void CGlobal::LoadBitmaps()
{
DeleteBitmaps();
CString strFileName(_T(""));
CString sModulePath = GetModulePath() + _T("\\");
for(UINT i=0; i<IDX_BMP_MAX; i++)
{
strFileName = GetBitmapFileName(i);
if( strFileName.IsEmpty() )
continue;
strFileName = sModulePath + strFileName;
m_infoBitmap[i].hBitmap = (HBITMAP)::LoadImage(::AfxGetInstanceHandle(),
(LPCTSTR)strFileName,
IMAGE_BITMAP,
0,
0,
LR_LOADFROMFILE|LR_CREATEDIBSECTION|LR_DEFAULTSIZE);
::GetObject(m_infoBitmap[i].hBitmap, sizeof(BITMAP), &m_infoBitmap[i].bitmap);
}
}
void MythD3D9Painter::Begin(QPaintDevice *parent)
{
if (!m_render)
{
if (!InitD3D9(parent))
{
LOG(VB_GENERAL, LOG_ERR, "Failed to create D3D9 render.");
return;
}
}
DeleteBitmaps();
if (!m_target)
{
bool dummy;
m_render->Test(dummy); // TODO recreate if necessary
}
else if (!m_target->SetAsRenderTarget())
{
LOG(VB_GENERAL, LOG_ERR, "Failed to enable offscreen buffer.");
return;
}
if (m_target)
m_render->ClearBuffer();
if (m_swap_control)
m_render->Begin();
MythPainter::Begin(parent);
}
KeyboardWidget::~KeyboardWidget()
{
DeleteBitmaps();
delete[] rcWhite;
delete[] rcBlack;
ClearNotes();
delete recTail;
delete recHead;
}
void MythD3D9Painter::Teardown(void)
{
MythPainter::Teardown();
ClearCache();
DeleteBitmaps();
m_ImageBitmapMap.clear();
m_ImageExpireList.clear();
m_bitmapDeleteList.clear();
if (m_render)
{
m_render->DecrRef();
m_render = NULL;
}
}
// ---------------------------------------------------------------------------
// CAknBatteryStrength::HandleResourceChange
// ---------------------------------------------------------------------------
//
void CAknBatteryStrength::HandleResourceChange( TInt aType )
{
if ( aType==KEikDynamicLayoutVariantSwitch ||
aType == KEikColorResourceChange ||
aType == KAknsMessageSkinChange)
{
DeleteBitmaps(); // SizeChanged reloads needed bitmaps
SizeChanged();
if ( aType == KEikDynamicLayoutVariantSwitch )
{
SetBatteryLevel( iBatteryLevel ); // refreshes battery level offsets
}
DrawDeferred();
}
}
D3D9Image* MythD3D9Painter::GetImageFromCache(MythImage *im)
{
if (m_ImageBitmapMap.contains(im))
{
if (!im->IsChanged())
{
m_ImageExpireList.remove(im);
m_ImageExpireList.push_back(im);
return m_ImageBitmapMap[im];
}
else
{
DeleteFormatImagePriv(im);
}
}
im->SetChanged(false);
D3D9Image *newimage = NULL;
if (m_render)
newimage = new D3D9Image(m_render,im->size());
if (newimage && newimage->IsValid())
{
CheckFormatImage(im);
m_HardwareCacheSize += newimage->GetDataSize();
newimage->UpdateImage(im);
m_ImageBitmapMap[im] = newimage;
m_ImageExpireList.push_back(im);
while (m_HardwareCacheSize > m_MaxHardwareCacheSize)
{
MythImage *expiredIm = m_ImageExpireList.front();
m_ImageExpireList.pop_front();
DeleteFormatImagePriv(expiredIm);
DeleteBitmaps();
}
}
else
{
LOG(VB_GENERAL, LOG_ERR, LOC + "Failed to create D3D9 UI bitmap.");
delete newimage;
newimage = NULL;
}
return newimage;
}
uint MythVDPAUPainter::GetTextureFromCache(MythImage *im)
{
if (m_ImageBitmapMap.contains(im))
{
if (!im->IsChanged())
{
m_ImageExpireList.remove(im);
m_ImageExpireList.push_back(im);
return m_ImageBitmapMap[im];
}
else
{
DeleteFormatImagePriv(im);
}
}
im->SetChanged(false);
uint newbitmap = 0;
if (m_render)
newbitmap = m_render->CreateBitmapSurface(im->size());
if (newbitmap)
{
CheckFormatImage(im);
m_render->UploadMythImage(newbitmap, im);
m_ImageBitmapMap[im] = newbitmap;
m_ImageExpireList.push_back(im);
m_HardwareCacheSize += m_render->GetBitmapSize(newbitmap);
while (m_HardwareCacheSize > m_MaxHardwareCacheSize)
{
MythImage *expiredIm = m_ImageExpireList.front();
m_ImageExpireList.pop_front();
DeleteFormatImagePriv(expiredIm);
DeleteBitmaps();
}
}
else
{
LOG(VB_GENERAL, LOG_ERR, LOC + "Failed to create VDPAU UI bitmap.");
}
return newbitmap;
}
void MythVDPAUPainter::Begin(QPaintDevice *parent)
{
if (!m_render)
{
if (!InitVDPAU(parent))
{
LOG(VB_GENERAL, LOG_ERR, "Failed to create VDPAU render.");
return;
}
}
if (m_render->WasPreempted())
ClearCache();
DeleteBitmaps();
if (m_target)
m_render->DrawBitmap(0, m_target, NULL, NULL);
else if (m_swap_control)
m_render->WaitForFlip();
MythPainter::Begin(parent);
}
/* Adds an image or images to an image list, generating a mask from the
* given bitmap.
*/
int WINAPI EXPORT Amctl_ImageList_AddMasked( HIMAGELIST himl, HBITMAP hbmImage, COLORREF crMask )
{
HBITMAP hbmpOldDest;
HBITMAP hbmpOldSrc;
HBITMAP hbmpOldMask;
BITMAP bmp;
HDC hdcSrc;
HDC hdcDest;
HDC hdcMask;
HDC hdc;
int cImageOffset;
int cImages;
int dx;
/* If no mask, can't do this.
*/
if( !( himl->flags & ILC_MASK ) )
return( -1 );
/* Get the size of the bitmap. The number of items to be added will be
* the width of the bitmap divided by the size of each one.
*/
GetObject( hbmImage, sizeof( BITMAP ), &bmp );
cImages = ( bmp.bmWidth + ( himl->cx - 1 ) ) / himl->cx;
/* If we need more room, delete the existing bitmaps and create new ones
* up to the specified size.
*/
if( himl->cImages + cImages > himl->cSlots )
if( himl->cGrow )
{
int cNewSize;
DeleteBitmaps( himl );
cNewSize = ( ( ( himl->cImages + cImages ) / himl->cGrow ) + 1 ) * himl->cGrow;
CreateEmptyBitmaps( himl, himl->cImages + cImages, cNewSize );
}
else
return( -1 );
/* Offset of these new bitmaps.
*/
cImageOffset = himl->cImages;
dx = cImageOffset * himl->cx;
/* Initialise working stuff.
*/
hdc = GetDC( NULL );
hdcSrc = CreateCompatibleDC( hdc );
hdcDest = CreateCompatibleDC( hdc );
hdcMask = CreateCompatibleDC( hdc );
hbmpOldSrc = SelectBitmap( hdcSrc, hbmImage );
/* Copy the image into the image bitmap.
*/
hbmpOldDest = SelectBitmap( hdcDest, himl->hbmp );
BitBlt( hdcDest, dx, 0, himl->cx * cImages, himl->cy, hdcSrc, 0, 0, SRCCOPY );
/* Create the mask.
*/
hbmpOldMask = SelectBitmap( hdcMask, himl->hbmpMask );
SetBkColor( hdcSrc, crMask );
BitBlt( hdcMask, dx, 0, himl->cx * cImages, himl->cy, hdcSrc, 0, 0, SRCCOPY );
/* Set the total number of images in the list.
*/
himl->cImages += cImages;
himl->crTransparent = crMask;
/* Clean up at the end.
*/
SelectBitmap( hdcMask, hbmpOldMask );
SelectBitmap( hdcDest, hbmpOldDest );
SelectBitmap( hdcSrc, hbmpOldSrc );
DeleteDC( hdcMask );
DeleteDC( hdcSrc );
DeleteDC( hdcDest );
ReleaseDC( NULL, hdc );
return( cImageOffset );
}
/* Destroys an image list.
*/
BOOL WINAPI EXPORT Amctl_ImageList_Destroy( HIMAGELIST himl )
{
DeleteBitmaps( himl );
FreeMemory( &himl );
return( TRUE );
}
CGlobal::~CGlobal()
{
DeleteBitmaps();
DeleteFonts();
DeleteIcons();
}
void MythD3D9Painter::FreeResources(void)
{
ClearCache();
DeleteBitmaps();
}
void KeyboardWidget::Setup()
{
delete[] rcWhite;
delete[] rcBlack;
DeleteBitmaps();
colorMap.Find("kwup", kclr[0]);
colorMap.Find("kwdn", kclr[1]);
colorMap.Find("kbup", kclr[2]);
colorMap.Find("kbdn", kclr[3]);
rcWhite = new wdgRect[whtKeys];
rcBlack = new wdgRect[blkKeys];
// First calculate an appropriate width/height ratio for keys
// based on the overall size of the display area.
// Start by calculating the width of a key as the
// total width divided by the number of keys and the
// height as the total height of the window. (We assume
// the window is rectangular, wider than high.) A typical
// piano keyboard has a ratio of 6/1 for the length
// to width of a white key. Thus - if the resulting height
// is more than 6 times the width, reduce the height accordingly.
// If the resulting height is less than 5 times the width, reduce the
// width accordingly. The black keys have a width ratio of app. 7/15 the
// size of a white key, but the gaps in between the keys make them appear
// wider and we use 7/10 as the ratio to make it look right and give the
// user more area to hit with the mouse. Finally, the keyboard is centered
// left-right at the top of the window.
int widWhite = area.w / whtKeys;
int hiWhite = area.h;
if (hiWhite > (6*widWhite))
hiWhite = 6*widWhite;
else if (hiWhite < (5*widWhite))
widWhite = hiWhite / 5;
int hiBlack = (hiWhite * 2) / 3;
int widBlack = (widWhite * 7) / 10;
int space = (area.w - (widWhite * whtKeys)) / 2;
// Pre-calculate the rectangles of the keys. White keys are
// equally spaced. Black keys repeat in the 2, 3 pattern with
// a gap inbetween the groups equal to the width of a white key.
int xWhite = space;
int xBlack = space + widWhite - (widBlack / 2);
int i, on;
int ndxw = 0;
int ndxb = 0;
for (on = 0; on < octs; on++)
{
for (i = 0; i < 7; i++)
{
rcWhite[ndxw].x = (int) xWhite + area.x;
rcWhite[ndxw].y = area.y;
rcWhite[ndxw].w = (int) widWhite;
rcWhite[ndxw].h = hiWhite;
xWhite += widWhite;
ndxw++;
}
for (i = 0; i < 2; i++)
{
rcBlack[ndxb].x = (int) xBlack + area.x;
rcBlack[ndxb].y = area.y;
rcBlack[ndxb].w = (int) widBlack;
rcBlack[ndxb].h = hiBlack;
xBlack += widWhite;
ndxb++;
}
xBlack += widWhite;
for ( i = 0; i < 3; i++)
{
rcBlack[ndxb].x = (int) xBlack + area.x;
rcBlack[ndxb].y = area.y;
rcBlack[ndxb].w = (int) widBlack;
rcBlack[ndxb].h = hiBlack;
xBlack += widWhite;
ndxb++;
}
xBlack += widWhite;
}
// pitch class conversion for white and black keys
knWhite[0] = 0;
knWhite[1] = 2;
knWhite[2] = 4;
knWhite[3] = 5;
knWhite[4] = 7;
knWhite[5] = 9;
knWhite[6] = 11;
knBlack[0] = 1;
knBlack[1] = 3;
knBlack[2] = 6;
knBlack[3] = 8;
knBlack[4] = 10;
lastKey = -1;
rcLastKey = 0;
CreateBitmaps();
}
virtual int OnExit() { DeleteBitmaps(); return 0; }
status_t
BIcon::SetTo(const BBitmap* bitmap, uint32 flags)
{
if (!bitmap->IsValid())
return B_BAD_VALUE;
DeleteBitmaps();
// check the color space
bool hasAlpha = false;
bool canUseForMakeBitmaps = false;
switch (bitmap->ColorSpace()) {
case B_RGBA32:
case B_RGBA32_BIG:
hasAlpha = true;
// fall through
case B_RGB32:
case B_RGB32_BIG:
canUseForMakeBitmaps = true;
break;
case B_UVLA32:
case B_LABA32:
case B_HSIA32:
case B_HSVA32:
case B_HLSA32:
case B_CMYA32:
case B_RGBA15:
case B_RGBA15_BIG:
case B_CMAP8:
hasAlpha = true;
break;
default:
break;
}
BBitmap* trimmedBitmap = NULL;
// trim the bitmap, if requested and the bitmap actually has alpha
status_t error;
if ((flags & (B_TRIM_ICON_BITMAP | B_TRIM_ICON_BITMAP_KEEP_ASPECT)) != 0
&& hasAlpha) {
if (bitmap->ColorSpace() == B_RGBA32) {
error = _TrimBitmap(bitmap,
(flags & B_TRIM_ICON_BITMAP_KEEP_ASPECT) != 0, trimmedBitmap);
} else {
BBitmap* rgb32Bitmap = _ConvertToRGB32(bitmap, true);
if (rgb32Bitmap != NULL) {
error = _TrimBitmap(rgb32Bitmap,
(flags & B_TRIM_ICON_BITMAP_KEEP_ASPECT) != 0,
trimmedBitmap);
delete rgb32Bitmap;
} else
error = B_NO_MEMORY;
}
if (error != B_OK)
return error;
bitmap = trimmedBitmap;
canUseForMakeBitmaps = true;
}
// create the bitmaps
if (canUseForMakeBitmaps) {
error = _MakeBitmaps(bitmap, flags);
} else {
if (BBitmap* rgb32Bitmap = _ConvertToRGB32(bitmap, true)) {
error = _MakeBitmaps(rgb32Bitmap, flags);
delete rgb32Bitmap;
} else
error = B_NO_MEMORY;
}
delete trimmedBitmap;
return error;
}