void OGF::PreSave (u32 tree_id)
{
// if (20==tree_id || 18==tree_id) __asm int 3; //.
Shader_xrLC* SH = pBuild->shaders.Get (pBuild->materials[material].reserved);
bool bVertexColored = (SH->flags.bLIGHT_Vertex);
// X-vertices/faces
if (x_vertices.size() && x_faces.size())
{
clMsg ("%4d: v(%3d)/f(%3d)",tree_id,x_vertices.size(),x_faces.size());
VDeclarator x_D;
x_D.set (x_decl_vert);
x_VB.Begin (x_D);
for (itXV V=x_vertices.begin(); V!=x_vertices.end(); V++)
{
x_vert v (V->P);
x_VB.Add (&v,sizeof(v));
}
x_VB.End (&xvb_id,&xvb_start);
x_IB.Register (LPWORD(&*x_faces.begin()),LPWORD(&*x_faces.end()),&xib_id,&xib_start);
}
// Vertices
VDeclarator D;
if (bVertexColored){
// vertex-colored
D.set (r1_decl_vert);
g_VB.Begin (D);
for (itOGF_V V=vertices.begin(); V!=vertices.end(); V++)
{
r1v_vert v (V->P,V->N,V->T,V->B,V->Color,V->UV[0]);
g_VB.Add (&v,sizeof(v));
}
g_VB.End (&vb_id,&vb_start);
}else{
// lmap-colored
D.set (r1_decl_lmap);
g_VB.Begin (D);
for (itOGF_V V=vertices.begin(); V!=vertices.end(); V++)
{
r1v_lmap v (V->P,V->N,V->T,V->B,V->Color,V->UV[0],V->UV[1]);
g_VB.Add (&v,sizeof(v));
}
g_VB.End (&vb_id,&vb_start);
}
// Faces
g_IB.Register (LPWORD(&*faces.begin()),LPWORD(&*faces.end()),&ib_id,&ib_start);
}
void xrMU_Model::export_geometry ()
{
// Declarator
VDeclarator D;
D.set (decl);
// RT-check, BOX, low-point, frac-size
Fbox BB;
BB.invalidate ();
for (v_vertices_it vit=m_vertices.begin(); vit!=m_vertices.end(); vit++)
BB.modify ((*vit)->P);
Fvector frac_low;
float frac_Ysize;
BB.getcenter (frac_low);
frac_low.y = BB.min.y;
frac_Ysize = BB.max.y - BB.min.y;
// Begin building
for (v_subdivs_it it=m_subdivs.begin(); it!=m_subdivs.end(); it++)
{
// Vertices
{
g_VB.Begin (D);
vecOGF_V& verts = it->ogf->vertices;
for (u32 v_it=0; v_it<verts.size(); v_it++)
{
OGF_Vertex& oV = verts[v_it];
// Position
g_VB.Add (&oV.P,3*sizeof(float));
// Normal
{
base_color_c oV_c;
oV.Color._get(oV_c);
Fvector N = oV.N;
N.add (1.f);
N.mul (.5f*255.f);
s32 nx = iFloor(N.x);
clamp(nx,0,255);
s32 ny = iFloor(N.y);
clamp(ny,0,255);
s32 nz = iFloor(N.z);
clamp(nz,0,255);
s32 cc = iFloor(oV_c.hemi*255.f);
clamp(cc,0,255);
u32 uN = color_rgba(nx,ny,nz,cc);
g_VB.Add (&uN,4);
}
// Tangent
{
u32 uT = color_rgba(oV.T.x,oV.T.y,oV.T.z,0);
g_VB.Add (&uT,4);
}
// Binormal
{
u32 uB = color_rgba(oV.B.x,oV.B.y,oV.B.z,0);
g_VB.Add (&uB,4);
}
// TC
s16 tu,tv,frac,dummy;
tu = QC(oV.UV.begin()->x);
tv = QC(oV.UV.begin()->y);
g_VB.Add (&tu,2);
g_VB.Add (&tv,2);
// frac
float f1 = (oV.P.y - frac_low.y) /frac_Ysize;
float f2 = oV.P.distance_to(frac_low)/frac_Ysize;
frac = QC((f1+f2)/2.f);
dummy = 0;
g_VB.Add (&frac, 2);
g_VB.Add (&dummy,2);
}
g_VB.End (&it->vb_id,&it->vb_start);
}
// Indices
g_IB.Register (LPWORD(&*it->ogf->faces.begin()),LPWORD(&*it->ogf->faces.end()),&it->ib_id,&it->ib_start);
// SW
if (it->ogf->progressive_test())
g_SWI.Register (&it->sw_id,&it->ogf->m_SWI);
}
}