[2]-32);
mins[i] = region_maxs[i];
Brush_ConstructCuboid(*Node_getBrush(*brushes[i+3]), aabb_for_minmax(mins, maxs), texdef_name_default(), TextureProjection());
}
}
}
std::pair<Float3, Float3> TransformBoundingBox(const Float3x4& transformation, std::pair<Float3, Float3> boundingBox)
{
Float3 corners[] =
{
Float3( boundingBox.first[0], boundingBox.first[1], boundingBox.first[2] ),
Float3( boundingBox.second[0], boundingBox.first[1], boundingBox.first[2] ),
Float3( boundingBox.first[0], boundingBox.second[1], boundingBox.first[2] ),
Float3( boundingBox.second[0], boundingBox.second[1], boundingBox.first[2] ),
Float3( boundingBox.first[0], boundingBox.first[1], boundingBox.second[2] ),
Float3( boundingBox.second[0], boundingBox.first[1], boundingBox.second[2] ),
Float3( boundingBox.first[0], boundingBox.second[1], boundingBox.second[2] ),
Float3( boundingBox.second[0], boundingBox.second[1], boundingBox.second[2] )
};
for (unsigned c=0; c<dimof(corners); ++c) {
corners[c] = TransformPoint(transformation, corners[c]);
}
Float3 mins(FLT_MAX, FLT_MAX, FLT_MAX), maxs(-FLT_MAX, -FLT_MAX, -FLT_MAX);
for (unsigned c=0; c<dimof(corners); ++c) {
mins[0] = std::min(mins[0], corners[c][0]);
mins[1] = std::min(mins[1], corners[c][1]);
mins[2] = std::min(mins[2], corners[c][2]);
maxs[0] = std::max(maxs[0], corners[c][0]);
maxs[1] = std::max(maxs[1], corners[c][1]);
maxs[2] = std::max(maxs[2], corners[c][2]);
}
return std::make_pair(mins, maxs);
}
void glBox(idVec3_t &color, idVec3_t &point, float size) {
idVec3_t mins(point);
idVec3_t maxs(point);
mins[0] -= size;
mins[1] += size;
mins[2] -= size;
maxs[0] += size;
maxs[1] -= size;
maxs[2] += size;
qglColor3fv(color);
qglBegin(GL_LINE_LOOP);
qglVertex3f(mins[0],mins[1],mins[2]);
qglVertex3f(maxs[0],mins[1],mins[2]);
qglVertex3f(maxs[0],maxs[1],mins[2]);
qglVertex3f(mins[0],maxs[1],mins[2]);
qglEnd();
qglBegin(GL_LINE_LOOP);
qglVertex3f(mins[0],mins[1],maxs[2]);
qglVertex3f(maxs[0],mins[1],maxs[2]);
qglVertex3f(maxs[0],maxs[1],maxs[2]);
qglVertex3f(mins[0],maxs[1],maxs[2]);
qglEnd();
qglBegin(GL_LINES);
qglVertex3f(mins[0],mins[1],mins[2]);
qglVertex3f(mins[0],mins[1],maxs[2]);
qglVertex3f(mins[0],maxs[1],maxs[2]);
qglVertex3f(mins[0],maxs[1],mins[2]);
qglVertex3f(maxs[0],mins[1],mins[2]);
qglVertex3f(maxs[0],mins[1],maxs[2]);
qglVertex3f(maxs[0],maxs[1],maxs[2]);
qglVertex3f(maxs[0],maxs[1],mins[2]);
qglEnd();
}
Nested<CircleArc> canonicalize_circle_arcs(Nested<const CircleArc> polys) {
// Find the minimal point in each polygon under lexicographic order
Array<int> mins(polys.size());
for (int p=0;p<polys.size();p++) {
const auto poly = polys[p];
for (int i=1;i<poly.size();i++)
if (lex_less(poly[i].x,poly[mins[p]].x))
mins[p] = i;
}
// Sort the polygons
struct Order {
Nested<const CircleArc> polys;
RawArray<const int> mins;
Order(Nested<const CircleArc> polys, RawArray<const int> mins)
: polys(polys), mins(mins) {}
bool operator()(int i,int j) const {
return lex_less(polys(i,mins[i]).x,polys(j,mins[j]).x);
}
};
Array<int> order = arange(polys.size()).copy();
sort(order,Order(polys,mins));
// Copy into new array
Nested<CircleArc> new_polys(polys.sizes().subset(order).copy(),uninit);
for (int p=0;p<polys.size();p++) {
const int base = mins[order[p]];
const auto poly = polys[order[p]];
const auto new_poly = new_polys[p];
for (int i=0;i<poly.size();i++)
new_poly[i] = poly[(i+base)%poly.size()];
}
return new_polys;
}
static bool rar_restart_solid(ar_archive *ar)
{
ar_archive_rar *rar = (ar_archive_rar *)ar;
off64_t current_offset = ar->entry_offset;
log("Restarting decompression for solid entry");
if (!ar_parse_entry_at(ar, ar->entry_offset_first)) {
ar_parse_entry_at(ar, current_offset);
return false;
}
while (ar->entry_offset < current_offset) {
size_t size = ar->entry_size_uncompressed;
rar->solid.restart = false;
while (size > 0) {
unsigned char buffer[1024];
size_t count = mins(size, sizeof(buffer));
if (!ar_entry_uncompress(ar, buffer, count)) {
ar_parse_entry_at(ar, current_offset);
return false;
}
size -= count;
}
if (!ar_parse_entry(ar)) {
ar_parse_entry_at(ar, current_offset);
return false;
}
}
rar->solid.restart = false;
return true;
}
Q3BSPNode *Q3BSPRep::createNode( int n ){
q3_node *q3node=(q3_node*)header.dir[3].lump+n;
q3_plane *q3plane=(q3_plane*)header.dir[2].lump+q3node->plane;
Q3BSPNode *node=new Q3BSPNode;
Vector mins( q3node->mins[0],q3node->mins[1],q3node->mins[2] );
Vector maxs( q3node->maxs[0],q3node->maxs[1],q3node->maxs[2] );
node->box=Box( tf(mins) );
node->box.update( tf(maxs) );
node->plane.n=tf(q3plane->normal);
node->plane.d=-q3plane->distance;
for( int k=0;k<2;++k ){
if( q3node->children[k]>=0 ){
node->nodes[k]=createNode( q3node->children[k] );
node->leafs[k]=0;
}else{
node->leafs[k]=createLeaf( -q3node->children[k]-1 );
node->nodes[k]=0;
}
}
return node;
}
void Brush_ConstructCuboid(Brush& brush, const AABB& bounds, const std::string& shader, const TextureProjection& projection)
{
const unsigned char box[3][2] = { { 0, 1 }, { 2, 0 }, { 1, 2 } };
Vector3 mins(bounds.origin - bounds.extents);
Vector3 maxs(bounds.origin + bounds.extents);
brush.clear();
brush.reserve(6);
{
for(int i=0; i < 3; ++i)
{
Vector3 planepts1(maxs);
Vector3 planepts2(maxs);
planepts2[box[i][0]] = mins[box[i][0]];
planepts1[box[i][1]] = mins[box[i][1]];
brush.addPlane(maxs, planepts1, planepts2, shader, projection);
}
}
{
for(int i=0; i < 3; ++i)
{
Vector3 planepts1(mins);
Vector3 planepts2(mins);
planepts1[box[i][0]] = maxs[box[i][0]];
planepts2[box[i][1]] = maxs[box[i][1]];
brush.addPlane(mins, planepts1, planepts2, shader, projection);
}
}
}
void Clipper::getPlanePoints(Vector3 planepts[3], const AABB& bounds) const {
ASSERT_MESSAGE(valid(), "clipper points not initialised");
planepts[0] = _clipPoints[0]._coords;
planepts[1] = _clipPoints[1]._coords;
planepts[2] = _clipPoints[2]._coords;
Vector3 maxs(bounds.origin + bounds.extents);
Vector3 mins(bounds.origin - bounds.extents);
if (!_clipPoints[2].isSet()) {
int n = (_viewType == XY) ? 2 : (_viewType == YZ) ? 0 : 1;
int x = (n == 0) ? 1 : 0;
int y = (n == 2) ? 1 : 2;
if (n == 1) // on viewtype XZ, flip clip points
{
planepts[0][n] = maxs[n];
planepts[1][n] = maxs[n];
planepts[2][x] = _clipPoints[0]._coords[x];
planepts[2][y] = _clipPoints[0]._coords[y];
planepts[2][n] = mins[n];
}
else {
planepts[0][n] = mins[n];
planepts[1][n] = mins[n];
planepts[2][x] = _clipPoints[0]._coords[x];
planepts[2][y] = _clipPoints[0]._coords[y];
planepts[2][n] = maxs[n];
}
}
}
Vertex3D_PCT* Fonts::CreateCharactersVerts(Vector3 startPos, std::string words, float scale, RGBA& color, int& size)
{
size_t wordsLength = words.length();
Vertex3D_PCT* verts = new Vertex3D_PCT[wordsLength*6];
float startPosX = startPos.x;
float startPosY = startPos.y;
for (size_t i = 0; i < wordsLength; i++)
{
for (unsigned int j = 0; j<m_characters.size(); j++)
{
if (m_characters[j].m_ID != words[i])
{
continue;
}
Vector2 mins(startPosX + scale*m_characters[j].m_OffsetXY.x, startPosY - scale*(m_characters[j].m_OffsetXY.y + m_characters[j].m_GLYPHWH.y));
Vector2 maxs(startPosX + scale*(m_characters[j].m_OffsetXY.x + m_characters[j].m_GLYPHWH.x), startPosY - scale*(m_characters[j].m_OffsetXY.y));
verts[i*6] = Vertex3D_PCT(Vector3(mins.x, maxs.y, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y), color);
verts[i*6+1] = Vertex3D_PCT(Vector3(mins.x, mins.y, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), color);
verts[i*6+2] = Vertex3D_PCT(Vector3(maxs.x, mins.y, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), color);
verts[i * 6 + 3] = Vertex3D_PCT(Vector3(mins.x, maxs.y, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y), color);
verts[i * 6 + 4] = Vertex3D_PCT(Vector3(maxs.x, mins.y, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), color);
verts[i * 6 + 5] = Vertex3D_PCT(Vector3(maxs.x, maxs.y, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y), color);
startPosX += scale*m_characters[j].m_XAdvance;
break;
}
}
size = wordsLength*6;
return verts;
}
int minCut(string s) {
int len = s.size();
int minSplit = 1000;
if(len <= 0){
return minSplit;
}
vector<int> mins(len);
mins[0] = 0;
for(int i = 1; i < len; i++){
int min = 1000;
for(int j = i; j > 0; j--){
if(mins[j - 1] < min && isPalindrome(s, j, i - j + 1)){
int curStep = mins[j - 1] + 1;
min = curStep > min ? min : curStep;
}
}
if(isPalindrome(s, 0, i + 1)){
min = 0;
}
mins[i] = min;
}
return mins[len - 1];
}
int main(int argc, char *argv[])
{
int fuseargcount=1;
char *fuseargv[6];
struct fuse_operations capfs_oper;
capfs_oper.init = capfs_init,
capfs_oper.destroy = capfs_destroy,
capfs_oper.getattr = capfs_getattr,
capfs_oper.fgetattr = capfs_fgetattr,
capfs_oper.access = capfs_access,
capfs_oper.readlink = capfs_readlink,
capfs_oper.readdir = capfs_readdir,
capfs_oper.mknod = capfs_mknod,
capfs_oper.mkdir = capfs_mkdir,
capfs_oper.symlink = capfs_symlink,
capfs_oper.unlink = capfs_unlink,
capfs_oper.rmdir = capfs_rmdir,
capfs_oper.rename = capfs_rename,
capfs_oper.link = capfs_link,
capfs_oper.chmod = capfs_chmod,
capfs_oper.chown = capfs_chown,
capfs_oper.truncate = capfs_truncate,
capfs_oper.ftruncate = capfs_ftruncate,
capfs_oper.utimens = capfs_utimens,
capfs_oper.create = capfs_create,
capfs_oper.open = capfs_open,
capfs_oper.read = capfs_read,
capfs_oper.write = capfs_write,
capfs_oper.statfs = capfs_statfs,
capfs_oper.release = capfs_release,
capfs_oper.opendir = capfs_opendir,
capfs_oper.releasedir = capfs_releasedir,
capfs_oper.fsync = capfs_fsync,
capfs_oper.flush = capfs_flush,
capfs_oper.fsyncdir = capfs_fsyncdir,
capfs_oper.lock = capfs_lock,
capfs_oper.bmap = capfs_bmap,
capfs_oper.ioctl = capfs_ioctl,
capfs_oper.poll = capfs_poll,
capfs_oper.setxattr = capfs_setxattr,
capfs_oper.getxattr = capfs_getxattr,
capfs_oper.listxattr = capfs_listxattr,
capfs_oper.removexattr = capfs_removexattr,
capfs_oper.flag_nullpath_ok = 0;
fuseargv[0]=argv[0];
if ((argc > 1) && (argv[1][0] == '-')) {
fuseargv[1]=argv[1];
fuseargcount=2;
}
string_literal_wrapper mino("-o");
fuseargv[fuseargcount]=mino; //After the argv[0] and optionaly a -d argument set some options:
string_literal_wrapper allow_other("allow_other");
fuseargv[fuseargcount+1]=allow_other; //* allow all users to access the filesystem.
string_literal_wrapper mins("-s");
fuseargv[fuseargcount+2]=mins; //Run the filesystem as single threaded.
string_literal_wrapper mountpoint("/minorfs/cap");
fuseargv[fuseargcount+3]=mountpoint;
return fuse_main(4+fuseargcount, fuseargv, &capfs_oper,NULL);
}
//=mins if dir < 0
//=maxs if dir >= 0
array minmaxs(const array f1,const array f2,const array df,const array dir )
{
array condition = (dir>=0);
array res = condition*maxs(f1, f2, df)
+(1-condition)*mins(f1, f2, df);
res.eval();
return res;
}
static CString GetStringTime(__int64 ms)
{
__int64 h(ms/(1000*60*60));
__int64 mins(ms-h*1000*60*60);
__int64 m(mins/(1000*60));
__int64 s(mins-m*1000*60);
s /= 1000;
CString t;
t.Format(_T("%02d:%02d:%02d"), (int)h,(int)m,(int)s);
return t;
}
void Cone::generate (Brush& brush, const AABB& bounds, std::size_t sides, const TextureProjection& projection,
const std::string& shader)
{
if (sides < _minSides) {
gtkutil::errorDialog(_("Too few sides for constructing the prism, minimum is 3"));
return;
}
if (sides > _maxSides) {
gtkutil::errorDialog(_("Too many sides for constructing the prism, maximum is 32"));
return;
}
brush.clear();
brush.reserve(sides + 1);
Vector3 mins(bounds.origin - bounds.extents);
Vector3 maxs(bounds.origin + bounds.extents);
float radius = maxExtent(bounds.extents);
const Vector3& mid = bounds.origin;
Vector3 planepts[3];
planepts[0][0] = mins[0];
planepts[0][1] = mins[1];
planepts[0][2] = mins[2];
planepts[1][0] = maxs[0];
planepts[1][1] = mins[1];
planepts[1][2] = mins[2];
planepts[2][0] = maxs[0];
planepts[2][1] = maxs[1];
planepts[2][2] = mins[2];
brush.addPlane(planepts[0], planepts[1], planepts[2], shader, projection);
for (std::size_t i = 0; i < sides; ++i) {
double sv = sin(i * 3.14159265 * 2 / sides);
double cv = cos(i * 3.14159265 * 2 / sides);
planepts[0][0] = static_cast<float> (floor(mid[0] + radius * cv + 0.5));
planepts[0][1] = static_cast<float> (floor(mid[1] + radius * sv + 0.5));
planepts[0][2] = mins[2];
planepts[1][0] = mid[0];
planepts[1][1] = mid[1];
planepts[1][2] = maxs[2];
planepts[2][0] = static_cast<float> (floor(planepts[0][0] - radius * sv + 0.5));
planepts[2][1] = static_cast<float> (floor(planepts[0][1] + radius * cv + 0.5));
planepts[2][2] = maxs[2];
brush.addPlane(planepts[0], planepts[1], planepts[2], shader, projection);
}
}
//#################### PUBLIC METHODS ####################
void BroadPhaseCollisionDetector::add_object(const PhysicsObject_Ptr& object)
{
// Step 1: Determine the lowest grid for the object, based on the maximum dimension of
// the bounding box of its movement.
Vector3d halfDimensions = object->bounds(m_boundsManager)->half_dimensions();
Vector3d previousPos = object->previous_position() ? *object->previous_position() : object->position();
Vector3d pos = object->position();
Vector3d mins(std::min(previousPos.x, pos.x), std::min(previousPos.y, pos.y), std::min(previousPos.z, pos.z));
mins -= halfDimensions;
Vector3d maxs(std::max(previousPos.x, pos.x), std::max(previousPos.y, pos.y), std::max(previousPos.z, pos.z));
maxs += halfDimensions;
Vector3d size = maxs - mins;
double maxDimension = std::max(std::max(size.x, size.y), size.z);
HGrid::iterator lowestGrid = m_hgrid.lower_bound(maxDimension);
// Step 2: Determine which cells it overlaps on the lowest grid just identified.
std::set<CellIndex> cells = determine_overlapped_cells(mins, maxs, lowestGrid->first);
// Step 3: Insert the object into every grid above (and including) the lowest one,
// flagging collisions where applicable.
for(HGrid::iterator it=lowestGrid, iend=m_hgrid.end(); it!=iend; ++it)
{
bool lowest = it == lowestGrid;
if(!lowest)
{
// Propagate the cells up to the next layer.
cells = propagate_cells(cells);
}
for(std::set<CellIndex>::const_iterator jt=cells.begin(), jend=cells.end(); jt!=jend; ++jt)
{
CellData& data = it->second[*jt];
// Look through the objects already overlapping the cell and flag any necessary collisions.
for(CellData::const_iterator kt=data.begin(), kend=data.end(); kt!=kend; ++kt)
{
if(lowest || kt->second) // if this is the lowest layer for at least one of the objects
{
m_potentialCollisions.insert(std::make_pair(kt->first, object));
}
}
// Add the object itself to the set of those overlapping the cell.
data.push_back(std::make_pair(object, lowest));
}
}
}
void Brush_ConstructCone(Brush& brush, const AABB& bounds, std::size_t sides, const char* shader, const TextureProjection& projection)
{
if(sides < c_brushCone_minSides)
{
globalErrorStream() << c_brushCone_name << ": sides " << Unsigned(sides) << ": too few sides, minimum is " << Unsigned(c_brushCone_minSides) << "\n";
return;
}
if(sides > c_brushCone_maxSides)
{
globalErrorStream() << c_brushCone_name << ": sides " << Unsigned(sides) << ": too many sides, maximum is " << Unsigned(c_brushCone_maxSides) << "\n";
return;
}
brush.undoSave();
brush.clear();
brush.reserve(sides+1);
Vector3 mins(vector3_subtracted(bounds.origin, bounds.extents));
Vector3 maxs(vector3_added(bounds.origin, bounds.extents));
float radius = max_extent(bounds.extents);
const Vector3& mid = bounds.origin;
Vector3 planepts[3];
planepts[0][0] = mins[0];planepts[0][1] = mins[1];planepts[0][2] = mins[2];
planepts[1][0] = maxs[0];planepts[1][1] = mins[1];planepts[1][2] = mins[2];
planepts[2][0] = maxs[0];planepts[2][1] = maxs[1];planepts[2][2] = mins[2];
brush.addPlane(planepts[0], planepts[1], planepts[2], shader, projection);
for (std::size_t i=0 ; i<sides ; ++i)
{
double sv = sin (i*3.14159265*2/sides);
double cv = cos (i*3.14159265*2/sides);
planepts[0][0] = static_cast<float>(floor(mid[0]+radius*cv+0.5));
planepts[0][1] = static_cast<float>(floor(mid[1]+radius*sv+0.5));
planepts[0][2] = mins[2];
planepts[1][0] = mid[0];
planepts[1][1] = mid[1];
planepts[1][2] = maxs[2];
planepts[2][0] = static_cast<float>(floor(planepts[0][0] - radius * sv + 0.5));
planepts[2][1] = static_cast<float>(floor(planepts[0][1] + radius * cv + 0.5));
planepts[2][2] = maxs[2];
brush.addPlane(planepts[0], planepts[1], planepts[2], shader, projection);
}
}
int minCut(string s) {
int len = (int)s.length();
if (len == 0) return 0;
/* Step 1 Generate Palindrome Matrix */
vector<vector<bool>> palinMat;
for (int i = 0; i < len; i++) {
vector<bool> palinRow = vector<bool>(len,false);
palinRow[i] = true;
palinMat.push_back(palinRow);
}
// step size from 1 to N - 1
for (int step = 1; step < len; step++) {
for (int start = 0; start + step < len; start++) {
int end = start + step;
if (s[start] != s[end]) {//s[i] != s[j], mat(i,j) = false
palinMat[start][end] = false;
}else{
//s[i] == s[j], check mat[i+1,j-1] when step > 1,if step == 1 no need to check
if (step == 1) palinMat[start][end] = true;
else palinMat[start][end] = palinMat[start + 1][end - 1];
}
}
}
/* use dp to find min-cut
Under the condition palinMat[start][end] == true:
1) mins[end] = mins[start - 1] + 1 if mins[end] > mins[start - 1] + 1
2) mins[end] = 0 if start == 0
*/
vector<int> mins(len,len);
mins[0] = 0;
for (int start = 0; start < len; start++) {
for (int end = start; end < len; end++) {
if (palinMat[start][end] && start == 0) {
mins[end] = 0;
continue;
}
if (palinMat[start][end] && mins[start - 1] + 1 < mins[end])
mins[end] = mins[start - 1] + 1;
}
}
return mins[len - 1];
}
NTBVertex3D_PCT* Fonts::CreateNTBVertsFromStringVector(Vector3 startPos, std::vector<std::string>& currentStringVec, float scale, RGBA& color, int& size)
{
size = 0;
std::vector<NTBVertex3D_PCT> verts;
RGBA fadeColor = RGBA(color.GetRed(), color.GetGreen(), color.GetBlue(), fadeScale);
for (int k = (int)currentStringVec.size() - 1; k >= 0; k--)
{
size_t wordsLength = currentStringVec[k].length();
float startPosX = startPos.x;
float startPosY = startPos.y;
float yOffsetFloat = 0.0f;
m_curserPos.x = startPosX;
for (size_t i = 0; i < wordsLength; i++)
{
for (unsigned int j = 0; j < m_characters.size(); j++)
{
if (m_characters[j].m_ID != currentStringVec[k][i])
{
continue;
}
Vector2 mins(startPosX + scale*m_characters[j].m_OffsetXY.x, startPosY - scale*(m_characters[j].m_OffsetXY.y + m_characters[j].m_GLYPHWH.y));
Vector2 maxs(startPosX + scale*(m_characters[j].m_OffsetXY.x + m_characters[j].m_GLYPHWH.x), startPosY - scale*(m_characters[j].m_OffsetXY.y));
mins += Vector2(0.0f, m_scale * (currentStringVec.size() - k - 1));
maxs += Vector2(0.0f, m_scale * (currentStringVec.size() - k - 1));
verts.push_back(NTBVertex3D_PCT(Vector3(mins.x, maxs.y - yOffsetFloat, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), fadeColor));
verts.push_back(NTBVertex3D_PCT(Vector3(mins.x, mins.y - yOffsetFloat, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), fadeColor));
verts.push_back(NTBVertex3D_PCT(Vector3(maxs.x, mins.y - yOffsetFloat, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), fadeColor));
verts.push_back(NTBVertex3D_PCT(Vector3(mins.x, maxs.y - yOffsetFloat, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), fadeColor));
verts.push_back(NTBVertex3D_PCT(Vector3(maxs.x, mins.y - yOffsetFloat, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), fadeColor));
verts.push_back(NTBVertex3D_PCT(Vector3(maxs.x, maxs.y - yOffsetFloat, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), Vector3(0.0F, 0.0F, 0.0F), fadeColor));
startPosX += scale*m_characters[j].m_XAdvance;
break;
}
}
yOffsetFloat += 0.0f;
}
NTBVertex3D_PCT* passOutVerts = new NTBVertex3D_PCT[verts.size()];
memcpy(passOutVerts, verts.data(), verts.size()*sizeof(NTBVertex3D_PCT));
size = verts.size();
return passOutVerts;
}
//If 12 hour time, subtract 12 from hr if hr > 12
char* thr(float time, char ap)
{
static char fmttime[] = "00:00A";
int h = hours(time);
int m = mins(time);
if (clock_is_24h_style()) {
mini_snprintf(fmttime, sizeof(fmttime), "%d:%02d",h,m);
} else {
if (h > 11) {
if (h > 12) h -= 12;
mini_snprintf(fmttime, sizeof(fmttime), (ap==1)?"%d:%02dP":"%d:%02d",h,m);
} else {
if (h == 0) h=12;
mini_snprintf(fmttime, sizeof(fmttime), (ap==1)?"%d:%02dA":"%d:%02d",h,m);
}
}
return fmttime;
}
Vertex3D_PCT* Fonts::CreateConsoleCharactersVerts(Vector3 startPos, float scale, RGBA& color, int& size)
{
size = 0;
std::vector<Vertex3D_PCT> verts;
RGBA fadeColor = RGBA(color.GetRed(), color.GetGreen(), color.GetBlue(), fadeScale);
for (int k = (int)m_log.size()-1; k >= 0; k--)
{
size_t wordsLength = m_log[k].length();
float startPosX = startPos.x;
float startPosY = startPos.y;
m_curserPos.x = startPosX;
for (size_t i = 0; i < wordsLength; i++)
{
for (unsigned int j = 0; j < m_characters.size(); j++)
{
if (m_characters[j].m_ID != m_log[k][i])
{
continue;
}
Vector2 mins(startPosX + scale*m_characters[j].m_OffsetXY.x, startPosY - scale*(m_characters[j].m_OffsetXY.y + m_characters[j].m_GLYPHWH.y));
Vector2 maxs(startPosX + scale*(m_characters[j].m_OffsetXY.x + m_characters[j].m_GLYPHWH.x), startPosY - scale*(m_characters[j].m_OffsetXY.y));
mins += Vector2(0.0f, m_scale * (m_log.size() - k - 1));
maxs += Vector2(0.0f, m_scale * (m_log.size() - k - 1));
verts.push_back(Vertex3D_PCT(Vector3(mins.x, maxs.y, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y), fadeColor));
verts.push_back(Vertex3D_PCT(Vector3(mins.x, mins.y, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), fadeColor));
verts.push_back(Vertex3D_PCT(Vector3(maxs.x, mins.y, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), fadeColor));
verts.push_back(Vertex3D_PCT(Vector3(mins.x, maxs.y, startPos.z), Vector2(m_characters[j].m_XY.x, m_characters[j].m_XY.y), fadeColor));
verts.push_back(Vertex3D_PCT(Vector3(maxs.x, mins.y, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y + m_characters[j].m_WH.y), fadeColor));
verts.push_back(Vertex3D_PCT(Vector3(maxs.x, maxs.y, startPos.z), Vector2(m_characters[j].m_XY.x + m_characters[j].m_WH.x, m_characters[j].m_XY.y), fadeColor));
startPosX += scale*m_characters[j].m_XAdvance;
break;
}
}
}
Vertex3D_PCT* passOutVerts = new Vertex3D_PCT[verts.size()];
memcpy(passOutVerts,verts.data(),verts.size()*sizeof(Vertex3D_PCT));
size = verts.size();
return passOutVerts;
}
inline HRectBound<MetricType, ElemType>& HRectBound<MetricType, ElemType>::operator|=(
const MatType& data)
{
Log::Assert(data.n_rows == dim);
arma::Col<ElemType> mins(min(data, 1));
arma::Col<ElemType> maxs(max(data, 1));
minWidth = std::numeric_limits<ElemType>::max();
for (size_t i = 0; i < dim; i++)
{
bounds[i] |= math::RangeType<ElemType>(mins[i], maxs[i]);
const ElemType width = bounds[i].Width();
if (width < minWidth)
minWidth = width;
}
return *this;
}
void CPhysicsCollision::InitBBoxCache()
{
Vector boxVerts[8], *ppVerts[8];
Vector mins(-16,-16,0), maxs(16,16,72);
// init with the player box
InitBoxVerts( boxVerts, ppVerts, mins, maxs );
// Generate a convex hull from the verts
CPhysConvex *pConvex = ConvexFromVerts( ppVerts, 8 );
IVP_Compact_Poly_Point *pPoints = reinterpret_cast<IVP_Compact_Ledge *>(pConvex)->get_point_array();
for ( int i = 0; i < 8; i++ )
{
int nearest = -1;
float minDist = 0.1;
Vector tmp;
ConvertPositionToHL( pPoints[i], tmp );
for ( int j = 0; j < 8; j++ )
{
float dist = (boxVerts[j] - tmp).Length();
if ( dist < minDist )
{
minDist = dist;
nearest = j;
}
}
m_bboxVertMap[i] = nearest;
#if _DEBUG
for ( int k = 0; k < i; k++ )
{
Assert( m_bboxVertMap[k] != m_bboxVertMap[i] );
}
#endif
// NOTE: If this is wrong, you can disable FAST_BBOX above to fix
AssertMsg( nearest != -1, "CPhysCollide: Vert map is wrong\n" );
}
CPhysCollide *pCollide = ConvertConvexToCollide( &pConvex, 1 );
AddBBoxCache( pCollide, mins, maxs );
}
int maximumGap(vector<int>& nums) {
if (nums.size() < 2)
return 0;
int min = *min_element(nums.begin(), nums.end());
int mymax = *max_element(nums.begin(), nums.end());
int range = mymax - min;
int nbuckets = nums.size();
vector<int> mins(nbuckets, INT_MAX), maxs(nbuckets, INT_MIN);
for(auto x : nums) {
int index = ((double)(x-min)*(nbuckets-1))/range;
if (mins[index] > x) mins[index] = x;
if (maxs[index] < x) maxs[index] = x;
}
int prev = maxs[0];
mymax = 0;
for (int i = 1; i < nbuckets; i++) {
if (mins[i] == INT_MAX) continue;
mymax = max(mymax, mins[i]-prev);
prev = maxs[i];
}
return mymax;
}
/*
================
glBox
================
*/
void glBox(idVec4 &color, idVec3 &point, float size) {
idVec3 mins(point);
idVec3 maxs(point);
mins[0] -= size;
mins[1] += size;
mins[2] -= size;
maxs[0] += size;
maxs[1] -= size;
maxs[2] += size;
idVec4 saveColor;
qglGetFloatv(GL_CURRENT_COLOR, saveColor.ToFloatPtr());
qglColor3fv( color.ToFloatPtr() );
qglBegin(GL_LINE_LOOP);
qglVertex3f(mins[0],mins[1],mins[2]);
qglVertex3f(maxs[0],mins[1],mins[2]);
qglVertex3f(maxs[0],maxs[1],mins[2]);
qglVertex3f(mins[0],maxs[1],mins[2]);
qglEnd();
qglBegin(GL_LINE_LOOP);
qglVertex3f(mins[0],mins[1],maxs[2]);
qglVertex3f(maxs[0],mins[1],maxs[2]);
qglVertex3f(maxs[0],maxs[1],maxs[2]);
qglVertex3f(mins[0],maxs[1],maxs[2]);
qglEnd();
qglBegin(GL_LINES);
qglVertex3f(mins[0],mins[1],mins[2]);
qglVertex3f(mins[0],mins[1],maxs[2]);
qglVertex3f(mins[0],maxs[1],maxs[2]);
qglVertex3f(mins[0],maxs[1],mins[2]);
qglVertex3f(maxs[0],mins[1],mins[2]);
qglVertex3f(maxs[0],mins[1],maxs[2]);
qglVertex3f(maxs[0],maxs[1],maxs[2]);
qglVertex3f(maxs[0],maxs[1],mins[2]);
qglEnd();
qglColor4fv(saveColor.ToFloatPtr());
}
void CDecalsDrawerGL4::UpdateBoundingBox(SDecalGroup& g)
{
if (g.ids.front() == 0) {
g.boundAABB.fill(float4());
return;
}
// compute the AABB
float3 mins(1e9,1e9,1e9), maxs(-1e9,-1e9,-1e9);
for (int idx: g.ids) {
if (idx == 0)
break;
Decal& d = decals[idx];
const auto e = GetEdgePoinsOfDecal(d);
for (const float2& p: e) {
mins = float3::min(mins, float3(p.x, d.pos.y - d.size.x, p.y));
maxs = float3::max(maxs, float3(p.x, d.pos.y + d.size.x, p.y));
}
}
mins.y = std::max(mins.y, readMap->GetCurrMinHeight());
maxs.y = std::min(maxs.y, readMap->GetCurrMaxHeight());
g.boundAABB = {{ float4(mins, 0.f), float4(maxs, 0.f) }};
}
static int refine_func(int nv, REAL *vertex, int nf, neigh_faces *tadj, neigh_points *eadj, int nt, int *tetra) {
int j, l;
int pn;
int a, b, c, p;
int n_iters, s;
REAL ds, d, *dx;
REAL dm, d1, d2, delta;
REAL rs, r;
REAL x[3], z[3];
pn = 0;
ds = 0.0;
for (j=nf; j<nv; j++) {
d = 0.0, s = 0;
for (l=eadj->i[j]; l<eadj->i[j+1]; l++) {
c = eadj->p[l];
d += disti(vertex, j, c);
s++;
}
if (s > 0) d /= s;
ds += d;
pn++;
}
if (pn == 0) return 0;
ds /= pn;
// printf("ds = %lf\n", ds);
dx = (REAL*)libaft_malloc(sizeof(REAL)*3*pn);
delta = 0.1;
n_iters = 1000; // 4000
d = 0.05 * ds * ds / n_iters; // 1.0
dm = mins(vertex, nt, tetra);
if (dm < 0.0) {
d1 = 0.05 * -dm;
d2 = 0.0001 * -dm;
} else {
d1 = 0.5 * dm;
d2 = 0.001 * dm;
}
// printf("delta in [%le, %le]\n", d1, d2);
for (s=0; s<n_iters; s++) {
// dm = mins(vertex, nt, tetra);
// if (dm < 0.0) delta = 0.001*-dm;
// else delta = 0.001*dm;
// delta = (d1*(n_iters-s) + d2*s)/n_iters;
// delta = 1e-6;
delta = 1.0 * ds * ds * ds * (1.0 - 0.999*s/n_iters);
// printf("delta = %lf\n", delta);
rs = 0.0;
for (j=0; j<pn; j++) {
p = nf+j;
x[0] = 0.0, x[1] = 0.0, x[2] = 0.0;
for (l=tadj->i[p]; l<tadj->i[p+1]; l++) {
a = tadj->f[l][0];
b = tadj->f[l][1];
c = tadj->f[l][2];
func_xyz(vertex, p, a, b, c, z, delta, ds, 6);
x[0] -= z[0], x[1] -= z[1], x[2] -= z[2];
}
r = sqrt(x[0]*x[0] + x[1]*x[1] + x[2]*x[2]);
if (r>1.0/ds*2) {
r = 1.0/ds*2*(1.0 + log(r*ds/2))/r;
x[0] *= r, x[1] *= r, x[2] *= r;
}
dx[3*j + 0] = x[0], dx[3*j + 1] = x[1], dx[3*j + 2] = x[2];
r = sqrt(x[0]*x[0] + x[1]*x[1] + x[2]*x[2]);
if (rs < r) rs = r;
}
for (j=0; j<pn; j++) {
p = nf+j;
vertex[3*p + 0] += d*dx[3*j + 0];
vertex[3*p + 1] += d*dx[3*j + 1];
}
printf("rs = %le\t[%6.2lf%%]\r", rs*d, 100.0*(s+1.0)/n_iters);
}
// printf("\n");
qmin=1.0, qmax = 0.0, maxdf = 0.0;
libaft_free(dx);
return 0;
}
//--------------------------------------------------------------------------------------------------------------
void CNavNode::CheckCrouch( void )
{
CTraceFilterWalkableEntities filter( NULL, COLLISION_GROUP_PLAYER_MOVEMENT, WALK_THRU_EVERYTHING );
trace_t tr;
// Trace downward from duck height to find the max floor height for the node's surroundings
Vector mins( -HalfHumanWidth, -HalfHumanWidth, 0 );
Vector maxs( HalfHumanWidth, HalfHumanWidth, 0 );
Vector start( m_pos.x, m_pos.y, m_pos.z + VEC_DUCK_HULL_MAX.z - 0.1f );
UTIL_TraceHull(
start,
m_pos,
mins,
maxs,
MASK_PLAYERSOLID_BRUSHONLY,
&filter,
&tr );
Vector groundPos = tr.endpos;
if ( tr.startsolid && !tr.allsolid )
{
// Try going down out of the solid and re-check for the floor height
start.z -= tr.endpos.z - 0.1f;
UTIL_TraceHull(
start,
m_pos,
mins,
maxs,
MASK_PLAYERSOLID_BRUSHONLY,
&filter,
&tr );
groundPos = tr.endpos;
}
if ( tr.startsolid )
{
// we don't even have duck height clear. try a simple check to find floor height.
float x, y;
// Find the highest floor z - for a player to stand in this area, we need a full
// VEC_HULL_MAX.z of clearance above this height at all points.
float maxFloorZ = m_pos.z;
for( y = -HalfHumanWidth; y <= HalfHumanWidth + 0.1f; y += HalfHumanWidth )
{
for( x = -HalfHumanWidth; x <= HalfHumanWidth + 0.1f; x += HalfHumanWidth )
{
float floorZ;
if ( TheNavMesh->GetGroundHeight( m_pos, &floorZ ) )
{
maxFloorZ = MAX( maxFloorZ, floorZ + 0.1f );
}
}
}
groundPos.Init( m_pos.x, m_pos.y, maxFloorZ );
}
// For each direction, trace upwards from our best ground height to VEC_HULL_MAX.z to see if we have standing room.
for ( int i=0; i<NUM_CORNERS; ++i )
{
#if DEBUG_NAV_NODES
if ( nav_test_node_crouch_dir.GetInt() != NUM_CORNERS && i != nav_test_node_crouch_dir.GetInt() )
continue;
#endif // DEBUG_NAV_NODES
NavCornerType corner = (NavCornerType)i;
Vector2D cornerVec;
CornerToVector2D( corner, &cornerVec );
Vector actualGroundPos = groundPos; // we might need to adjust this if the tracehull failed above and we fell back to m_pos.z
// Build a mins/maxs pair for the HumanWidth x HalfHumanWidth box facing the appropriate direction
mins.Init();
maxs.Init( cornerVec.x * HalfHumanWidth, cornerVec.y * HalfHumanWidth, 0 );
// now make sure that mins is smaller than maxs
for ( int j=0; j<3; ++j )
{
if ( mins[j] > maxs[j] )
{
float tmp = mins[j];
mins[j] = maxs[j];
maxs[j] = tmp;
}
}
UTIL_TraceHull(
actualGroundPos + Vector( 0, 0, 0.1f ),
actualGroundPos + Vector( 0, 0, VEC_HULL_MAX.z - 0.2f ),
mins,
maxs,
MASK_PLAYERSOLID_BRUSHONLY,
&filter,
&tr );
actualGroundPos.z += tr.fractionleftsolid * VEC_HULL_MAX.z;
float maxHeight = actualGroundPos.z + VEC_DUCK_HULL_MAX.z;
for ( ; tr.startsolid && actualGroundPos.z <= maxHeight; actualGroundPos.z += 1.0f )
{
// In case we didn't find a good ground pos above, we could start in the ground. Move us up some.
UTIL_TraceHull(
actualGroundPos + Vector( 0, 0, 0.1f ),
actualGroundPos + Vector( 0, 0, VEC_HULL_MAX.z - 0.2f ),
mins,
maxs,
MASK_PLAYERSOLID_BRUSHONLY,
&filter,
&tr );
}
if (tr.startsolid || tr.fraction != 1.0f)
{
SetAttributes( NAV_MESH_CROUCH );
m_crouch[corner] = true;
}
#if DEBUG_NAV_NODES
if ( nav_show_nodes.GetBool() )
{
if ( nav_test_node_crouch_dir.GetInt() == i || nav_test_node_crouch_dir.GetInt() == NUM_CORNERS )
{
if ( tr.startsolid )
{
NDebugOverlay::Box( actualGroundPos, mins, maxs+Vector( 0, 0, VEC_HULL_MAX.z), 255, 0, 0, 10, 20.0f );
}
else if ( m_crouch[corner] )
{
NDebugOverlay::Box( actualGroundPos, mins, maxs+Vector( 0, 0, VEC_HULL_MAX.z), 0, 0, 255, 10, 20.0f );
}
else
{
NDebugOverlay::Box( actualGroundPos, mins, maxs+Vector( 0, 0, VEC_HULL_MAX.z), 0, 255, 0, 10, 10.0f );
}
}
}
#endif // DEBUG_NAV_NODES
}
}
void Brush_ConstructPrism(Brush& brush, const AABB& bounds, std::size_t sides, int axis, const std::string& shader, const TextureProjection& projection)
{
if(sides < c_brushPrism_minSides)
{
globalErrorStream() << c_brushPrism_name << ": sides " << sides << ": too few sides, minimum is " << c_brushPrism_minSides << "\n";
return;
}
if(sides > c_brushPrism_maxSides)
{
globalErrorStream() << c_brushPrism_name << ": sides " << sides << ": too many sides, maximum is " << c_brushPrism_maxSides << "\n";
return;
}
brush.clear();
brush.reserve(sides+2);
Vector3 mins(bounds.origin - bounds.extents);
Vector3 maxs(bounds.origin + bounds.extents);
float radius = max_extent_2d(bounds.extents, axis);
const Vector3& mid = bounds.origin;
Vector3 planepts[3];
planepts[2][(axis+1)%3] = mins[(axis+1)%3];
planepts[2][(axis+2)%3] = mins[(axis+2)%3];
planepts[2][axis] = maxs[axis];
planepts[1][(axis+1)%3] = maxs[(axis+1)%3];
planepts[1][(axis+2)%3] = mins[(axis+2)%3];
planepts[1][axis] = maxs[axis];
planepts[0][(axis+1)%3] = maxs[(axis+1)%3];
planepts[0][(axis+2)%3] = maxs[(axis+2)%3];
planepts[0][axis] = maxs[axis];
brush.addPlane(planepts[0], planepts[1], planepts[2], shader, projection);
planepts[0][(axis+1)%3] = mins[(axis+1)%3];
planepts[0][(axis+2)%3] = mins[(axis+2)%3];
planepts[0][axis] = mins[axis];
planepts[1][(axis+1)%3] = maxs[(axis+1)%3];
planepts[1][(axis+2)%3] = mins[(axis+2)%3];
planepts[1][axis] = mins[axis];
planepts[2][(axis+1)%3] = maxs[(axis+1)%3];
planepts[2][(axis+2)%3] = maxs[(axis+2)%3];
planepts[2][axis] = mins[axis];
brush.addPlane(planepts[0], planepts[1], planepts[2], shader, projection);
for (std::size_t i=0 ; i<sides ; ++i)
{
double sv = sin (i*3.14159265*2/sides);
double cv = cos (i*3.14159265*2/sides);
planepts[0][(axis+1)%3] = static_cast<float>(floor(mid[(axis+1)%3]+radius*cv+0.5));
planepts[0][(axis+2)%3] = static_cast<float>(floor(mid[(axis+2)%3]+radius*sv+0.5));
planepts[0][axis] = mins[axis];
planepts[1][(axis+1)%3] = planepts[0][(axis+1)%3];
planepts[1][(axis+2)%3] = planepts[0][(axis+2)%3];
planepts[1][axis] = maxs[axis];
planepts[2][(axis+1)%3] = static_cast<float>(floor(planepts[0][(axis+1)%3] - radius*sv + 0.5));
planepts[2][(axis+2)%3] = static_cast<float>(floor(planepts[0][(axis+2)%3] + radius*cv + 0.5));
planepts[2][axis] = maxs[axis];
brush.addPlane(planepts[0], planepts[1], planepts[2], shader, projection);
}
}
