void MainWindow::BuildAntenna(){
vp.clear();
vn.clear();
face.clear();
face_cnt = 4000;
BuildButtom();
Sweepping();
SetNormal();
SetFace();
std::ofstream mtlout("tmp.mtl");
mtlout << "#tmp.mtl";
mtlout.close();
std::ofstream out("tmp.obj");
out << "g default" << std::endl;
for (int i = 0; i < vp.size(); i++)
{
out << "v " << vp[i].x << " " << vp[i].y << " " << vp[i].z << std::endl;
}
for (int i = 0; i < vn.size(); i++)
{
out << "vn " << vn[i].x << " " << vn[i].y << " " << vn[i].z << std::endl;
}
for (int i = 0; i < face.size(); i++)
{
out << "f " << face[i].idx1 << "//" << face[i].idx1 << " " << face[i].idx2 << "//" << face[i].idx2 << " " << face[i].idx3 << "//" << face[i].idx3 << std::endl;
}
out.close();
antennaGLWidget->delAllGLList();
Andu::AnduMeshReader reader;
Caca::Mesh* pMesh = new Caca::Mesh();
reader.Read(pMesh, "tmp.obj");
antennaGLWidget->addGLList(1, pMesh);
antennaGLWidget->updateGL();
}
/* Pop_Arrow()
*==========================================================================
* Scroll the popup menu items if up or down arrow is selected.
*
* IN: int obj: up or down arrow is selected.
* int *offset: Offset into the menu items text array
* int num_items: Total number of menu items involved.
* char *items[]: Pointer to the text array
*
* OUT: void
*/
void
Pop_Arrow( int obj, int *offset, int num_items, char *items[] )
{
OBJECT *tree;
int draw = FALSE;
int i;
ActiveTree( ad_object );
/* Up Arrow Selected AND not at the top */
if( ( obj == Q1 ) && ( *offset > 0 ))
{
*offset -= 1;
draw = TRUE;
}
/* DOWN Arrow and not within 3 items from the bottom */
if( ( obj == Q5 ) && ( *offset < ( num_items - 3 ) ) )
{
*offset += 1;
draw = TRUE;
}
if( draw )
{
for( i = ( Q2 - Q2 ); i <= Q4 - Q2; i++ )
{
TedText( i + Q2 ) = items[ *offset + i ];
SetNormal( i + Q2 );
Objc_draw( ad_object, i + Q2, 0, NULL );
}
}
}
RAS_ITexVert::RAS_ITexVert(const MT_Vector3& xyz,
const MT_Vector4& tangent,
const MT_Vector3& normal)
{
xyz.getValue(m_localxyz);
SetNormal(normal);
SetTangent(tangent);
}
//--------------------------------------------------------------------------------------
// Create and blur a noise volume texture
//--------------------------------------------------------------------------------------
HRESULT SoftParticles::CreateNoiseVolume( ID3D11Device* pd3dDevice, UINT VolumeSize )
{
HRESULT hr = S_OK;
D3D11_SUBRESOURCE_DATA InitData;
InitData.pSysMem = new CHAR4[ VolumeSize*VolumeSize*VolumeSize ];
InitData.SysMemPitch = VolumeSize*sizeof(CHAR4);
InitData.SysMemSlicePitch = VolumeSize*VolumeSize*sizeof(CHAR4);
// Gen a bunch of random values
CHAR4* pData = (CHAR4*)InitData.pSysMem;
for( UINT i=0; i<VolumeSize*VolumeSize*VolumeSize; i++ )
{
pData[i].w = (char)(RPercent() * 128.0f);
}
// Generate normals from the density gradient
float heightAdjust = 0.5f;
D3DXVECTOR3 Normal;
D3DXVECTOR3 DensityGradient;
for( UINT z=0; z<VolumeSize; z++ )
{
for( UINT y=0; y<VolumeSize; y++ )
{
for( UINT x=0; x<VolumeSize; x++ )
{
DensityGradient.x = GetDensity( x+1, y, z, pData, VolumeSize ) - GetDensity( x-1, y, z, pData, VolumeSize )/heightAdjust;
DensityGradient.y = GetDensity( x, y+1, z, pData, VolumeSize ) - GetDensity( x, y-1, z, pData, VolumeSize )/heightAdjust;
DensityGradient.z = GetDensity( x, y, z+1, pData, VolumeSize ) - GetDensity( x, y, z-1, pData, VolumeSize )/heightAdjust;
D3DXVec3Normalize( &Normal, &DensityGradient );
SetNormal( Normal, x,y,z, pData, VolumeSize );
}
}
}
D3D11_TEXTURE3D_DESC desc;
desc.BindFlags = D3D11_BIND_SHADER_RESOURCE;
desc.CPUAccessFlags = 0;
desc.Depth = desc.Height = desc.Width = VolumeSize;
desc.Format = DXGI_FORMAT_R8G8B8A8_SNORM;
desc.MipLevels = 1;
desc.MiscFlags = 0;
desc.Usage = D3D11_USAGE_IMMUTABLE;
V_RETURN( pd3dDevice->CreateTexture3D( &desc, &InitData, &g_pNoiseVolume ) );
D3D11_SHADER_RESOURCE_VIEW_DESC SRVDesc;
ZeroMemory( &SRVDesc, sizeof(SRVDesc) );
SRVDesc.Format = desc.Format;
SRVDesc.ViewDimension = D3D11_SRV_DIMENSION_TEXTURE3D;
SRVDesc.Texture3D.MipLevels = desc.MipLevels;
SRVDesc.Texture3D.MostDetailedMip = 0;
V_RETURN(pd3dDevice->CreateShaderResourceView( g_pNoiseVolume, &SRVDesc, &g_pNoiseVolumeRV ));
delete InitData.pSysMem;
return hr;
}
void Wall2D::Read(ifstream &in)
{
double x, y;
in >> x >> y;
SetFrom(CCPoint(x, y));
in >> x >> y;
SetTo(CCPoint(x,y));
in >> x >> y;
SetNormal(CCPoint(x, y));
}
bool
vsMeshMakerTriangleVertex::AttemptMergeWith( vsMeshMakerTriangleVertex *other, const vsVector3D &faceNormalOther )
{
const float epsilon = 0.01f;
const float sqEpsilon = epsilon*epsilon;
bool closeEnough = ((other->m_position - m_position).SqLength() < sqEpsilon);
bool colorMatches = (other->m_color == m_color);
bool texelMatches = ((other->m_texel - m_texel).SqLength() < sqEpsilon);
//vsVector2D deltaTexel = other->m_texel - m_texel;
//deltaTexel.x -= vsFloor(deltaTexel.x+0.5f);
//deltaTexel.y -= vsFloor(deltaTexel.y+0.5f);
if ( closeEnough && colorMatches ) //&& deltaTexel.SqLength() < sqEpsilon )
{
// check my normal against 'faceNormalOther'
//vsAssert( m_flags & Flag_Normal, "error: merging when I have no normal set??" );
vsAssert( GetFirstTriangle(), "Merging a vertex which doesn't have any triangles??" );
//if ( m_normal.Dot( faceNormalOther ) > s_mergeTolerance )
vsVector3D faceNormal = GetFirstTriangle()->m_faceNormal;
if ( faceNormal.Dot( faceNormalOther ) > s_mergeTolerance )
{
if ( m_mergeCount == 0 )
{
m_totalNormal = GetNormal(); // we keep track of the running total, so we can blend correctly.
}
m_mergeCount++;
m_totalNormal += faceNormalOther;
vsVector3D newNormal = m_totalNormal;
newNormal.Normalise();
SetNormal( newNormal );
if ( !texelMatches )
{
other->SetNormal( newNormal ); // set the normal explicitly,
// just to force the 'has normal'
// flag on.
// make the other vertex fake match me.
other->m_fakeNormalMergedWith = this;
}
return texelMatches;
}
}
vsAssert(false,"Tried to merge things taht can't merge??");
return false;
}
RAS_TexVert::RAS_TexVert(const MT_Point3& xyz,
const MT_Point2& uv,
const MT_Point2& uv2,
const MT_Vector4& tangent,
const unsigned int rgba,
const MT_Vector3& normal,
const bool flat,
const unsigned int origindex)
{
xyz.getValue(m_localxyz);
uv.getValue(m_uv1);
uv2.getValue(m_uv2);
SetRGBA(rgba);
SetNormal(normal);
tangent.getValue(m_tangent);
m_flag = (flat)? FLAT: 0;
m_origindex = origindex;
m_unit = 2;
m_softBodyIndex = -1;
}
int
Set_Box( OBJECT *tree, int index, int cur_height,
int Height, int Width, int Just, int FontSize,
char *text )
{
SetNormal( index );
ObW( index ) = Width;
TedJust( index ) = Just;
TedFont( index ) = FontSize;
TedText( index ) = text;
#if 0
/* Do THIS ONLY if AES Version 0x0330 or Greater! */
if(( AES_Version >= 0x0330 )
&& ( gl_ncolors > LWHITE ))
{
ObType( index ) |= 0x0100;/* DRAW3D */
TedColor( index ) = ( TedColor( index ) & 0xFF70L ) | LWHITE | 0x70;
}
#endif
return( cur_height + Height );
}
void
ConeAttributes::SetFromNode(DataNode *parentNode)
{
if(parentNode == 0)
return;
DataNode *searchNode = parentNode->GetNode("ConeAttributes");
if(searchNode == 0)
return;
DataNode *node;
if((node = searchNode->GetNode("angle")) != 0)
SetAngle(node->AsDouble());
if((node = searchNode->GetNode("origin")) != 0)
SetOrigin(node->AsDoubleArray());
if((node = searchNode->GetNode("normal")) != 0)
SetNormal(node->AsDoubleArray());
if((node = searchNode->GetNode("representation")) != 0)
{
// Allow enums to be int or string in the config file
if(node->GetNodeType() == INT_NODE)
{
int ival = node->AsInt();
if(ival >= 0 && ival < 3)
SetRepresentation(Representation(ival));
}
else if(node->GetNodeType() == STRING_NODE)
{
Representation value;
if(Representation_FromString(node->AsString(), value))
SetRepresentation(value);
}
}
if((node = searchNode->GetNode("upAxis")) != 0)
SetUpAxis(node->AsDoubleArray());
if((node = searchNode->GetNode("cutByLength")) != 0)
SetCutByLength(node->AsBool());
if((node = searchNode->GetNode("length")) != 0)
SetLength(node->AsDouble());
}
RAS_TexVert::RAS_TexVert(const MT_Point3& xyz,
const MT_Point2 uvs[MAX_UNIT],
const MT_Vector4& tangent,
const unsigned int rgba,
const MT_Vector3& normal,
const bool flat,
const unsigned int origindex)
{
xyz.getValue(m_localxyz);
SetRGBA(rgba);
SetNormal(normal);
tangent.getValue(m_tangent);
m_flag = (flat)? FLAT: 0;
m_origindex = origindex;
m_unit = 2;
m_softBodyIndex = -1;
for (int i = 0; i < MAX_UNIT; ++i)
{
uvs[i].getValue(m_uvs[i]);
}
}
void PolygonGroup::ApplyMatrix(const Matrix4 & matrix)
{
aabbox = AABBox3(); // reset bbox
Matrix4 normalMatrix4;
matrix.GetInverse(normalMatrix4);
normalMatrix4.Transpose();
Matrix3 normalMatrix3;
normalMatrix3 = normalMatrix4;
for (int32 vi = 0; vi < vertexCount; ++vi)
{
Vector3 vertex;
GetCoord(vi, vertex);
vertex = vertex * matrix;
SetCoord(vi, vertex);
Vector3 normal;
GetNormal(vi, normal);
normal = normal * normalMatrix3;
SetNormal(vi, normal);
}
}
void
PlaneAttributes::SetFromNode(DataNode *parentNode)
{
if(parentNode == 0)
return;
DataNode *searchNode = parentNode->GetNode("PlaneAttributes");
if(searchNode == 0)
return;
DataNode *node;
if((node = searchNode->GetNode("origin")) != 0)
SetOrigin(node->AsDoubleArray());
if((node = searchNode->GetNode("normal")) != 0)
SetNormal(node->AsDoubleArray());
if((node = searchNode->GetNode("upAxis")) != 0)
SetUpAxis(node->AsDoubleArray());
if((node = searchNode->GetNode("haveRadius")) != 0)
SetHaveRadius(node->AsBool());
if((node = searchNode->GetNode("radius")) != 0)
SetRadius(node->AsDouble());
if((node = searchNode->GetNode("threeSpace")) != 0)
SetThreeSpace(node->AsBool());
}
kexPlane::kexPlane(const kexVec3 &pt1, const kexVec3 &pt2, const kexVec3 &pt3) {
SetNormal(pt1, pt2, pt3);
this->d = kexVec3::Dot(pt1, Normal());
}
void RAS_TexVert::Transform(const MT_Matrix4x4& mat, const MT_Matrix4x4& nmat)
{
SetXYZ((mat*MT_Vector4(m_localxyz[0], m_localxyz[1], m_localxyz[2], 1.0)).getValue());
SetNormal((nmat*MT_Vector4(m_normal[0], m_normal[1], m_normal[2], 1.0)).getValue());
SetTangent((nmat*MT_Vector4(m_tangent[0], m_tangent[1], m_tangent[2], 1.0)).getValue());
}
void CMDecodePage::SetHigh()
{
SetNormal();
}
void MODEL::DoDryRewet( PROJECT* project, int* dried, int* wetted )
{
DRYREW *dryRew = ®ion->dryRew;
region->Connection( 0L );
int del = 0;
int wel = 0;
if( dryRew->method == 1 )
{
// mark nodes and elements to be rewetted ------------------------------------------------------
wel = region->Rewet( dryRew->rewetLimit, dryRew->rewetPasses, project );
// mark dry nodes and elements -----------------------------------------------------------------
del = region->Dry( dryRew->dryLimit, dryRew->countDown );
}
else if( dryRew->method == 2 )
{
region->DryRewet( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
else if( dryRew->method == 3 )
{
region->RewetDry( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
/*
// future work ...
else if( dryRew->method == 4 )
{
// determine dynamic boundary ------------------------------------------------------------------
region.DynamicBound( np, node, *elem, dryRew->dryLimit, project );
}
*/
//////////////////////////////////////////////////////////////////////////////////////////////////
# ifdef _MPI_
del = project->subdom.Mpi_sum( del );
wel = project->subdom.Mpi_sum( wel );
# endif
char text [200];
sprintf( text, "\n (MODEL::DoDryRewet) %d elements have got dry\n", del );
REPORT::rpt.Output( text, 3 );
sprintf( text, "\n (MODEL::DoDryRewet) %d elements have got wet\n", wel );
REPORT::rpt.Output( text, 3 );
int dryRewFlag = del + wel;
if( dryRewFlag )
{
////////////////////////////////////////////////////////////////////////////////////////////////
// exchange information on dry nodes on interfaces
# ifdef _MPI_
if( project->subdom.npr > 1 )
{
MPI_Comm_Dry( project, true );
//////////////////////////////////////////////////////////////////////////////////////////////
// reset wetted area, in case of dry nodes that are not dry in adjacent subdomains
// added on 20.04.2006, sc
if( dryRew->method == 2 || dryRew->method == 3 )
{
int wetted = 0;
for( int n=0; n<region->Getnp(); n++ )
{
NODE* nd = region->Getnode(n);
nd->mark = false;
double H = nd->v.S - nd->zor;
if( H < dryRew->dryLimit )
{
SF( nd->flag, NODE::kDry );
}
else if( isFS(nd->flag, NODE::kDry) )
{
nd->mark = true;
CF( nd->flag, NODE::kDry );
wetted++;
}
CF( nd->flag, NODE::kMarsh );
nd->z = nd->zor;
}
if( dryRew->method == 2 )
{
region->DryRewet( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
else if( dryRew->method == 3 )
{
region->RewetDry( dryRew->dryLimit, dryRew->rewetLimit, dryRew->countDown, &del, &wel );
}
////////////////////////////////////////////////////////////////////////////////////////////
MPI_Comm_Dry( project, false );
wetted = project->subdom.Mpi_sum( wetted );
sprintf( text, "\n (MODEL::DoDryRewet) %d interface nodes have got wet\n", wetted );
REPORT::rpt.Output( text, 3 );
}
}
////////////////////////////////////////////////////////////////////////////////////////////////
// reset interface flags: kInface, kInface_DN and kInface_UP; this is
// necessary for the correct ordering of equations in EQS::ResetEqOrder()
project->subdom.SetInface( region );
# endif // #ifdef _MPI_
////////////////////////////////////////////////////////////////////////////////////////////////
// determine 1D boundary elements and ----------------------------------------------------------
// set up slip velocity boundary conditions
Initialize();
SetNormal();
SetRotation();
region->SetSlipFlow();
REPORT::rpt.PrintTime( 3 );
// ================================================================================================
# ifdef kDebug_1
for( int n=0; n<region->Getnp(); n++ )
{
NODE* ndbg = region->Getnode(n);
switch( ndbg->Getname() )
{
case 3654:
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### NODE %6d: inface = %d\n", ndbg->Getname(), ndbg->flag&NODE::kInface );
REPORT::rpt.Message( "### : inface_dn = %d\n", ndbg->flag&NODE::kInface_DN );
REPORT::rpt.Message( "### : inface_up = %d\n", ndbg->flag&NODE::kInface_UP );
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### : dry = %d\n", ndbg->flag&NODE::kDry );
REPORT::rpt.Message( "### : marsh = %d\n", ndbg->flag&NODE::kMarsh );
REPORT::rpt.Message( "### : H = %f\n", ndbg->v.S - ndbg->zor );
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### : bound = %d\n", ndbg->flag&NODE::kBound );
REPORT::rpt.Message( "### : inflow = %d\n", ndbg->flag&NODE::kInlet );
REPORT::rpt.Message( "### : outflow = %d\n", ndbg->flag&NODE::kOutlet );
REPORT::rpt.Message( "### : rotat = %d\n", ndbg->flag&NODE::kRotat );
REPORT::rpt.Message( "### : noMoment = %d\n", ndbg->flag&NODE::kNoMoment );
REPORT::rpt.Message( "\n" );
REPORT::rpt.Message( "### : countDown = %d\n", ndbg->countDown );
{
SUB* sub = ndbg->sub;
while( sub )
{
REPORT::rpt.Message( "### SUBDOM %4d: dry = %d\n", sub->no+1, sub->dry );
sub = sub->next;
}
}
break;
}
}
# endif
// ================================================================================================
}
else
{
// set up structure for connection of nodes to elements ----------------------------------------
// dry elements are not taken into consideration
region->Connection( ELEM::kDry );
}
if( dried ) *dried = del;
if( wetted ) *wetted = wel;
region->firstDryRew = false;
}
void Flipper::RenderAtThickness(RenderDevice* pd3dDevice, float angle, float height,
float baseradius, float endradius, float flipperheight, Vertex3D_NoTex2* buf)
{
Pin3D * const ppin3d = &g_pplayer->m_pin3d;
Vertex2D vendcenter;
Vertex2D rgv[4];
SetVertices(0.0f, 0.0f, angle, &vendcenter, rgv, baseradius, endradius);
Vertex3D_NoTex2 rgv3D[32];
for (int l=0;l<8;l++)
{
rgv3D[l].x = rgv[l&3].x;
rgv3D[l].y = rgv[l&3].y;
rgv3D[l].z = (l<4) ? height + flipperheight + 0.1f : height; // Make flippers a bit taller so they draw above walls
rgv3D[l].z *= m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
}
unsigned long offset = 0;
SetNormal<Vertex3D_NoTex2,WORD>(rgv3D, rgi0123, 3, NULL, NULL, 4);
// Draw top.
buf[offset ] = rgv3D[0];
buf[offset + 1] = rgv3D[1];
buf[offset + 2] = rgv3D[2];
buf[offset + 3] = rgv3D[3];
offset+=4;
SetNormal<Vertex3D_NoTex2,WORD>(rgv3D, rgiFlipper1, 3, NULL, NULL, 4);
// Draw front side wall.
buf[offset ] = rgv3D[0];
buf[offset + 1] = rgv3D[4];
buf[offset + 2] = rgv3D[5];
buf[offset + 3] = rgv3D[1];
offset+=4;
SetNormal<Vertex3D_NoTex2,WORD>(rgv3D, rgiFlipper2, 3, NULL, NULL, 4);
// Draw back side wall.
buf[offset ] = rgv3D[2];
buf[offset + 1] = rgv3D[6];
buf[offset + 2] = rgv3D[7];
buf[offset + 3] = rgv3D[3];
offset+=4;
// offset = 12
// Base circle
for (int l=0;l<16;l++)
{
const float anglel = (float)(M_PI*2.0/16.0)*(float)l;
rgv3D[l].x = /*m_d.m_Center.x*/ + sinf(anglel)*baseradius;
rgv3D[l].y = /*m_d.m_Center.y*/ - cosf(anglel)*baseradius;
rgv3D[l].z = height + flipperheight + 0.1f;
rgv3D[l].z *= m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
rgv3D[l+16].x = rgv3D[l].x;
rgv3D[l+16].y = rgv3D[l].y;
rgv3D[l+16].z = height;
rgv3D[l+16].z *= m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
}
// Draw end caps of cylinders of large ends.
WORD endCapsIndex[3*14];
for (int l=0;l<14;l++)
{
endCapsIndex[l*3 ] = 0;
endCapsIndex[l*3+1] = l+1;
endCapsIndex[l*3+2] = l+2;
SetNormal(rgv3D, endCapsIndex+l*3, 3);
}
memcpy( &buf[offset], rgv3D, sizeof(Vertex3D_NoTex2)*16 );
offset += 16;
// offset = 28
// Draw vertical cylinders at large end of flipper.
for (int l=0; l<16; l++)
{
// set normal according to cylinder surface
const float anglel = (float)(M_PI*2.0/16.0)*(float)l;
rgv3D[l].nx = rgv3D[l+16].nx = +sinf(anglel);
rgv3D[l].ny = rgv3D[l+16].ny = -cosf(anglel);
rgv3D[l].nz = rgv3D[l+16].nz = 0.0f;
buf[offset] = rgv3D[l];
buf[offset+1] = rgv3D[l+16];
offset += 2;
}
// offset = 60
// End circle.
for (int l=0;l<16;l++)
{
const float anglel = (float)(M_PI*2.0/16.0)*(float)l;
rgv3D[l].x = vendcenter.x + sinf(anglel)*endradius;
rgv3D[l].y = vendcenter.y - cosf(anglel)*endradius;
rgv3D[l].z = height + flipperheight + 0.1f;
rgv3D[l].z *= m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
rgv3D[l+16].x = rgv3D[l].x;
rgv3D[l+16].y = rgv3D[l].y;
rgv3D[l+16].z = height;
rgv3D[l+16].z *= m_ptable->m_BG_scalez[m_ptable->m_BG_current_set];
}
// Draw end caps to vertical cylinder at small end.
for (int l=0;l<14;l++)
SetNormal(rgv3D, endCapsIndex+l*3, 3);
memcpy( &buf[offset], rgv3D, sizeof(Vertex3D_NoTex2)*16 );
offset += 16;
// offset = 76
// Draw vertical cylinders at small end.
for (int l=0;l<16;l++)
{
const float anglel = (float)(M_PI*2.0/16.0)*(float)l;
rgv3D[l].nx = rgv3D[l+16].nx = +sinf(anglel);
rgv3D[l].ny = rgv3D[l+16].ny = -cosf(anglel);
rgv3D[l].nz = rgv3D[l+16].nz = 0.0f;
buf[offset] = rgv3D[l];
buf[offset+1] = rgv3D[l+16];
offset += 2;
}
// offset = 108
}
stVertex3::stVertex3(const DexVector3& pos, const DexVector3& normal, float u, float v) :m_u(u), m_v(v)
{
SetPos(pos);
SetNormal(normal);
SetColor(DEXCOLOR_WHITE);
}
void TerrainGenerator::RenderHeightMap() // This Renders The Height Map As Quads
{
glPushMatrix();
int X = 0, Y = 0; // Create Some Variables To Walk The Array With.
int x, y, z; // Create Some Variables For Readability
glScalef(scaleValue, scaleValue * HEIGHT_RATIO, scaleValue);
glTranslatef(-512,-120,-512);
if(!g_HeightMap.size()) return; // Make Sure Our Height Data Is Valid
glCullFace(GL_BACK);
glEnable(GL_CULL_FACE);
fVector3d first;
fVector3d second;
fVector3d third;
fVector3d a;
fVector3d b;
fVector3d n;
double l;
if(_vboInit)
{
for ( X = 0; X < (MAP_SIZE-STEP_SIZE); X += STEP_SIZE )
{
for ( Y = 0; Y < (MAP_SIZE-STEP_SIZE); Y += STEP_SIZE )
{
//calcNormals
first.x = X;
first.y = Height(X, Y );
first.z = Y;
second.x = X;
second.y = Height(X, Y + STEP_SIZE);
second.z = Y + STEP_SIZE;
third.x = X + STEP_SIZE;
third.y = Height(X + STEP_SIZE, Y );
third.z = Y;
a.x = second.x - first.x;
a.y = second.y - first.y;
a.z = second.z - first.z;
b.x = third.x - first.x;
b.y = third.y - first.y;
b.z = third.z - first.z;
n.x = (a.y * b.z) - (a.z * b.y);
n.y = (a.z * b.x) - (a.x * b.z);
n.z = (a.x * b.y) - (a.y * b.x);
// Normalize (divide by root of dot product)
l = sqrt(n.x * n.x + n.y * n.y + n.z * n.z);
n.x /= l;
n.y /= l;
n.z /= l;
// Get The (X, Y, Z) Value For The Bottom Left Vertex
x = X;
y = Height(X, Y );
z = Y;
SetTex(1.0f, 1.0f);
SetNormal(n.x,n.y,n.z);
SetVertice(x,y,z);
// Get The (X, Y, Z) Value For The Top Left Vertex
x = X;
y = Height(X, Y + STEP_SIZE );
z = Y + STEP_SIZE ;
SetTex(0.0f, 1.0f);
SetNormal(n.x,n.y,n.z);
SetVertice(x,y,z); // Send This Vertex a VBO then To OpenGL To Be Rendered
// Get The (X, Y, Z) Value For The Top Right Vertex
x = X + STEP_SIZE;
y = Height(X + STEP_SIZE, Y + STEP_SIZE );
z = Y + STEP_SIZE ;
SetTex(0.0f, 0.0f);
SetNormal(n.x,n.y,n.z);
SetVertice(x,y,z);
// Get The (X, Y, Z) Value For The Bottom Right Vertex
x = X + STEP_SIZE;
y = Height(X + STEP_SIZE, Y );
z = Y;
SetTex(1.0f, 0.0f);
SetNormal(n.x,n.y,n.z);
SetVertice(x,y,z);
}
}
InitVBO();
_vboInit = false;
}
CreateVBO(); // Render Polygon
glColor4f(1.0f, 1.0f, 1.0f, 1.0f);
glPopMatrix();
}
void Bumper::RenderSetup(RenderDevice* pd3dDevice )
{
if (m_d.m_state == LightStateBlinking)
RestartBlinker(g_pplayer->m_time_msec);
const float outerradius = m_d.m_radius + m_d.m_overhang;
const float height = m_ptable->GetSurfaceHeight(m_d.m_szSurface, m_d.m_vCenter.x, m_d.m_vCenter.y) * m_ptable->m_zScale;
Pin3D * const ppin3d = &g_pplayer->m_pin3d;
Texture * const pin = m_ptable->GetImage(m_d.m_szImage);
float r = (float)(m_d.m_color & 255) * (float) (1.0/255.0);
float g = (float)(m_d.m_color & 65280) * (float) (1.0/65280.0);
float b = (float)(m_d.m_color & 16711680) * (float) (1.0/16711680.0);
topNonLitMaterial.setAmbient( 1.0f, r*0.5f, g*0.5f, b*0.5f );
topNonLitMaterial.setDiffuse( 1.0f, r*0.5f, g*0.5f, b*0.5f );
topLitMaterial.setAmbient(1.0f, 0.0f, 0.0f, 0.0f );
topLitMaterial.setDiffuse(1.0f, 0.0f, 0.0f, 0.0f );
topLitMaterial.setEmissive( 0.0f, r, g, b );
r = (float)(m_d.m_sidecolor & 255) * (float) (1.0/255.0);
g = (float)(m_d.m_sidecolor & 65280) * (float) (1.0/65280.0);
b = (float)(m_d.m_sidecolor & 16711680) * (float) (1.0/16711680.0);
sideNonLitMaterial.setAmbient( 1.0f, r*0.5f, g*0.5f, b*0.5f );
sideNonLitMaterial.setDiffuse( 1.0f, r*0.5f, g*0.5f, b*0.5f );
sideLitMaterial.setAmbient(1.0f, 0.0f, 0.0f, 0.0f );
sideLitMaterial.setDiffuse(1.0f, 0.0f, 0.0f, 0.0f );
sideLitMaterial.setEmissive( 0.0f, r, g, b );
nonLitMaterial.setAmbient( 1.0f, 0.5f, 0.5f, 0.5f );
nonLitMaterial.setDiffuse( 1.0f, 0.5f, 0.5f, 0.5f );
nonLitMaterial.setEmissive(0.0f, 0.0f, 0.0f, 0.0f );
litMaterial.setAmbient( 1.0f, 0.0f, 0.0f, 0.0f );
litMaterial.setDiffuse( 1.0f, 0.0f, 0.0f, 0.0f );
litMaterial.setEmissive(0.0f, 1.0f, 1.0f, 1.0f );
Vertex3D moverVertices[5*32];
WORD indices[4*32];
WORD normalIndices[6*32];
std::vector<WORD> allIndices; // collect all indices which should go into an index buffer
allIndices.reserve(6*32 + 12*32);
for (int l=0,i=0,t=0; l<32; l++,t+=6,i+=4)
{
normalIndices[t ] = (l==0) ? 31 : (l-1);
normalIndices[t+1] = (l==0) ? 63 : (l+31);
normalIndices[t+2] = (l==0) ? 33 : (l+1);
normalIndices[t+3] = l;
normalIndices[t+4] = l+32;
normalIndices[t+5] = (l<30) ? (l+2) : (l-30);
indices[i ] = l;
indices[i+1] = 32 + l;
indices[i+2] = 32 + (l+1) % 32;
indices[i+3] = (l+1) % 32;
allIndices.push_back(l);
allIndices.push_back(32 + l);
allIndices.push_back(32 + (l+1) % 32);
allIndices.push_back(l);
allIndices.push_back(32 + (l+1) % 32);
allIndices.push_back((l+1) % 32);
const float angle = (float)(M_PI*2.0/32.0)*(float)l;
const float sinangle = sinf(angle);
const float cosangle = -cosf(angle);
// top circle of base cylinder
moverVertices[l].x = sinangle*m_d.m_radius + m_d.m_vCenter.x;
moverVertices[l].y = cosangle*m_d.m_radius + m_d.m_vCenter.y;
moverVertices[l].z = height+(40.0f+m_d.m_heightoffset)*m_ptable->m_zScale;
moverVertices[l].nx = sinangle;
moverVertices[l].ny = cosangle;
moverVertices[l].nz = 0.0f;
// bottom circle of base cylinder
moverVertices[l+32] = moverVertices[l];
moverVertices[l+32].z = height;
// top circle of cap
moverVertices[l+64].x = sinangle*outerradius*0.5f + m_d.m_vCenter.x;
moverVertices[l+64].y = cosangle*outerradius*0.5f + m_d.m_vCenter.y;
moverVertices[l+64].z = height+(60.0f+m_d.m_heightoffset)*m_ptable->m_zScale;
// middle ring of cap
moverVertices[l+96].x = sinangle*outerradius*0.9f + m_d.m_vCenter.x;
moverVertices[l+96].y = cosangle*outerradius*0.9f + m_d.m_vCenter.y;
moverVertices[l+96].z = height+(50.0f+m_d.m_heightoffset)*m_ptable->m_zScale;
// outer rim of cap
moverVertices[l+128].x = sinangle*outerradius + m_d.m_vCenter.x;
moverVertices[l+128].y = cosangle*outerradius + m_d.m_vCenter.y;
moverVertices[l+128].z = height+(40.0f+m_d.m_heightoffset)*m_ptable->m_zScale;
moverVertices[l].tu = 0.5f+sinangle*0.5f;
moverVertices[l].tv = 0.5f-cosangle*0.5f;
moverVertices[l+32].tu = 0.5f+sinangle*0.5f;
moverVertices[l+32].tv = 0.5f-cosangle*0.5f;
moverVertices[l+64].tu = 0.5f+sinangle*0.25f;
moverVertices[l+64].tv = 0.5f-cosangle*0.25f;
moverVertices[l+96].tu = 0.5f+sinangle*(float)(0.5*0.9);
moverVertices[l+96].tv = 0.5f-cosangle*(float)(0.5*0.9);
moverVertices[l+128].tu = 0.5f+sinangle*0.5f;
moverVertices[l+128].tv = 0.5f-cosangle*0.5f;
if ( pin )
{
moverVertices[l+64].tu = 0.5f+sinangle*0.25f;
moverVertices[l+64].tv = 0.5f+cosangle*0.25f;
moverVertices[l+96].tu = 0.5f+sinangle*(float)(0.5*0.9);
moverVertices[l+96].tv = 0.5f+cosangle*(float)(0.5*0.9);
moverVertices[l+128].tu = 0.5f+sinangle*0.5f;
moverVertices[l+128].tv = 0.5f+cosangle*0.5f;
const float lightmaxtu = 0.8f;
const float lightmaxtv = 0.8f;
moverVertices[l].tu2 = moverVertices[l].tu;
moverVertices[l+32].tu2 = moverVertices[l+32].tu;
moverVertices[l].tv2 = moverVertices[l].tv;
moverVertices[l+32].tv2 = moverVertices[l+32].tv;
moverVertices[l+64].tu2 = (0.5f+sinangle*0.25f)*lightmaxtu;
moverVertices[l+64].tv2 = (0.5f+cosangle*0.25f)*lightmaxtv;
moverVertices[l+96].tu2 = (0.5f+sinangle*(float)(0.5*0.9))*lightmaxtu;
moverVertices[l+96].tv2 = (0.5f+cosangle*(float)(0.5*0.9))*lightmaxtv;
moverVertices[l+128].tu2 = (0.5f+sinangle*0.5f)*lightmaxtu;
moverVertices[l+128].tv2 = (0.5f+cosangle*0.5f)*lightmaxtv;
}
}
ppin3d->CalcShadowCoordinates(moverVertices,32*5);
for( int l=0,k=0; l<32*12; l+=6,k+=4 )
{
allIndices.push_back( k );
allIndices.push_back( k+1 );
allIndices.push_back( k+2 );
allIndices.push_back( k );
allIndices.push_back( k+2 );
allIndices.push_back( k+3 );
}
if (idxBuf)
idxBuf->release();
idxBuf = pd3dDevice->CreateAndFillIndexBuffer( allIndices );
Vertex3D dynVerts[8*32];
for (int l=0,t=0,k=0,ofs=0; l<32; l++,t+=6,k+=4,ofs+=8)
{
SetNormal(&moverVertices[64], &normalIndices[t], 3, NULL, &indices[k], 2);
SetNormal(&moverVertices[96], &normalIndices[t], 3, NULL, &indices[k], 2);
SetNormal(&moverVertices[64], &normalIndices[t+3], 3, NULL, &indices[k+2], 2);
SetNormal(&moverVertices[96], &normalIndices[t+3], 3, NULL, &indices[k+2], 2);
dynVerts[ofs ] = moverVertices[64+indices[k ]];
dynVerts[ofs+1] = moverVertices[64+indices[k+1]];
dynVerts[ofs+2] = moverVertices[64+indices[k+2]];
dynVerts[ofs+3] = moverVertices[64+indices[k+3]];
dynVerts[ofs+4] = moverVertices[96+indices[k ]];
dynVerts[ofs+5] = moverVertices[96+indices[k+1]];
dynVerts[ofs+6] = moverVertices[96+indices[k+2]];
dynVerts[ofs+7] = moverVertices[96+indices[k+3]];
}
static const WORD rgiBumperStatic[32] = {0,1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31};
SetNormal(&moverVertices[64], rgiBumperStatic, 32, NULL, NULL, 0);
if (!vtxBuf)
pd3dDevice->CreateVertexBuffer(32+8*32+2*32, 0, MY_D3DFVF_VERTEX, &vtxBuf);
Vertex3D *buf;
vtxBuf->lock(0, 0, (void**)&buf, 0);
memcpy(buf, &moverVertices[64], 32*sizeof(buf[0]));
memcpy(buf+32, dynVerts, 8*32*sizeof(buf[0]));
memcpy(buf+32+8*32, moverVertices, 2*32*sizeof(buf[0]));
vtxBuf->unlock();
// ensure we are not disabled at game start
m_fDisabled = fFalse;
}
