///
/// \brief Render
///
/// \param pd3dDevice [I ] D3D Device
///
/// \return ALT_S_SUCCESS success
/// \return ALT_E_ERROR error
///
alt_t Test5_1_Panel::Render(IDirect3DDevice9 * pDevice)
{
altLight oLight;
D3DXVECTOR3 vecDirection(0,0,1);
D3DCOLORVALUE Diffuse;
D3DCOLORVALUE Specular;
Diffuse.r = 1.0f;
Diffuse.g = 1.0f;
Diffuse.b = 1.0f;
Specular.r = 1.0f;
Specular.g = 1.0f;
Specular.b = 1.0f;
oLight.SetLight (vecDirection, D3DLIGHT_DIRECTIONAL, Diffuse, Specular, 200.0f);
aiDX.GetDevice()->Clear (0, NULL, D3DCLEAR_TARGET | D3DCLEAR_ZBUFFER, D3DCOLOR_XRGB(100,100,100), 1.0f, 0);
return (altComponent::Render (pDevice));
}
//-----------------------------------------------------------------------------
//-----------------------------------------------------------------------------
float CEnvMeteorSpawnerShared::MeteorThink( float flTime )
{
// Check for spawn.
if ( flTime < m_flNextSpawnTime )
return m_flNextSpawnTime;
while ( m_flNextSpawnTime < flTime )
{
// Get a random number of meteors to spawn and spawn them.
int nMeteorCount = GetRandomInt( m_nMinSpawnCount, m_nMaxSpawnCount );
for ( int iMeteor = 0; iMeteor < nMeteorCount; iMeteor++ )
{
// Increment the number of meteors created (starting with 1).
m_nMeteorCount++;
// Get a random meteor position.
Vector meteorOrigin( GetRandomFloat( m_vecMinBounds.GetX(), m_vecMaxBounds.GetX() ) /* x */,
GetRandomFloat( m_vecMinBounds.GetY(), m_vecMaxBounds.GetY() ) /* y */,
GetRandomFloat( m_vecMinBounds.GetZ(), m_vecMaxBounds.GetZ() ) /* z */ );
// Calculate the direction of the meteor based on "targets."
Vector vecDirection( 0.0f, 0.0f, -1.0f );
if ( m_aTargets.Count() > 0 )
{
float flFreq = 1.0f / m_aTargets.Count();
float flFreqAccum = flFreq;
int iTarget;
for( iTarget = 0; iTarget < m_aTargets.Count(); ++iTarget )
{
float flRandom = GetRandomFloat( 0.0f, 1.0f );
if ( flRandom < flFreqAccum )
break;
flFreqAccum += flFreq;
}
// Should ever be here!
if ( iTarget == m_aTargets.Count() )
{
iTarget--;
}
// Just set it to the first target for now!!!
// NOTE: Will randomly generate from list of targets when more than 1 in
// the future.
// Move the meteor into the "world."
Vector vecPositionInWorld;
Vector vecSkyboxOrigin;
g_pMapData->Get3DSkyboxOrigin( vecSkyboxOrigin );
vecPositionInWorld = ( meteorOrigin - vecSkyboxOrigin );
vecPositionInWorld *= g_pMapData->Get3DSkyboxScale();
Vector vecTargetPos = m_aTargets[iTarget].m_vecPosition;
vecTargetPos.x += GetRandomFloat( -m_aTargets[iTarget].m_flRadius, m_aTargets[iTarget].m_flRadius );
vecTargetPos.y += GetRandomFloat( -m_aTargets[iTarget].m_flRadius, m_aTargets[iTarget].m_flRadius );
vecTargetPos.z += GetRandomFloat( -m_aTargets[iTarget].m_flRadius, m_aTargets[iTarget].m_flRadius );
vecDirection = vecTargetPos - vecPositionInWorld;
VectorNormalize( vecDirection );
}
// Pass in the randomized position, randomized speed, and start time.
m_pFactory->CreateMeteor( m_nMeteorCount, m_iMeteorType, meteorOrigin,
vecDirection /* direction */,
GetRandomFloat( m_flMinSpeed, m_flMaxSpeed ) /* speed */,
m_flNextSpawnTime, m_flMeteorDamageRadius,
m_vecTriggerMins, m_vecTriggerMaxs );
}
// Set next spawn time.
m_flNextSpawnTime += GetRandomFloat( m_flMinSpawnTime, m_flMaxSpawnTime );
}
// Return the next spawn time.
return ( m_flNextSpawnTime - gpGlobals->curtime );
}
