void InitObjectViewer(C_Window *win,long client)
{
float l,t,r,b;
TheTimeManager.SetTime( ( unsigned long )( 12 * 60 * 60 * 1000 ) );
viewRot = IMatrix;
viewPos.x =0.0f;
viewPos.y =0.0f;
viewPos.z =0.0f;
UIrend3d=new Render3D;
UIrend3d->Setup(gMainHandler->GetFront());
UIrend3d->SetFOV( 30.0f * PI/180.f );
CalculateViewport(win,client,&l,&t,&r,&b);
UIrend3d->SetViewport( l, t, r, b);
UIrend3d->SetCamera( &viewPos, &viewRot );
if(gBSPList == NULL)
{
gBSPList=new C_BSPList;
gBSPList->Setup();
}
else
gBSPList->RemoveAll();
}
void CGammaCompositorPlane::AdjustBufferInfoForScaling(const stm_display_buffer_t * const pFrame,
GAMMA_QUEUE_BUFFER_INFO &qbinfo) const
{
if(!qbinfo.isSourceInterlaced && qbinfo.isDisplayInterlaced)
{
if(m_bHasProgressive2InterlacedHW)
{
DEBUGF2(3,("%s: using P2I\n", __PRETTY_FUNCTION__));
qbinfo.isUsingProgressive2InterlacedHW = true;
}
else if (m_ulMaxLineStep > 1)
{
DEBUGF2(3,("%s: using line skip (max %lu)\n\n",
__PRETTY_FUNCTION__, m_ulMaxLineStep));
}
else
{
/*
* without a P2I block we have to convert to interlaced using a
* 2x downscale. But, if the hardware cannot do that or the overall
* scale then goes outside the hardware capabilities, we treat the
* source as interlaced instead.
*/
int maxverticaldownscale = m_ulMaxVSrcInc/2;
bool convert_to_interlaced = (qbinfo.dst.height
< (qbinfo.src.height
* m_fixedpointONE
/ maxverticaldownscale));
if(convert_to_interlaced)
{
DEBUGF2(3,("%s: converting source to interlaced for "
"downscaling\n", __PRETTY_FUNCTION__));
qbinfo.isSourceInterlaced = true;
qbinfo.firstFieldType = GNODE_TOP_FIELD;
}
}
}
if(qbinfo.isDisplayInterlaced)
{
/*
* Convert the height from frame to field lines. Note that we
* do not support an "odd" number of lines on an interlaced display,
* there must always be a matched top and bottom field line. The
* start line must also be located on a top field to prevent fields
* getting accidentally swapped.
*/
qbinfo.dst.height /= 2;
qbinfo.dst.y &= 0xfffffffe;
}
/*
* Save the original source height in frame coordinates.
*/
qbinfo.srcFrameHeight = qbinfo.src.height;
if(qbinfo.isSourceInterlaced)
{
/*
* For interlaced content we change the source height to the height
* of each field.
*/
qbinfo.src.height /= 2;
/*
* Also change the vertical start position from frame to field
* coordinates, unless we are using the hardware de-interlacer in
* which case we keep it in frame coordinates.
*
* Remember that this value is in the fixed point format.
*/
if(!qbinfo.isHWDeinterlacing)
qbinfo.src.y /= 2;
}
CalculateHorizontalScaling(qbinfo);
CalculateVerticalScaling(qbinfo);
/*
* Save the adjusted destination height in frame coordinates
*/
qbinfo.dstFrameHeight = (qbinfo.isDisplayInterlaced
? qbinfo.dst.height * 2
: qbinfo.dst.height);
/*
* Now adjust the source coordinate system to take into account line skipping
*/
qbinfo.src.y /= qbinfo.line_step;
/*
* Define the Y coordinate limit in the source image, used to ensure we
* do not go outside of the required source image crop when the Y position
* is adjusted for re-scale purposes.
*/
qbinfo.maxYCoordinate = ((qbinfo.src.y / m_fixedpointONE)
+ qbinfo.verticalFilterInputSamples - 1);
/*
* Now we have the global scale and adjusted destination, deal with
* any non-linear scaling to convert between pixel aspect ratios.
*
* If this succeeds, then the hsrcinc and chroma_hsrcinc fields will have
* been changed to reflect the zoom in the "centre" region of the image
* only.
*/
if(pFrame->dst.ulFlags & STM_PLANE_DST_CONVERT_TO_16_9_DISPLAY)
CalculateNonLinearZoom(pFrame,qbinfo);
CalculateViewport(qbinfo);
}
