void
sqrt(int p2) {
#ifndef NEQN
float nps;
nps = (int)(EFFPS(((eht[p2]*9)/10+(resolution/POINT-1))/(resolution/POINT)));
#endif /* NEQN */
yyval.token = p2;
#ifndef NEQN
eht[yyval.token] = VERT(EM(1.2, nps));
if(dbg)printf(".\tsqrt: S%d <- S%d;b=%g, h=%g\n",
yyval.token, p2, ebase[yyval.token], eht[yyval.token]);
if (ital(rfont[yyval.token]))
printf(".as %d \\|\n", yyval.token);
#endif /* NEQN */
nrwid(p2, ps, p2);
#ifndef NEQN
printf(".ds %d \\v'%gp'\\s%s\\v'-.2m'\\(sr\\l'\\n(%du\\(rn'\\v'.2m'\\s%s",
yyval.token, ebase[p2], tsize(nps), p2, tsize(ps));
printf("\\v'%gp'\\h'-\\n(%du'\\*(%d\n", -ebase[p2], p2, p2);
lfont[yyval.token] = ROM;
#else /* NEQN */
printf(".ds %d \\v'%du'\\e\\L'%du'\\l'\\n(%du'",
p2, ebase[p2], -eht[p2], p2);
printf("\\v'%du'\\h'-\\n(%du'\\*(%d\n", eht[p2]-ebase[p2], p2, p2);
eht[p2] += VERT(1);
if(dbg)printf(".\tsqrt: S%d <- S%d;b=%d, h=%d\n",
p2, p2, ebase[p2], eht[p2]);
#endif /* NEQN */
}
void
lpile(int type, int p1, int p2) {
int i, nlist, nlist2, mid;
#ifndef NEQN
float h, b, bi, hi, gap;
#else /* NEQN */
int h, b, bi, hi, gap;
#endif /* NEQN */
yyval.token = oalloc();
#ifndef NEQN
gap = VERT(EM(0.4, ps)); /* 4/10 m between blocks */
#else /* NEQN */
gap = VERT(1);
#endif /* NEQN */
if( type=='-' ) gap = 0;
nlist = p2 - p1;
nlist2 = (nlist+1)/2;
mid = p1 + nlist2 -1;
h = 0;
for( i=p1; i<p2; i++ )
h += eht[lp[i]];
eht[yyval.token] = h + (nlist-1)*gap;
b = 0;
for( i=p2-1; i>mid; i-- )
b += eht[lp[i]] + gap;
ebase[yyval.token] = (nlist%2) ? b + ebase[lp[mid]]
#ifndef NEQN
: b - VERT(EM(0.5, ps)) - gap;
#else /* NEQN */
: b - VERT(1) - gap;
void
boverb(int p1, int p2) {
int treg;
#ifndef NEQN
float h, b, d;
#else /* NEQN */
int h, b, d;
#endif /* NEQN */
treg = oalloc();
yyval.token = p1;
#ifndef NEQN
d = VERT(EM(0.3, ps));
h = eht[p1] + eht[p2] + d;
#else /* NEQN */
d = VERT(1);
h = eht[p1] + eht[p2];
#endif /* NEQN */
b = eht[p2] - d;
#ifndef NEQN
if(dbg)printf(".\tb:bob: S%d <- S%d over S%d; b=%g, h=%g\n",
yyval.token, p1, p2, b, h);
#else /* NEQN */
if(dbg)printf(".\tb:bob: S%d <- S%d over S%d; b=%d, h=%d\n",
yyval.token, p1, p2, b, h);
#endif /* NEQN */
nrwid(p1, ps, p1);
nrwid(p2, ps, p2);
printf(".nr %d \\n(%d\n", treg, p1);
printf(".if \\n(%d>\\n(%d .nr %d \\n(%d\n", p2, treg, treg, p2);
#ifndef NEQN
printf(".nr %d \\n(%d+\\s%s.5m\\s0\n", treg, treg, tsize(EFFPS(ps)));
printf(".ds %d \\v'%gp'\\h'\\n(%du-\\n(%du/2u'\\*(%d\\\n",
yyval.token, eht[p2]-ebase[p2]-d, treg, p2, p2);
printf("\\h'-\\n(%du-\\n(%du/2u'\\v'%gp'\\*(%d\\\n",
p2, p1, -(eht[p2]-ebase[p2]+d+ebase[p1]), p1);
printf("\\h'-\\n(%du-\\n(%du/2u+.1m'\\v'%gp'\\l'\\n(%du-.2m'\\h'.1m'\\v'%gp'\n",
treg, p1, ebase[p1]+d, treg, d);
#else /* NEQN */
printf(".ds %d \\v'%du'\\h'\\n(%du-\\n(%du/2u'\\*(%d\\\n",
yyval.token, eht[p2]-ebase[p2]-d, treg, p2, p2);
printf("\\h'-\\n(%du-\\n(%du/2u'\\v'%du'\\*(%d\\\n",
p2, p1, -eht[p2]+ebase[p2]-ebase[p1], p1);
printf("\\h'-\\n(%du-\\n(%du-2u/2u'\\v'%du'\\l'\\n(%du'\\v'%du'\n",
treg, p1, ebase[p1], treg, d);
#endif /* NEQN */
ebase[yyval.token] = b;
eht[yyval.token] = h;
lfont[yyval.token] = rfont[yyval.token] = 0;
ofree(p2);
ofree(treg);
}
void
putout(int p1) {
#ifndef NEQN
float before, after;
if(dbg)printf(".\tanswer <- S%d, h=%g,b=%g\n",p1, eht[p1], ebase[p1]);
#else /* NEQN */
int before, after;
if(dbg)printf(".\tanswer <- S%d, h=%d,b=%d\n",p1, eht[p1], ebase[p1]);
#endif /* NEQN */
eqnht = eht[p1];
printf(".ds %d ", p1);
/* suppposed to leave room for a subscript or superscript */
#ifndef NEQN
before = eht[p1] - ebase[p1] - VERT(EM(1.2, ps));
#else /* NEQN */
before = eht[p1] - ebase[p1] - VERT(3); /* 3 = 1.5 lines */
#endif /* NEQN */
if (spaceval != NULL)
printf("\\x'0-%s'", spaceval);
else if (before > 0)
#ifndef NEQN
printf("\\x'0-%gp'", before);
#else /* NEQN */
printf("\\x'0-%du'", before);
#endif /* NEQN */
printf("\\f%c\\s%s\\*(%d%s\n",
gfont, tsize(gsize), p1, ital(rfont[p1]) ? "\\|" : "");
printf(".ie \\n(.X=0 .as %d \\s\\n(99\n", p1);
printf(".el .as %d \\s[\\n(99]\n", p1);
printf(".as %d \\f\\n(98", p1);
#ifndef NEQN
after = ebase[p1] - VERT(EM(0.2, ps));
#else /* NEQN */
after = ebase[p1] - VERT(1);
#endif /* NEQN */
if (spaceval == NULL && after > 0)
#ifndef NEQN
printf("\\x'%gp'", after);
#else /* NEQN */
printf("\\x'%du'", after);
#endif /* NEQN */
putchar('\n');
eqnreg = p1;
if (spaceval != NULL) {
free(spaceval);
spaceval = NULL;
}
}
static void mgaFastRenderClippedPoly( GLcontext *ctx, const GLuint *elts,
GLuint n )
{
mgaContextPtr mmesa = MGA_CONTEXT( ctx );
GLuint vertex_size = mmesa->vertex_size;
GLuint *vb = mgaAllocDmaLow( mmesa, (n-2) * 3 * 4 * vertex_size );
GLubyte *vertptr = (GLubyte *)mmesa->verts;
const GLuint *start = (const GLuint *)VERT(elts[0]);
int i,j;
for (i = 2 ; i < n ; i++) {
EMIT_VERT( j, vb, vertex_size, (mgaVertexPtr) VERT(elts[i-1]) );
EMIT_VERT( j, vb, vertex_size, (mgaVertexPtr) VERT(elts[i]) );
EMIT_VERT( j, vb, vertex_size, (mgaVertexPtr) start );
}
}
void
text(int t, char *p1)
{
int c;
char *p;
tbl *tp, *lookup();
extern tbl *restbl[];
yyval = oalloc();
ebase[yyval] = 0;
#ifndef NEQN
eht[yyval] = VERT(EM(1.0, EFFPS(ps))); /* ht in machine units */
#else /* NEQN */
eht[yyval] = VERT(2); /* 2 half-spaces */
#endif /* NEQN */
lfont[yyval] = rfont[yyval] = ROM;
if (t == QTEXT)
p = p1;
else if (t == SPACE)
p = "\\ ";
else if (t == THIN)
p = "\\|";
else if (t == TAB)
p = "\\t";
else if ((tp = lookup(restbl, p1, NULL)) != NULL)
p = tp->defn;
else {
lf = rf = 0;
for (csp = psp = 0; (c = p1[psp++]) != '\0'; ) {
rf = trans(c, p1);
if (lf == 0)
lf = rf; /* save first */
if (csp > CSSIZE)
error(FATAL, gettext(
"converted token %.25s... too long"), p1);
}
cs[csp] = '\0';
p = cs;
lfont[yyval] = lf;
rfont[yyval] = rf;
}
if (dbg)
printf(".\t%dtext: S%d <- %s; b=%d,h=%d,lf=%c,rf=%c\n",
t, yyval, p, ebase[yyval], eht[yyval], lfont[yyval],
rfont[yyval]);
printf(".ds %d \"%s\n", yyval, p);
}
void
setintegral(void) {
const char *f;
yyval.token = oalloc();
f = "\\(is";
#ifndef NEQN
printf(".ds %d \\s%s\\v'.1m'\\s+4%s\\s-4\\v'-.1m'\\s%s\n",
yyval.token, tsize(ps), f, tsize(ps));
eht[yyval.token] = VERT(EM(1.15, ps+4));
ebase[yyval.token] = VERT(EM(0.3, ps));
#else /* NEQN */
printf(".ds %d %s\n", yyval.token, f);
eht[yyval.token] = VERT(2);
ebase[yyval.token] = 0;
#endif /* NEQN */
lfont[yyval.token] = rfont[yyval.token] = ROM;
}
int moveRight(uint64_t *block) {
uint64_t v = *block;
for (int i = 0; i < 8; i++) {
if (v & (1LLU<<VERT(i, 7)))
return 0;
}
*block <<= 1;
return 1;
}
int moveDown(uint64_t *block) {
uint64_t v = *block;
for (int i = 0; i < 8; i++) {
if (v & (1LLU<<VERT(7, i)))
return 0;
}
*block <<= 8;
return 1;
}
int moveLeft(uint64_t *block) {
uint64_t v = *block;
for (int i = 0; i < 8; i++) {
if (v & (1LLU<<VERT(i, 0)))
return 0;
}
*block >>= 1;
return 1;
}
int moveUp(uint64_t *block) {
uint64_t v = *block;
for (int i = 0; i < 8; i++) {
if (v & (1LLU<<VERT(0, i)))
return 0;
}
*block >>= 8;
return 1;
}
static void sisFastRenderClippedPoly( GLcontext *ctx, const GLuint *elts,
GLuint n )
{
sisContextPtr smesa = SIS_CONTEXT( ctx );
GLuint vertsize = smesa->vertex_size;
GLuint *vb = r128AllocDmaLow( rmesa, (n-2) * 3 * 4 * vertsize );
GLubyte *sisverts = (GLubyte *)smesa->verts;
const GLuint shift = smesa->vertex_stride_shift;
const GLuint *start = (const GLuint *)VERT(elts[0]);
int i,j;
smesa->num_verts += (n-2) * 3;
for (i = 2 ; i < n ; i++) {
COPY_DWORDS( j, vb, vertsize, (sisVertexPtr) VERT(elts[i-1]) );
COPY_DWORDS( j, vb, vertsize, (sisVertexPtr) VERT(elts[i]) );
COPY_DWORDS( j, vb, vertsize, (sisVertexPtr) start );
}
}
void AMBRE()
{
for(unsigned long i=0;i<240;i++)
{
_delay_us(60);
VERT();
_delay_us(150);
ROUGE();
}
}
int v_setmodefixed(struct v_board_t *board)
{
int iob=board->io_base;
int tmp;
#ifdef SAVEVGA
v_savetextmode(board);
#endif
v1k_softreset(board);
/* switching to native mode */
v_out8(iob+MODEREG, NATIVE_MODE);
/* flipping some bytes */
v_out8(iob+MEMENDIAN, MEMENDIAN_HW);
/* try programming 1024x768@70 in highcolor */
tmp=v_in32(iob+DRAMCTL)&0xdfff; /* reset bit 13 */
v_out32(iob+DRAMCTL, tmp|DEFAULT_WREFRESH);
/* program pixel clock */
if (board->chip == V1000_DEVICE) {
set_PLL(iob, combineNMP(21, 55, 0));
}
else {
tmp = (~0x1800) & v_in32(iob+DRAMCTL);
v_out32(iob+DRAMCTL, tmp);
v_out32(iob+PCLKPLL, v2kcombineNMP(2, 21, 2));
}
usleep(500);
v_initdac(board, 16, 0);
v_out32(iob+CRTCHORZ, HORZ(24, 136, 144, 1024));
v_out32(iob+CRTCVERT, VERT(3, 6, 29, 768));
board->mode.screenwidth=1024;
board->mode.virtualwidth=1024;
board->mode.bitsperpixel=16;
board->mode.fifosize=128;
board->init=1;
v_setframebase(board, 0);
v_out32(iob+CRTCCTL, CTL(0, 0, 0)
|V_PIXFMT_565
|CRTCCTL_VIDEOFIFOSIZE128
|CRTCCTL_HSYNCENABLE
|CRTCCTL_VSYNCENABLE
|CRTCCTL_VIDEOENABLE);
return 0;
}
static void TessellateSphere(std::vector<float>& vertexes, std::vector<u16>& indexes, int level)
{
/* Start with a tetrahedron, then tessellate */
float s = sqrtf(0.5f);
#define VERT(a,b,c) vertexes.push_back(a); vertexes.push_back(b); vertexes.push_back(c);
VERT(-s, 0, -s);
VERT( s, 0, -s);
VERT( s, 0, s);
VERT(-s, 0, s);
VERT( 0, -1, 0);
VERT( 0, 1, 0);
#define FACE(a,b,c) \
TessellateSphereFace( \
CVector3D(vertexes[a*3], vertexes[a*3+1], vertexes[a*3+2]), a, \
CVector3D(vertexes[b*3], vertexes[b*3+1], vertexes[b*3+2]), b, \
CVector3D(vertexes[c*3], vertexes[c*3+1], vertexes[c*3+2]), c, \
vertexes, indexes, level);
FACE(0,4,1);
FACE(1,4,2);
FACE(2,4,3);
FACE(3,4,0);
FACE(1,5,0);
FACE(2,5,1);
FACE(3,5,2);
FACE(0,5,3);
#undef FACE
#undef VERT
}
int
setintegral(void) {
char *f;
int yyval;
yyval = oalloc();
f = "\\(is";
printf(".ds %d %s\n", yyval, f);
eht[yyval] = VERT(2);
ebase[yyval] = 0;
lfont[yyval] = rfont[yyval] = ROM;
return yyval;
}
int
text(int t, char *p1) {
int c;
char *p;
tbl *tp;
extern tbl *restbl;
int yyval;
yyval = oalloc();
ebase[yyval] = 0;
eht[yyval] = VERT(2); /* 2 half-spaces */
lfont[yyval] = rfont[yyval] = ROM;
if (t == QTEXT)
p = p1;
else if ( t == SPACE )
p = "\\ ";
else if ( t == THIN )
p = "\\|";
else if ( t == TAB )
p = "\\t";
else if ((tp = lookup(&restbl, p1, NULL)) != NULL)
p = tp->defn;
else {
lf = rf = 0;
for (csp=psp=0; (c=p1[psp++])!='\0';) {
rf = trans(c, p1);
if (lf == 0)
lf = rf; /* save first */
if (csp >= CSSIZE)
error(FATAL,"converted token %.25s... too long",p1);
}
cs[csp] = '\0';
p = cs;
lfont[yyval] = lf;
rfont[yyval] = rf;
}
if (dbg)
printf(".\t%dtext: S%d <- %s; b=%d,h=%d,lf=%c,rf=%c\n",
t, yyval, p, ebase[yyval], eht[yyval],
lfont[yyval], rfont[yyval]);
printf(".ds %d \"%s\n", yyval, p);
return yyval;
}
void Heightfield::Refine(vector<Reference<Shape> > &refined) const {
int ntris = 2*(nx-1)*(ny-1);
refined.reserve(ntris);
int *verts = new int[3*ntris];
Point *P = new Point[nx*ny];
float *uvs = new float[2*nx*ny];
int nverts = nx*ny;
int x, y;
// Compute heightfield vertex positions
int pos = 0;
for (y = 0; y < ny; ++y) {
for (x = 0; x < nx; ++x) {
P[pos].x = uvs[2*pos] = (float)x / (float)(nx-1);
P[pos].y = uvs[2*pos+1] = (float)y / (float)(ny-1);
P[pos].z = z[pos];
++pos;
}
}
// Fill in heightfield vertex offset array
int *vp = verts;
for (y = 0; y < ny-1; ++y) {
for (x = 0; x < nx-1; ++x) {
#define VERT(x,y) ((x)+(y)*nx)
*vp++ = VERT(x, y);
*vp++ = VERT(x+1, y);
*vp++ = VERT(x+1, y+1);
*vp++ = VERT(x, y);
*vp++ = VERT(x+1, y+1);
*vp++ = VERT(x, y+1);
}
#undef VERT
}
ParamSet paramSet;
paramSet.AddInt("indices", verts, 3*ntris);
paramSet.AddFloat("uv", uvs, 2 * nverts);
paramSet.AddPoint("P", P, nverts);
refined.push_back(CreateTriangleMeshShape(ObjectToWorld, WorldToObject, ReverseOrientation, paramSet));
delete[] P;
delete[] uvs;
delete[] verts;
}
void ceDeviceGL20::DrawRect(const ceRect &rect)
{
glDisable(GL_CULL_FACE);
ApplyShaderStates();
#define VERT(u, v) glTexCoord2f(u, v); glVertex3f(rect.x + u*rect.w, rect.y + v*rect.h, -1)
glActiveTexture(GL_TEXTURE0);
glBegin(GL_TRIANGLES);
VERT(0, 0);
VERT(0, 1);
VERT(1, 1);
VERT(0, 0);
VERT(1, 1);
VERT(1, 0);
glEnd();
#undef VERT
glEnable(GL_CULL_FACE);
}
void
shift2(int p1, int p2, int p3)
{
int effps, h1, h2, h3, b1, b2, b3, subsh, d1, d2, supsh, treg;
#ifndef NEQN
int effps2;
#endif /* NEQN */
treg = oalloc();
yyval = p1;
if (dbg) printf(".\tshift2 s%d <- %d %d %d\n", yyval, p1, p2, p3);
effps = EFFPS(ps+deltaps);
#ifndef NEQN
eht[p3] = h3 = VERT((eht[p3] * effps) / EFFPS(ps));
ps += deltaps;
effps2 = EFFPS(ps+deltaps);
#endif /* NEQN */
h1 = eht[p1]; b1 = ebase[p1];
h2 = eht[p2]; b2 = ebase[p2];
#ifndef NEQN
b3 = ebase[p3];
d1 = VERT(EM(0.5, effps2));
#else /* NEQN */
h3 = eht[p3]; b3 = ebase[p3];
d1 = VERT(1);
#endif /* NEQN */
subsh = -d1+h2-b2;
if (d1+b1 > h2) /* move little sub down */
subsh = b1-b2;
#ifndef NEQN
supsh = -VERT((4*(h1-b1))/10) - b3;
d2 = VERT(EM(0.2, effps));
if (VERT(4*(h1-b1)/10)+h3 < h1-b1)
#else /* NEQN */
supsh = - VERT(1) - b3;
d2 = VERT(1);
if (VERT(1)+h3 < h1-b1)
#endif /* NEQN */
supsh = -(h1-b1) + (h3-b3) - d2;
#ifndef NEQN
eht[yyval] = h1 + max(0, h3-VERT((6*(h1-b1))/10)) + max(0, h2-b1-d1);
#else /* NEQN */
eht[yyval] = h1 + max(0, h3-VERT(1)) + max(0, h2-b1-d1);
#endif /* NEQN */
ebase[yyval] = b1+max(0, h2-b1-d1);
#ifndef NEQN
if (rfont[p1] == ITAL && lfont[p2] == ROM)
printf(".ds %d \\|\\*(%d\n", p2, p2);
if (rfont[p2] == ITAL)
printf(".as %d \\|\n", p2);
#endif /* NEQN */
nrwid(p2, effps, p2);
#ifndef NEQN
if (rfont[p1] == ITAL && lfont[p3] == ROM)
printf(".ds %d \\|\\|\\*(%d\n", p3, p3);
else
printf(".ds %d \\|\\*(%d\n", p3, p3);
#endif /* NEQN */
nrwid(p3, effps, p3);
printf(".nr %d \\n(%d\n", treg, p3);
printf(".if \\n(%d>\\n(%d .nr %d \\n(%d\n", p2, treg, treg, p2);
#ifndef NEQN
printf(".as %d \\v'%du'\\s%d\\*(%d\\h'-\\n(%du'\\v'%du'\\\n",
p1, subsh, effps, p2, p2, -subsh+supsh);
printf("\\s%d\\*(%d\\h'-\\n(%du+\\n(%du'\\s%d\\v'%du'\n",
effps, p3, p3, treg, effps2, -supsh);
#else /* NEQN */
printf(".as %d \\v'%du'\\*(%d\\h'-\\n(%du'\\v'%du'\\\n",
p1, subsh, p2, p2, -subsh+supsh);
printf("\\*(%d\\h'-\\n(%du+\\n(%du'\\v'%du'\n",
p3, p3, treg, -supsh);
#endif /* NEQN */
ps += deltaps;
#ifndef NEQN
if (rfont[p2] == ITAL)
rfont[yyval] = 0; /* lie */
#endif /* NEQN */
ofree(p2); ofree(p3); ofree(treg);
}
static void ExportSection(ExportContext& Context, const CBaseMeshLod& Lod, const CMeshVertex* Verts, int SectonIndex, FArchive& Ar)
{
guard(ExportSection);
int VertexSize = Context.IsSkeletal() ? sizeof(CSkelMeshVertex) : sizeof(CStaticMeshVertex);
const CMeshSection& S = Lod.Sections[SectonIndex];
bool bLast = (SectonIndex == Lod.Sections.Num()-1);
// Remap section indices to local indices
CIndexBuffer::IndexAccessor_t GetIndex = Lod.Indices.GetAccessor();
TArray<int> indexRemap; // old vertex index -> new vertex index
indexRemap.Init(-1, Lod.NumVerts);
int numLocalVerts = 0;
int numLocalIndices = S.NumFaces * 3;
for (int idx = 0; idx < numLocalIndices; idx++)
{
int vertIndex = GetIndex(S.FirstIndex + idx);
if (indexRemap[vertIndex] == -1)
{
indexRemap[vertIndex] = numLocalVerts++;
}
}
// Prepare buffers
int IndexBufIndex = Context.Data.AddZeroed();
int PositionBufIndex = Context.Data.AddZeroed();
int NormalBufIndex = Context.Data.AddZeroed();
int TangentBufIndex = Context.Data.AddZeroed();
int BonesBufIndex = -1;
int WeightsBufIndex = -1;
if (Context.IsSkeletal())
{
BonesBufIndex = Context.Data.AddZeroed();
WeightsBufIndex = Context.Data.AddZeroed();
}
int UVBufIndex[MAX_MESH_UV_SETS];
for (int i = 0; i < Lod.NumTexCoords; i++)
{
UVBufIndex[i] = Context.Data.AddZeroed();
}
BufferData& IndexBuf = Context.Data[IndexBufIndex];
BufferData& PositionBuf = Context.Data[PositionBufIndex];
BufferData& NormalBuf = Context.Data[NormalBufIndex];
BufferData& TangentBuf = Context.Data[TangentBufIndex];
BufferData* UVBuf[MAX_MESH_UV_SETS];
BufferData* BonesBuf = NULL;
BufferData* WeightsBuf = NULL;
PositionBuf.Setup(numLocalVerts, "VEC3", BufferData::FLOAT, sizeof(CVec3));
NormalBuf.Setup(numLocalVerts, "VEC3", BufferData::FLOAT, sizeof(CVec3));
TangentBuf.Setup(numLocalVerts, "VEC4", BufferData::FLOAT, sizeof(CVec4));
for (int i = 0; i < Lod.NumTexCoords; i++)
{
UVBuf[i] = &Context.Data[UVBufIndex[i]];
UVBuf[i]->Setup(numLocalVerts, "VEC2", BufferData::FLOAT, sizeof(CMeshUVFloat));
}
if (Context.IsSkeletal())
{
BonesBuf = &Context.Data[BonesBufIndex];
WeightsBuf = &Context.Data[WeightsBufIndex];
BonesBuf->Setup(numLocalVerts, "VEC4", BufferData::UNSIGNED_SHORT, sizeof(uint16)*4);
WeightsBuf->Setup(numLocalVerts, "VEC4", BufferData::UNSIGNED_BYTE, sizeof(uint32), /*InNormalized=*/ true);
}
// Prepare and build indices
TArray<int> localIndices;
localIndices.AddUninitialized(numLocalIndices);
int* pIndex = localIndices.GetData();
for (int i = 0; i < numLocalIndices; i++)
{
*pIndex++ = GetIndex(S.FirstIndex + i);
}
if (numLocalVerts <= 65536)
{
IndexBuf.Setup(numLocalIndices, "SCALAR", BufferData::UNSIGNED_SHORT, sizeof(uint16));
for (int idx = 0; idx < numLocalIndices; idx++)
{
IndexBuf.Put<uint16>(indexRemap[localIndices[idx]]);
}
}
else
{
IndexBuf.Setup(numLocalIndices, "SCALAR", BufferData::UNSIGNED_INT, sizeof(uint32));
for (int idx = 0; idx < numLocalIndices; idx++)
{
IndexBuf.Put<uint32>(indexRemap[localIndices[idx]]);
}
}
// Build reverse index map for fast lookup of vertex by its new index.
// It maps new vertex index to old vertex index.
TArray<int> revIndexMap;
revIndexMap.AddUninitialized(numLocalVerts);
for (int i = 0; i < indexRemap.Num(); i++)
{
int newIndex = indexRemap[i];
if (newIndex != -1)
{
revIndexMap[newIndex] = i;
}
}
// Build vertices
for (int i = 0; i < numLocalVerts; i++)
{
int vertIndex = revIndexMap[i];
const CMeshVertex& V = VERT(vertIndex);
CVec3 Position = V.Position;
CVec4 Normal, Tangent;
Unpack(Normal, V.Normal);
Unpack(Tangent, V.Tangent);
// Unreal (and we are) using normal.w for computing binormal. glTF
// uses tangent.w for that. Make this value exactly 1.0 of -1.0 to make glTF
// validator happy.
#if 0
// There's some problem: V.Normal.W == 0x80 -> -1.008 instead of -1.0
if (Normal.w > 1.001 || Normal.w < -1.001)
{
appError("%X -> %g\n", V.Normal.Data, Normal.w);
}
#endif
Tangent.w = (Normal.w < 0) ? -1 : 1;
TransformPosition(Position);
TransformDirection(Normal);
TransformDirection(Tangent);
Normal.Normalize();
Tangent.Normalize();
// Fill buffers
PositionBuf.Put(Position);
NormalBuf.Put(Normal.xyz);
TangentBuf.Put(Tangent);
UVBuf[0]->Put(V.UV);
}
// Compute bounds for PositionBuf
CVec3 Mins, Maxs;
ComputeBounds((CVec3*)PositionBuf.Data, numLocalVerts, sizeof(CVec3), Mins, Maxs);
char buf[256];
appSprintf(ARRAY_ARG(buf), "[ %g, %g, %g ]", VECTOR_ARG(Mins));
PositionBuf.BoundsMin = buf;
appSprintf(ARRAY_ARG(buf), "[ %g, %g, %g ]", VECTOR_ARG(Maxs));
PositionBuf.BoundsMax = buf;
if (Context.IsSkeletal())
{
for (int i = 0; i < numLocalVerts; i++)
{
int vertIndex = revIndexMap[i];
const CMeshVertex& V0 = VERT(vertIndex);
const CSkelMeshVertex& V = static_cast<const CSkelMeshVertex&>(V0);
int16 Bones[NUM_INFLUENCES];
static_assert(NUM_INFLUENCES == 4, "Code designed for 4 influences");
static_assert(sizeof(Bones) == sizeof(V.Bone), "Unexpected V.Bones size");
memcpy(Bones, V.Bone, sizeof(Bones));
for (int j = 0; j < NUM_INFLUENCES; j++)
{
// We have INDEX_NONE as list terminator, should replace with something else for glTF
if (Bones[j] == INDEX_NONE)
{
Bones[j] = 0;
}
}
BonesBuf->Put(*(uint64*)&Bones);
WeightsBuf->Put(V.PackedWeights);
}
}
// Secondary UVs
for (int uvIndex = 1; uvIndex < Lod.NumTexCoords; uvIndex++)
{
BufferData* pBuf = UVBuf[uvIndex];
const CMeshUVFloat* srcUV = Lod.ExtraUV[uvIndex-1];
for (int i = 0; i < numLocalVerts; i++)
{
int vertIndex = revIndexMap[i];
pBuf->Put(srcUV[vertIndex]);
}
}
// Write primitive information to json
Ar.Printf(
" {\n"
" \"attributes\" : {\n"
" \"POSITION\" : %d,\n"
" \"NORMAL\" : %d,\n"
" \"TANGENT\" : %d,\n",
PositionBufIndex, NormalBufIndex, TangentBufIndex
);
if (Context.IsSkeletal())
{
Ar.Printf(
" \"JOINTS_0\" : %d,\n"
" \"WEIGHTS_0\" : %d,\n",
BonesBufIndex, WeightsBufIndex
);
}
for (int i = 0; i < Lod.NumTexCoords; i++)
{
Ar.Printf(
" \"TEXCOORD_%d\" : %d%s\n",
i, UVBufIndex[i], i < (Lod.NumTexCoords-1) ? "," : ""
);
}
Ar.Printf(
" },\n"
" \"indices\" : %d,\n"
" \"material\" : %d\n"
" }%s\n",
IndexBufIndex, SectonIndex,
SectonIndex < (Lod.Sections.Num()-1) ? "," : ""
);
unguard;
}
static mesh* build_gear(ID3D11Device* dev, int triangle_budget, float inner_radius, float outer_radius, float width, int teeth, float tooth_depth)
{
int i, j, k;
float r0, r1, r2;
float da;
float nx, ny, nz;
int face;
int segs = 4;
int base_triangles = teeth * segs * 2 * 2;
int divs0 = (triangle_budget / base_triangles) - 1;
int divs = (divs0 > 0) ? divs0 : 1;
float* c = (float*)malloc(teeth * segs * sizeof(float));
float* s = (float*)malloc(teeth * segs * sizeof(float));
float* dc = (float*)malloc(teeth * segs * divs * sizeof(float));
float* ds = (float*)malloc(teeth * segs * divs * sizeof(float));
int num_vertices = teeth * segs * 2 * (3 + 2 * divs);
int num_triangles = base_triangles * (1 + divs);
printf("Creating gear with %i teeth using %i vertices used in %i triangles\n", teeth, num_vertices, num_triangles);
triangle_list_indices<> indices;
std::vector<vertex> vertices;
r0 = inner_radius;
r1 = outer_radius - tooth_depth / 2.0f;
r2 = outer_radius + tooth_depth / 2.0f;
da = (float)(2.0 * M_PI / (teeth * segs * divs));
for(i = 0; i < teeth * segs * divs; ++i) {
float angle = da * i;
ds[i] = sin(angle);
dc[i] = cos(angle);
}
for(i = 0; i < teeth * segs; ++i) {
s[i] = ds[i * divs];
c[i] = dc[i * divs];
}
/* faces */
for(face = -1; face <= 1; face += 2) {
float z = width * face * 0.5f;
nx = 0.0f;
ny = 0.0f;
nz = (float)face;
indices.flip = face > 0;
assert(segs == 4);
for(i = 0; i < teeth; ++i) {
VERT(r1 * c[segs * i], r1 * s[segs * i], z);
VERT(r2 * c[segs * i + 1], r2 * s[segs * i + 1], z);
VERT(r2 * c[segs * i + 2], r2 * s[segs * i + 2], z);
VERT(r1 * c[segs * i + 3], r1 * s[segs * i + 3], z);
}
for(i = 0; i < teeth * segs * divs; ++i) {
VERT(r0 * dc[i], r0 * ds[i], z);
}
for(i = 0; i < teeth; ++i) {
for(j = i * segs; j < (i + 1) * segs; ++j) {
int nextj = j + 1;
if(nextj == teeth * segs)
nextj = 0;
for(k = j * divs; k < (j + 1) * divs; ++k) {
int nextk = k + 1;
if(nextk == teeth * segs * divs)
nextk = 0;
indices.poly(teeth * segs + k, j, teeth * segs + nextk);
}
indices.poly(teeth * segs + nextj * divs, j, nextj);
}
}
indices.base += teeth * segs * (1 + divs);
}
/* teeth faces */
indices.flip = true;
float z = width * 0.5f;
float* coords = (float*)malloc((segs + 1) * 2 * sizeof(float));
nz = 0;
for(i = 0; i < teeth; i++) {
int next = i + 1;
if(next == teeth)
next = 0;
coords[0] = r1 * c[segs * i];
coords[1] = r1 * s[segs * i];
coords[2] = r2 * c[segs * i + 1];
coords[3] = r2 * s[segs * i + 1];
coords[4] = r2 * c[segs * i + 2];
coords[5] = r2 * s[segs * i + 2];
coords[6] = r1 * c[segs * i + 3];
coords[7] = r1 * s[segs * i + 3];
coords[8] = r1 * c[segs * next];
coords[9] = r1 * s[segs * next];
for(int j = 0; j < segs; ++j) {
float dx = coords[j * 2] - coords[j * 2 + 2];
float dy = coords[j * 2 + 1] - coords[j * 2 + 3];
float len = hypotf(dx, dy);
nx = -dy / len;
ny = dx / len;
VERT(coords[j * 2], coords[j * 2 + 1], z);
VERT(coords[j * 2], coords[j * 2 + 1], -z);
VERT(coords[j * 2 + 2], coords[j * 2 + 3], z);
VERT(coords[j * 2 + 2], coords[j * 2 + 3], -z);
indices.poly(0, 1, 3, 2);
indices.base += 4;
}
}
free(coords);
/* inner part - simulate a cylinder */
indices.flip = true;
for(i = 0; i < teeth * segs * divs; i++) {
int next = i + 1;
if(next == teeth * segs * divs)
next = 0;
nx = -dc[i];
ny = -ds[i];
VERT(r0 * dc[i], r0 * ds[i], -width * 0.5f);
VERT(r0 * dc[i], r0 * ds[i], width * 0.5f);
indices.poly(i * 2, i * 2 + 1, next * 2 + 1, next * 2);
}
indices.base += teeth * segs * divs * 2;
free(c);
free(s);
free(dc);
free(ds);
D3D11_INPUT_ELEMENT_DESC elements[2] =
{
{"POSITION", 0, DXGI_FORMAT_R32G32B32_FLOAT, 0, 0, D3D11_INPUT_PER_VERTEX_DATA, 0},
{"NORMAL", 0, DXGI_FORMAT_R32G32B32_FLOAT, 0, 12, D3D11_INPUT_PER_VERTEX_DATA, 0},
};
return new mesh(dev, D3D11_PRIMITIVE_TOPOLOGY_TRIANGLELIST,
elements, 2,
g_vs, sizeof(g_vs),
&vertices[0], sizeof(vertices[0]), vertices.size(),
&indices[0], sizeof(indices[0]), indices.size());
}
void
bshiftb(int p1, int dir, int p2)
{
int shval, d1, h1, b1, h2, b2;
#ifndef NEQN
int diffps, effps, effps2;
char *sh1, *sh2;
#endif /* NEQN */
yyval = p1;
h1 = eht[p1];
b1 = ebase[p1];
h2 = eht[p2];
b2 = ebase[p2];
#ifndef NEQN
effps = EFFPS(ps);
effps2 = EFFPS(ps+deltaps);
diffps = deltaps;
sh1 = sh2 = "";
#endif /* NEQN */
if (dir == SUB) { /* subscript */
#ifndef NEQN
/* top 1/2m above bottom of main box */
d1 = VERT(EM(0.5, effps2));
#else /* NEQN */
d1 = VERT(1);
#endif /* NEQN */
shval = - d1 + h2 - b2;
if (d1+b1 > h2) /* move little sub down */
shval = b1-b2;
ebase[yyval] = b1 + max(0, h2-b1-d1);
eht[yyval] = h1 + max(0, h2-b1-d1);
#ifndef NEQN
if (rfont[p1] == ITAL && lfont[p2] == ROM)
sh1 = "\\|";
if (rfont[p2] == ITAL)
sh2 = "\\|";
#endif /* NEQN */
} else { /* superscript */
#ifndef NEQN
/* 4/10 up main box */
d1 = VERT(EM(0.2, effps));
#else /* NEQN */
d1 = VERT(1);
#endif /* NEQN */
ebase[yyval] = b1;
#ifndef NEQN
shval = -VERT((4 * (h1-b1)) / 10) - b2;
if (VERT(4*(h1-b1)/10) + h2 < h1-b1) /* raise little super */
#else /* NEQN */
shval = -VERT(1) - b2;
if (VERT(1) + h2 < h1-b1) /* raise little super */
#endif /* NEQN */
shval = -(h1-b1) + h2-b2 - d1;
#ifndef NEQN
eht[yyval] = h1 + max(0, h2-VERT((6*(h1-b1))/10));
if (rfont[p1] == ITAL)
sh1 = "\\|";
if (rfont[p2] == ITAL)
sh2 = "\\|";
#else /* NEQN */
eht[yyval] = h1 + max(0, h2 - VERT(1));
#endif /* NEQN */
}
if (dbg)
printf(".\tb:b shift b: S%d <- S%d vert %d S%d vert %d; "
"b=%d, h=%d\n", yyval, p1, shval, p2, -shval,
ebase[yyval], eht[yyval]);
#ifndef NEQN
printf(".as %d \\v'%du'\\s-%d%s\\*(%d\\s+%d%s\\v'%du'\n",
yyval, shval, diffps, sh1, p2, diffps, sh2, -shval);
ps += deltaps;
if (rfont[p2] == ITAL)
rfont[p1] = 0;
else
rfont[p1] = rfont[p2];
#else /* NEQN */
printf(".as %d \\v'%du'\\*(%d\\v'%du'\n",
yyval, shval, p2, -shval);
#endif /* NEQN */
ofree(p2);
}
void
paren(int leftc, int p1, int rightc)
{
int n, m, h1, j, b1, v;
h1 = eht[p1]; b1 = ebase[p1];
yyval = p1;
#ifndef NEQN
lfont[yyval] = rfont[yyval] = 0;
n = (h1 + EM(1.0, EFFPS(ps)) - 1) / EM(1.0, EFFPS(ps));
#else /* NEQN */
n = max(b1+VERT(1), h1-b1-VERT(1)) / VERT(1);
#endif /* NEQN */
if (n < 2) n = 1;
m = n-2;
if (leftc == '{' || rightc == '}') {
if ((n % 2) == 0) {
n++;
}
if (n < 3) n = 3;
m = n-3;
}
#ifndef NEQN
eht[yyval] = VERT(EM(n, ps));
ebase[yyval] = b1 + (eht[yyval]-h1)/2;
v = b1 - h1/2 + VERT(EM(0.4, ps));
#else /* NEQN */
eht[yyval] = VERT(2 * n);
ebase[yyval] = (n)/2 * VERT(2);
if (n%2 == 0)
ebase[yyval] -= VERT(1);
v = b1 - h1/2 + VERT(1);
#endif /* NEQN */
printf(".ds %d \\|\\v'%du'", yyval, v);
switch (leftc) {
case 'n': /* nothing */
case '\0':
break;
case 'f': /* floor */
if (n <= 1)
printf("\\(lf");
else
brack(m, "\\(bv", "\\(bv", "\\(lf");
break;
case 'c': /* ceiling */
if (n <= 1)
printf("\\(lc");
else
brack(m, "\\(lc", "\\(bv", "\\(bv");
break;
case '{':
printf("\\b'\\(lt");
for (j = 0; j < m; j += 2) printf("\\(bv");
printf("\\(lk");
for (j = 0; j < m; j += 2) printf("\\(bv");
printf("\\(lb'");
break;
case '(':
brack(m, "\\(lt", "\\(bv", "\\(lb");
break;
case '[':
brack(m, "\\(lc", "\\(bv", "\\(lf");
break;
case '|':
brack(m, "\\(bv", "\\(bv", "\\(bv");
break;
default:
brack(m, (char *)&leftc, (char *)&leftc,
(char *)&leftc);
break;
}
printf("\\v'%du'\\*(%d", -v, p1);
if (rightc) {
printf("\\|\\v'%du'", v);
switch (rightc) {
case 'f': /* floor */
if (n <= 1)
printf("\\(rf");
else
brack(m, "\\(bv", "\\(bv", "\\(rf");
break;
case 'c': /* ceiling */
if (n <= 1)
printf("\\(rc");
else
brack(m, "\\(rc", "\\(bv", "\\(bv");
break;
case '}':
printf("\\b'\\(rt");
for (j = 0; j < m; j += 2) printf("\\(bv");
printf("\\(rk");
for (j = 0; j < m; j += 2) printf("\\(bv");
printf("\\(rb'");
break;
case ']':
brack(m, "\\(rc", "\\(bv", "\\(rf");
break;
case ')':
brack(m, "\\(rt", "\\(bv", "\\(rb");
break;
case '|':
brack(m, "\\(bv", "\\(bv", "\\(bv");
break;
default:
brack(m, (char *)&rightc, (char *)&rightc,
(char *)&rightc);
break;
}
printf("\\v'%du'", -v);
}
printf("\n");
if (dbg)
printf(".\tcurly: h=%d b=%d n=%d v=%d l=%c, r=%c\n",
eht[yyval], ebase[yyval], n, v, leftc, rightc);
}
void
lpile(int type, int p1, int p2)
{
int bi, hi, i, gap, h, b, nlist, nlist2, mid;
yyval = oalloc();
#ifndef NEQN
gap = VERT(EM(0.4, ps)); /* 4/10 m between blocks */
#else /* NEQN */
gap = VERT(1);
#endif /* NEQN */
if (type == '-') gap = 0;
nlist = p2 - p1;
nlist2 = (nlist+1)/2;
mid = p1 + nlist2 -1;
h = 0;
for (i = p1; i < p2; i++)
h += eht[lp[i]];
eht[yyval] = h + (nlist-1)*gap;
b = 0;
for (i = p2-1; i > mid; i--)
b += eht[lp[i]] + gap;
#ifndef NEQN
ebase[yyval] = (nlist%2) ? b + ebase[lp[mid]]
: b - VERT(EM(0.5, ps)) - gap;
#else /* NEQN */
ebase[yyval] = (nlist%2) ? b + ebase[lp[mid]]
: b - VERT(1) - gap;
#endif /* NEQN */
if (dbg) {
printf(".\tS%d <- %c pile of:", yyval, type);
for (i = p1; i < p2; i++)
printf(" S%d", lp[i]);
printf(";h=%d b=%d\n", eht[yyval], ebase[yyval]);
}
nrwid(lp[p1], ps, lp[p1]);
printf(".nr %d \\n(%d\n", yyval, lp[p1]);
for (i = p1+1; i < p2; i++) {
nrwid(lp[i], ps, lp[i]);
printf(".if \\n(%d>\\n(%d .nr %d \\n(%d\n",
lp[i], yyval, yyval, lp[i]);
}
printf(".ds %d \\v'%du'\\h'%du*\\n(%du'\\\n", yyval, ebase[yyval],
type == 'R' ? 1 : 0, yyval);
for (i = p2-1; i >= p1; i--) {
hi = eht[lp[i]];
bi = ebase[lp[i]];
switch (type) {
case 'L':
printf("\\v'%du'\\*(%d\\h'-\\n(%du'\\v'0-%du'\\\n",
-bi, lp[i], lp[i], hi-bi+gap);
continue;
case 'R':
printf("\\v'%du'\\h'-\\n(%du'\\*(%d\\v'0-%du'\\\n",
-bi, lp[i], lp[i], hi-bi+gap);
continue;
case 'C':
case '-':
printf("\\v'%du'\\h'\\n(%du-\\n(%du/2u'\\*(%d",
-bi, yyval, lp[i], lp[i]);
printf("\\h'-\\n(%du-\\n(%du/2u'\\v'0-%du'\\\n",
yyval, lp[i], hi-bi+gap);
continue;
}
}
printf("\\v'%du'\\h'%du*\\n(%du'\n", eht[yyval]-ebase[yyval]+gap,
type != 'R' ? 1 : 0, yyval);
for (i = p1; i < p2; i++)
ofree(lp[i]);
lfont[yyval] = rfont[yyval] = 0;
}
int v_setmode(struct v_board_t *board, struct v_modeinfo_t *mode)
{
int tmp;
int doubleclock=0;
int M, N, P;
int iob=board->io_base;
/* switching to native mode */
v_out8(iob+MODEREG, NATIVE_MODE|VESA_MODE);
/* flipping some bytes */
/* Must be something better to do than this -- FIX */
switch (mode->bitsperpixel) {
case 32:
v_out8(iob+MEMENDIAN, MEMENDIAN_NO);
break;
case 16:
v_out8(iob+MEMENDIAN, MEMENDIAN_HW);
break;
case 8:
v_out8(iob+MEMENDIAN, MEMENDIAN_END);
break;
}
if (OFLG_ISSET(OPTION_OVERCLOCK_MEM, &vga256InfoRec.options)) {
/* increase Mem/Sys clock to avoid nasty artifacts */
if (board->chip != V1000_DEVICE) {
v_out32(iob+SCLKPLL, 0xa484d); /* mclk=110 sclk=55 */
/* M/N/P/P = 77/5/2/4 */
usleep(500);
}
}
/* this has something to do with memory */
tmp=v_in32(iob+DRAMCTL)&0xdfff; /* reset bit 13 */
v_out32(iob+DRAMCTL, tmp|0x330000);
/* program pixel clock */
if (board->chip == V1000_DEVICE) {
if (110.0 < V1000CalcClock(mode->clock/1000.0, &M, &N, &P)) {
P++;
doubleclock=1;
}
set_PLL(iob, combineNMP(N, M, P));
}
else {
tmp = (~0x1800) & v_in32(iob+DRAMCTL);
v_out32(iob+DRAMCTL, tmp);
V2200CalcClock(mode->clock/1000.0, &M, &N, &P);
v_out32(iob+PCLKPLL, v2kcombineNMP(N, M, P));
}
usleep(500);
/* init the ramdac */
v_initdac(board, mode->bitsperpixel, doubleclock);
v_out32(iob+CRTCHORZ, HORZ(mode->hsyncstart-mode->hdisplay,
mode->hsyncend-mode->hsyncstart,
mode->htotal-mode->hsyncend,
mode->hdisplay));
v_out32(iob+CRTCVERT, VERT(mode->vsyncstart-mode->vdisplay,
mode->vsyncend-mode->vsyncstart,
mode->vtotal-mode->vsyncend,
mode->vdisplay));
/* fill in the mode parameters */
memcpy(&(board->mode), mode, sizeof(struct v_modeinfo_t));
board->mode.fifosize=128;
board->mode.pll_m=M;
board->mode.pll_n=N;
board->mode.pll_p=P;
board->mode.doubleclock=doubleclock;
if (0 == board->mode.virtualwidth)
board->mode.virtualwidth=board->mode.screenwidth;
board->init=1;
v_setframebase(board, 0);
/* Need to fix up syncs */
/* enable the display */
v_out32(iob+CRTCCTL, CTL(0, mode->hsynchi, mode->vsynchi)
|mode->pixelformat
|CRTCCTL_VIDEOFIFOSIZE128
|CRTCCTL_HSYNCENABLE
|CRTCCTL_VSYNCENABLE
|CRTCCTL_VIDEOENABLE);
return 0;
}
coDistributedObject *SelectIdx::selectObj(coDistributedObject *inObj,
const char *outName,
int numElem, int numSelected,
const char *selArr)
{
int i;
char buffer[128];
/////////////////// SET ?
{
coDoSet *in_set = dynamic_cast<coDoSet *>(inObj);
if (in_set)
{
int i, numSetElem;
coDistributedObject *const *inObject = in_set->getAllElements(&numSetElem);
coDistributedObject **outObject = new coDistributedObject *[numSetElem + 1];
for (i = 0; i < numSetElem; i++)
{
sprintf(buffer, "%s_%d", outName, i);
outObject[i] = selectObj(inObject[i], buffer, numElem, numSelected, selArr);
}
outObject[numSetElem] = NULL;
coDoSet *resObj = new coDoSet(outName, outObject);
resObj->copyAllAttributes(inObj);
return resObj;
}
}
/////////////////// USG Scalar Data ?
{
coDoFloat *usg_scalar = dynamic_cast<coDoFloat *>(inObj);
if (usg_scalar)
{
int size = usg_scalar->getNumPoints();
if (size != numElem)
{
sendError("Size mismatch");
return NULL;
}
float *inData, *outData;
usg_scalar->getAddress(&inData);
coDoFloat *resObj = new coDoFloat(outName, numSelected);
resObj->copyAllAttributes(inObj);
resObj->getAddress(&outData);
for (i = 0; i < numElem; i++)
{
if (selArr[i])
{
*outData = inData[i];
outData++;
}
}
return resObj;
}
}
/////////////////// Struct Scalar Data ? (use scope to hide variables)
{
coDoFloat *str_scalar = dynamic_cast<coDoFloat *>(inObj);
if (str_scalar)
{
int sx, sy, sz, size;
str_scalar->getGridSize(&sx, &sy, &sz);
size = sx * sy * sz;
if (size != numElem)
{
sendError("Size mismatch");
return NULL;
}
float *inData, *outData;
str_scalar->getAddress(&inData);
coDoFloat *resObj = new coDoFloat(outName, numSelected);
resObj->copyAllAttributes(inObj);
resObj->getAddress(&outData);
for (i = 0; i < numElem; i++)
{
if (selArr[i])
{
*outData = inData[i];
outData++;
}
}
return resObj;
}
}
/////////////////// Struct Vector Data ?
{
coDoVec3 *str_vector = dynamic_cast<coDoVec3 *>(inObj);
if (str_vector)
{
int sx, sy, sz, size;
str_vector->getGridSize(&sx, &sy, &sz);
size = sx * sy * sz;
if (size != numElem)
{
sendError("Size mismatch");
return NULL;
}
float *inU, *inV, *inW, *outU, *outV, *outW;
str_vector->getAddresses(&inU, &inV, &inW);
coDoVec3 *resObj = new coDoVec3(outName, numSelected);
resObj->copyAllAttributes(inObj);
resObj->getAddresses(&outU, &outV, &outW);
for (i = 0; i < numElem; i++)
{
if (selArr[i])
{
*outU = inU[i];
outU++;
*outV = inV[i];
outV++;
*outW = inW[i];
outW++;
}
}
return resObj;
}
}
/////////////////// Rectilinear Grid : index PER CELL so far
{
coDoRectilinearGrid *rectGrd = dynamic_cast<coDoRectilinearGrid *>(inObj);
if (rectGrd)
{
int sx, sy, sz, size;
rectGrd->getGridSize(&sx, &sy, &sz);
float *rx, *ry, *rz;
rectGrd->getAddresses(&rx, &ry, &rz);
size = (sx - 1) * (sy - 1) * (sz - 1); // idx per cell
if (size != numElem)
{
sendError("Size mismatch");
return NULL;
}
// vertex coordinate translation table
int *vertTrans = new int[sx * sy * sz];
for (i = 0; i < sx * sy * sz; i++)
vertTrans[i] = -1;
int numVert = 0;
int ix, iy, iz;
int cellNo = 0;
// #define VERT(i,j,k) ( (i) + (j)*sx + (k)*sx*sy )
#define VERT(k, j, i) ((i) + (j)*sx + (k)*sx * sy)
for (iz = 0; iz < sz - 1; iz++)
for (iy = 0; iy < sy - 1; iy++)
for (ix = 0; ix < sx - 1; ix++)
{
int vx, vy, vz;
if (selArr[cellNo])
{
for (vz = 0; vz < 2; vz++)
for (vy = 0; vy < 2; vy++)
for (vx = 0; vx < 2; vx++)
{
int vertexID = VERT(ix + vx, iy + vy, iz + vz);
if (vertTrans[vertexID] == -1)
{
vertTrans[vertexID] = numVert;
numVert++;
}
}
}
cellNo++;
}
coDoUnstructuredGrid *resObj = new coDoUnstructuredGrid(outName, numSelected, 8 * numSelected, numVert, 1);
resObj->copyAllAttributes(inObj);
int *elemList, *connList, *typeList;
float *xc, *yc, *zc;
resObj->getAddresses(&elemList, &connList, &xc, &yc, &zc);
resObj->getTypeList(&typeList);
cellNo = 0;
int actCell = 0;
for (iz = 0; iz < sz - 1; iz++)
for (iy = 0; iy < sy - 1; iy++)
for (ix = 0; ix < sx - 1; ix++)
{
if (selArr[cellNo])
{
*elemList = actCell * 8;
elemList++;
*typeList = TYPE_HEXAEDER;
typeList++;
actCell++;
*connList = vertTrans[VERT(ix, iy, iz)];
connList++;
*connList = vertTrans[VERT(ix + 1, iy, iz)];
connList++;
*connList = vertTrans[VERT(ix + 1, iy + 1, iz)];
connList++;
*connList = vertTrans[VERT(ix, iy + 1, iz)];
connList++;
*connList = vertTrans[VERT(ix, iy, iz + 1)];
connList++;
*connList = vertTrans[VERT(ix + 1, iy, iz + 1)];
connList++;
*connList = vertTrans[VERT(ix + 1, iy + 1, iz + 1)];
connList++;
*connList = vertTrans[VERT(ix, iy + 1, iz + 1)];
connList++;
}
cellNo++;
}
cellNo = 0;
for (iz = 0; iz < sz; iz++)
for (iy = 0; iy < sy; iy++)
for (ix = 0; ix < sx; ix++)
{
int vertexID = VERT(ix, iy, iz);
int trafo = vertTrans[vertexID];
if (trafo > -1)
{
xc[trafo] = rx[ix];
yc[trafo] = ry[iy];
zc[trafo] = rz[iz];
}
cellNo++;
}
return resObj;
}
}
#undef VERT
/////////////////// unknown so far
sprintf(buffer, "Type `%s` not yet implemented", inObj->getType());
sendError(buffer);
return NULL;
}
/*
* "Load" the current states of the VCS widgets from the
* information in the given v5d struct.
*/
static void load_vertical_widgets( v5dstruct *v5d )
{
int v, i, n;
int maxnl;
double size;
switch (v5d->VerticalSystem) {
case 0: /* linear, equally spaced, generic */
v = 0;
n = 2;
LUI_NewLabelChangeText( vertlabel[0], "Bottom Bound:" );
LUI_NewLabelChangeText( vertlabel[1], "Level Increment:" );
LUI_NewLabelChangeText( vertlabel[2], "" );
LUI_NewLabelChangeText( vertlabel[3], "" );
LUI_ScrollBarSet( vert_scrollbar, 100.0, 0.0 );
break;
case 1: /* equal km */
v = 1;
n = 2;
LUI_NewLabelChangeText( vertlabel[0], "Bottom Bound (km):" );
LUI_NewLabelChangeText( vertlabel[1], "Level Increment (km):" );
LUI_NewLabelChangeText( vertlabel[2], "" );
LUI_NewLabelChangeText( vertlabel[3], "" );
LUI_ScrollBarSet( vert_scrollbar, 100.0, 0.0 );
break;
case 2: /* unequal km */
v = 2;
n = 4;
LUI_NewLabelChangeText( vertlabel[0], "Level 1 Height (km):" );
LUI_NewLabelChangeText( vertlabel[1], "Level 2 Height (km):" );
LUI_NewLabelChangeText( vertlabel[2], "Level 3 Height (km):" );
LUI_NewLabelChangeText( vertlabel[3], "Level 4 Height (km):" );
maxnl = LUI_FieldGetInt( levels_field );
if (maxnl<=MAX_VERT_FIELDS) {
size = 100.0;
}
else {
size = 100 * MAX_VERT_FIELDS / maxnl;
}
LUI_ScrollBarSet( vert_scrollbar, size, 0.0 );
break;
case 3: /* unequal mb */
v = 3;
n = 4;
LUI_NewLabelChangeText( vertlabel[0], "Level 1 Pressure (mb):" );
LUI_NewLabelChangeText( vertlabel[1], "Level 2 Pressure (mb):" );
LUI_NewLabelChangeText( vertlabel[2], "Level 3 Pressure (mb):" );
LUI_NewLabelChangeText( vertlabel[3], "Level 4 Pressure (mb):" );
maxnl = LUI_FieldGetInt( levels_field );
if (maxnl<=MAX_VERT_FIELDS) {
size = 100.0;
}
else {
size = 100 * MAX_VERT_FIELDS / maxnl;
}
LUI_ScrollBarSet( vert_scrollbar, size, 0.0 );
break;
default:
/* VCS not initialized yet */
v = 0;
n = 0;
}
if (LUI_RadioGetCurrent(vert_radio) != v) {
LUI_RadioSetCurrent( vert_radio, v );
}
for (i=0;i<n;i++) {
LUI_FieldSetDouble( vertfield[i], VERT(v5d, v5d->VertArgs[i]) );
}
for (i=n;i<MAX_VERT_FIELDS;i++) {
LUI_FieldSetText( vertfield[i], "" );
}
}
void RegenerateMesh()
{
{
DebugDrawDX dd(m_grpBB.get());
duDebugDrawBoxWire(&dd,
m_modelInfo->min.x, m_modelInfo->min.z, m_modelInfo->min.y,
m_modelInfo->max.x, m_modelInfo->max.z, m_modelInfo->max.y,
m_color, 1.0);
}
#if RENDER_MODELS
if (!m_targetted)
return;
DebugDrawDX dd(m_grpModel.get());
// iterate over all the things!
if (m_modelInfo->oldModel)
{
auto verts = m_modelInfo->oldModel->GetVertices();
auto polys = m_modelInfo->oldModel->GetPolygons();
#define VERT(PX) { \
glm::vec3 p0; const glm::vec3& p = verts[iter->verts[PX]].pos; \
p0.x = p.y; \
p0.y = p.z; \
p0.z = p.x; \
dd.vertex(&p0.x, 0xffffffff); \
}
for (auto iter = polys.begin(); iter != polys.end(); ++iter)
{
//if (iter->flags & 0x11)
// continue;
dd.begin(DU_DRAW_TRIS);
VERT(0);
VERT(1);
VERT(2);
dd.end();
}
}
if (m_modelInfo->newModel)
{
auto verts = m_modelInfo->newModel->GetVertices();
auto polys = m_modelInfo->newModel->GetPolygons();
for (auto iter = polys.begin(); iter != polys.end(); ++iter)
{
//if (iter->flags & 0x11)
// continue;
dd.begin(DU_DRAW_TRIS);
VERT(0);
VERT(1);
VERT(2);
dd.end();
}
}
#endif
}
void initialize(uint64_t *block, int row, int col, int size) {
*block = sq[size]<<(VERT(row, col));
}
