void kStatus(char* name, char* status, bool good){
kprintf("* %s",name);
if (good)
kColor(Black,LightGreen);
else
kColor(Black,LightRed);
line_x = 80-5-strlen(status);
kprintf("[ %s ]\n",status);
kColorReset();
kprintf("................................................................\n");
}
void D3D10SkyBox::BuildParamMap()
{
// 建立参数表
Key kProj( wstring( L"g_matProj" ) );
m_kViewMatrix.SetName( wstring( L"g_matView" ) );
m_kSkyTexture.SetName( wstring(L"g_Texture") );
m_mParamMap[Material::Entity_ProjMatrix] = kProj;
m_pEffect->AddParamHandle( Effect::Param_Matrix, kProj );
m_pEffect->AddParamHandle( Effect::Param_Matrix, m_kViewMatrix );
m_pEffect->AddParamHandle( Effect::Param_Texture, m_kSkyTexture );
// 建立科技表
Key kColor( wstring( L"Color" ) );
m_mTechniqueMap[Material::Technique_Color] = kColor;
m_pEffect->AddParamHandle( Effect::Param_Technique, kColor );
}
//----------------------------------------------------------------------------
void RipplingOcean::CreateRectangleMesh (TriMesh*& rpkMesh,
const Vector3f& rkCenter, const Vector3f& rkU, const Vector3f& rkV,
const Vector3f& rkAxis, float fUExtent, float fVExtent,
int iUSamples, int iVSamples, bool bWantNormals, bool bWantColors,
bool bWantUVs)
{
assert( iUSamples >=2 );
assert( iVSamples >=2 );
// allocate vertices
int iVQuantity = iUSamples*iVSamples;
Vector3f* akVertex = new Vector3f[iVQuantity];
// allocate normals if requested
Vector3f* akNormal = NULL;
if ( bWantNormals )
akNormal = new Vector3f[iVQuantity];
// allocate colors if requested
ColorRGB* akColor = NULL;
if ( bWantColors )
{
akColor = new ColorRGB[iVQuantity];
//memset(akColor,0,iVQuantity*sizeof(ColorRGB));
// We want tangent data here.
// rkV better be normalized!
ColorRGB kColor( rkV.X()*0.5f+0.5f, rkV.Y()*0.5f+0.5f,
rkV.Z()*0.5f+0.5f );
for (int i = 0; i < iVQuantity; i++)
{
akColor[i] = kColor;
}
}
// allocate texture coordinates if requested
Vector2f* akUV = NULL;
if ( bWantUVs )
akUV = new Vector2f[iVQuantity];
// allocate connectivity
int iTQuantity = (iUSamples-1)*(iVSamples-1)*2;
int* aiConnect = new int[3*iTQuantity];
int iVNum = 0;
// generate geometry
float fInvU = 1.0f/(float)(iUSamples-1);
float fInvV = 1.0f/(float)(iVSamples-1);
float fCurU, fCurV;
int iU, iV;
for (iU = 0, fCurU = 0.0f; iU < iUSamples; iU++)
{
for (iV = 0, fCurV = 0.0f; iV < iVSamples; iV++)
{
akVertex[iVNum] = rkCenter + fUExtent*rkU*(fCurU-0.5f)
+ fVExtent*rkV*(fCurV-0.5f);
if ( bWantUVs )
{
akUV[iVNum].X() = fCurU;
akUV[iVNum].Y() = fCurV;
}
iVNum++;
fCurV += fInvV;
}
fCurU += fInvU;
}
if ( bWantNormals )
{
for (int i = 0; i < iVQuantity; i++)
akNormal[i] = rkAxis;
}
assert( iVNum == iVQuantity );
int iC = 0;
// generate connectivity
for (iU = 0; iU < iUSamples-1; iU++)
{
for (iV = 0; iV < iVSamples-1; iV++)
{
int iV0, iV1, iV2, iV3;
iV0 = iV + iVSamples*iU;
iV1 = iV0 + 1;
iV2 = iV0 + iVSamples;
iV3 = iV2 + 1;
aiConnect[iC++] = iV0;
aiConnect[iC++] = iV1;
aiConnect[iC++] = iV2;
aiConnect[iC++] = iV2;
aiConnect[iC++] = iV1;
aiConnect[iC++] = iV3;
}
}
assert( iC == iTQuantity*3 );
if ( rpkMesh )
{
rpkMesh->Reconstruct(iVQuantity,akVertex,akNormal,akColor,akUV,
iTQuantity,aiConnect);
}
else
{
rpkMesh = new TriMesh(iVQuantity,akVertex,akNormal,akColor,akUV,
iTQuantity,aiConnect);
}
}
void kColorReset(){
kColor(Black,White);
}
