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📄 lcd13xx.c

📁 在ucos上实现了图形用户接口GUI;值得一看
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  #define WRITE_REG(Off, Data) LCD_WRITE_REG(Off, Data)
#else
  #define READ_REG(Off, Data)  { Data = Swap(LCD_READ_REG(Off)); }
  #define WRITE_REG(Off, Data) { LCD_WRITE_REG(Off, Swap(Data)); }
  #define REQUIRE_SWAP
#endif

// No use of LCD_WRITE_MEM, LCD_READ_MEM, LCD_WRITE_REG, LCD_READ_REG from this point

#if defined (LCD_LUT_COM)
  #if (LCD_MIRROR_Y)
    #error LCD_MIRROR_Y not supported with COMTrans !
  #endif
  #if (LCD_MIRROR_X)
    #error LCD_MIRROR_X not supported with COMTrans !
  #endif
#endif

#if (!defined(LCD_LUT_SEG))
  #if   (!LCD_MIRROR_X && !LCD_MIRROR_Y && !LCD_SWAP_XY)
    #define PHYS2LOG(x, y) x, y
  #elif (!LCD_MIRROR_X && !LCD_MIRROR_Y &&  LCD_SWAP_XY)
    #define PHYS2LOG(x, y) y, x
  #elif (!LCD_MIRROR_X &&  LCD_MIRROR_Y && !LCD_SWAP_XY)
    #define PHYS2LOG(x, y) x, LCD_YSIZE - 1 - (y)
  #elif (!LCD_MIRROR_X &&  LCD_MIRROR_Y &&  LCD_SWAP_XY)
    #define PHYS2LOG(x, y) LCD_YSIZE - 1 - (y), x
  #elif ( LCD_MIRROR_X && !LCD_MIRROR_Y && !LCD_SWAP_XY)
    #define PHYS2LOG(x, y) LCD_XSIZE - 1 - (x), y
  #elif ( LCD_MIRROR_X && !LCD_MIRROR_Y &&  LCD_SWAP_XY)
    #define PHYS2LOG(x, y) LCD_YSIZE - 1 - (y), x
  #elif ( LCD_MIRROR_X &&  LCD_MIRROR_Y && !LCD_SWAP_XY)
    #define PHYS2LOG(x, y) LCD_XSIZE - 1 - (x), LCD_YSIZE - 1 - (y)
  #elif ( LCD_MIRROR_X &&  LCD_MIRROR_Y &&  LCD_SWAP_XY)
    #error This combination of mirroring/swapping not yet supported
  #endif
#else
  #define PHYS2LOG(x, y) LCD__aCol2Seg0[x], y
#endif
*/

//#define SETPIXEL(x, y, c)  _SetPixel    (PHYS2LOG(x, y), c)
#define SETPIXEL(x, y, c)  _SetPixel    (x, y, c)

//#define GETPIXEL(x, y)     GetPixelIndex(PHYS2LOG(x, y))
//#define XORPIXEL(x, y)     XorPixel     (PHYS2LOG(x, y))
#define XORPIXEL(x, y)     XorPixel     (x, y)





/*
	*********************************************************
	*                                                       *
	*       Register access routines                        *
	*                                                       *
	*********************************************************
*/
/*
#if defined(LCD_READ_REG)
#if (LCD_BUSWIDTH == 8)
  #define READ_REG_BYTE(Off) LCD_READ_REG(Off)
#else
  #define READ_REG_BYTE(Off) ReadRegByte(Off)
U8 ReadRegByte(int Off) {
  U16 Data = LCD_READ_REG((Off>>1));
  #if LCD_SWAP_BYTE_ORDER
    return (Off&1) ? Data>>8 : Data&255;
  #else
    return (Off&1) ? Data&255 : Data>>8;
  #endif
}
#endif
#endif
*/


/*
*********************************************************
*                                                       *
*       Static routines
*                                                       *
*********************************************************
*/
/*
#ifdef REQUIRE_SWAP
U16 Swap(U16 Data) {
  return (Data<<8) | (Data>>8);
}
#endif
*/






/*
	*********************************************************
	*                                                       *
	*       Next pixel routines                             *
	*                                                       *
	*********************************************************
*/
/*
#if      (LCD_OPTIMIZE)             \
      && (LCD_BUSWIDTH == 8)        \
      && (!LCD_MIRROR_X)             \
      && (!LCD_MIRROR_Y)            \
      && (LCD_SWAP_XY)              \
      && (!defined (LCD_LUT_COM))    \
      && (!defined (LCD_LUT_SEG))    \
      && (LCD_BITSPERPIXEL == 4)

static int CurPosY;    // Physical x position !!!
static tOff CurOff;

static void SetPosXY(int x, int y) {
  y = LCD_YSIZE-1-y;
  CurPosY = y;
  CurOff = XY2OFF(y,x);
}

static void SetNextPixel(LCD_PIXELINDEX c) {
  U8 Data;
  READ_MEM(CurOff, Data);
  if (CurPosY&1) {
    Data = (Data & ~(15<<0)) | (c<<0);
    CurOff++;
  } else {
    Data = (Data & ~(15<<4)) | (c<<4);
  }
  WRITE_MEM(CurOff, Data);
  CurPosY++;
}

#elif      (LCD_OPTIMIZE)           \
      && (LCD_BUSWIDTH == 8)        \
      && (!LCD_MIRROR_X)            \
      && (!LCD_MIRROR_Y)            \
      && (!LCD_SWAP_XY)              \
      && (!defined (LCD_LUT_COM))    \
      && (!defined (LCD_LUT_SEG))    \
      && (LCD_BITSPERPIXEL == 4)

static int CurPosX;    // Physical x position !!!
static tOff CurOff;
static U8  CurData;

static void SetPosXY(int x, int y) {
  CurPosX = x;
  CurOff = XY2OFF(x,y);
  CurData = LCD_READ_MEM(CurOff);
}

#define SETNEXTPIXEL(c) {                           \
  if (CurPosX&1) {                                  \
    CurData = (CurData & ~(15<<0)) | (c<<0);        \
    WRITE_MEM(CurOff, CurData);                     \
    CurOff++;                                       \
    READ_MEM(CurOff, CurData);                      \
  } else {                                          \
    CurData = (CurData & ~(15<<4)) | (c<<4);        \
  }                                                 \
  CurPosX++;                                        \
}

void SetNextPixel(int c) {
  SETNEXTPIXEL(c);
}

#define END_SETNEXTPIXEL() if (CurPosX&1) WRITE_MEM(CurOff, CurData);

#else
  #define END_SETNEXTPIXEL()
#endif
*/
/*
	*********************************************************
	*                                                       *
	*       BitBlt access for SED1356/SED13806              *
	*                                                       *
	*********************************************************
*/
/*
#if LCD_USE_BITBLT                  \
    && (LCD_BUSWIDTH==16)           \
    && (!defined (LCD_LUT_COM))     \
    && (!defined (LCD_LUT_SEG))     \
    && ((LCD_CONTROLLER == 1356)||(LCD_CONTROLLER == 13806))

#if LCD_BITSPERPIXEL == 8
  #define BITBLT_SET_DESTINATION(x,y)     WRITE_REG(0x108 / 2, (((tOff)y * (tOff)BYTESPERLINE) + x)); \
					  WRITE_REG(0x10a / 2, (U32)(((tOff)y * (tOff)BYTESPERLINE) + x) >> 16)
  #define BITBLT_SET_ACTIVE()             WRITE_REG(0x100 / 2, 0x0000); WRITE_REG(0x100 / 2, 0x0080)
#elif LCD_BITSPERPIXEL == 16
  #define BITBLT_SET_DESTINATION(x,y)     WRITE_REG(0x108 / 2, (((tOff)y * (tOff)BYTESPERLINE) + (x << 1))); \
					  WRITE_REG(0x10a / 2, (((tOff)y * (tOff)BYTESPERLINE) + (x << 1)) >> 16)
  #define BITBLT_SET_ACTIVE()             WRITE_REG(0x100 / 2, 0x0100); WRITE_REG(0x100 / 2, 0x0180)
#endif

static void WaitForBltEnd(void) {
  volatile U16 tmp;
  do {
    READ_REG(0x100 / 2, tmp);
  } while (tmp & 0x80);
  READ_REG(0x100000 / 2, tmp);                                            // dummy read
}

static void LCD_FillRectBB(int x0, int y0, int x1, int y1) {
  LCD_ENABLE_REG_ACCESS(); {
    for (;x0 <= x1; x0 += 1024) {
      int _y0 = y0;
      int _x1 = x1;
      if (_x1 > (x0 + 1023)) {
	_x1 = x0 + 1023;
      }
      for (;_y0 <= y1; _y0 += 1024) {
	int _y1 = y1;
	if (_y1 > (_y0 + 1023)) {
	  _y1 = _y0 + 1023;
	}
	BITBLT_SET_DESTINATION(x0, _y0);                                  // set destination start address
	WRITE_REG(0x110 / 2, (_x1 - x0));                                 // set width
	WRITE_REG(0x112 / 2, (_y1 - _y0));                                // set height
	WRITE_REG(0x118 / 2, (COLOR));                                    // set foreground color
	if (GUI_Context.DrawMode & LCD_DRAWMODE_XOR) {
	  WRITE_REG(0x102 / 2, 0x0605);                                   // pattern fill, ~D
	} else {
	  WRITE_REG(0x102 / 2, 0x0c00);                                   // solid fill, no ROP
	}
	BITBLT_SET_ACTIVE();                                              // engage bitblt engine
	WaitForBltEnd();                                                  // wait for pending blit to end
      }
    }
  } LCD_ENABLE_MEM_ACCESS();
}

static void LCD_DrawBitmap1BPPBB(int x, int y, U8 const*p, int Diff, int xsize, int ysize, int BytesPerLine, const LCD_PIXELINDEX*pTrans) {
  volatile U16 tmp;
  x+= Diff;
  LCD_ENABLE_REG_ACCESS(); {
    U16 StartBit = 7 - (Diff & 7);
    U16 Data = StartBit | ((GUI_Context.DrawMode & LCD_DRAWMODE_TRANS) ? 0x900 : 0x800);
    int NumWords = ((Diff & 7) + xsize + 15) >> 4;
    WRITE_REG(0x102 / 2, Data);                                           // set start bit and operation
    WRITE_REG(0x104 / 2, 0);                                              // set source start address
    BITBLT_SET_DESTINATION(x, y);                                         // set destination start address
    WRITE_REG(0x110 / 2, (xsize - 1));                                    // set width
    WRITE_REG(0x112 / 2, (ysize - 1));                                    // set height
    WRITE_REG(0x114 / 2, (*(pTrans + 0)));                                // set background color
    WRITE_REG(0x118 / 2, (*(pTrans + 1)));                                // set foreground color
    BITBLT_SET_ACTIVE();                                                  // engage bitblt engine
    do {
      READ_REG(0x100 / 2, tmp);
    } while ((tmp & 0x80) == 0);
    for (;ysize; ysize--, p += BytesPerLine) {
      U8 const *pLine= p;
      int i;
      for (i = NumWords; i; i--, pLine += 2) {
	do {
	  READ_REG(0x100 / 2, tmp);
	} while ((tmp & 0x40) == 0x40);
	WRITE_REG(0x100000 / 2, ((*pLine) | ((*(pLine + 1)) << 8)));      // write data into FIFO
      }
    }
    WaitForBltEnd();                                                      // wait for pending blit to end
  } LCD_ENABLE_MEM_ACCESS();
}

#endif
*/





/*
	*********************************************************
	*                                                       *
	*       Internal set pixel routines                     *
	*                                                       *
	*********************************************************
*/


static void _SetPixel(int x, int y, LCD_PIXELINDEX c) {
  putpixel (x,y,c);


/*
  tOff Off = XY2OFF(x,y);
#if LCD_BUSWIDTH == 16
  #if LCD_BITSPERPIXEL == 1
    U8 BitNo = (~x)&15;
    U16 Data;
    READ_MEM(Off, Data);
    if (c)
      Data |= c<<BitNo;
    else
      Data &= ~(1<<BitNo);
    WRITE_MEM(Off, Data);
  #elif LCD_BITSPERPIXEL == 2
    U16 Data;
    U8 Shift = 14 - ((x & 7) << 1);
    READ_MEM(Off, Data);
    Data = (Data & ~(3 << Shift)) | (c << Shift);
    WRITE_MEM(Off, Data);
  #elif LCD_BITSPERPIXEL == 4
    U8 Shift = ((~x)&3)<<2;         // 12,8,4 or 0
    U16 Data;
    READ_MEM(Off, Data);
    Data &= ~(15<<Shift);
		Data |= c<<Shift;
    WRITE_MEM(Off, Data);
  #elif LCD_BITSPERPIXEL == 8
    U16 Data;
    READ_MEM(Off, Data);
    switch (x&1) {
    case 1:
      Data = (Data & ~(0xff   )) | (c   );
      break;
    case 0:
      Data = (Data & ~(0xff<<8)) | (c<<8);
      break;
    }
    WRITE_MEM(Off, Data);
  #elif (LCD_BITSPERPIXEL == 15) | (LCD_BITSPERPIXEL == 16)
    WRITE_MEM(Off, c);
  #else
    #error unsupported LCD_BITSPERPIXEL
  #endif
#elif LCD_BUSWIDTH == 8
  #if LCD_BITSPERPIXEL == 1
    U8 Data;
    U8 BitNo;
    READ_MEM(Off, Data);
    BitNo = 7-(x&7);
    if (c)
      Data |= c<<BitNo;
    else
      Data &= ~(1<<BitNo);
    WRITE_MEM(Off, Data);
  #elif LCD_BITSPERPIXEL == 2
    U8 Data;
    READ_MEM(Off, Data);
    switch (x&3) {
    case 3:
      Data = (Data & ~(3<<0)) | (c<<0);
      break;
    case 2:
      Data = (Data & ~(3<<2)) | (c<<2);
      break;
    case 1:
      Data = (Data & ~(3<<4)) | (c<<4);
      break;
    case 0:
      Data = (Data & ~(3<<6)) | (c<<6);
      break;
    }
    WRITE_MEM(Off, Data);
  #elif LCD_BITSPERPIXEL == 4
    U8 Data;
    READ_MEM(Off, Data);
    switch (x&1) {
    case 1:
      Data = (Data & ~(15<<0)) | (c<<0);
      break;
    case 0:
      Data = (Data & ~(15<<4)) | (c<<4);
      break;
    }
    WRITE_MEM(Off, Data);
  #elif LCD_BITSPERPIXEL == 8
    WRITE_MEM(Off, c);
  #else
    #error TBD
  #endif
#else
  #error unsupported LCD_BUSWIDTH
#endif
*/
}


unsigned int GetPixelIndex(int x, int y) {
   LCD_PIXELINDEX col;
   col=getpixel (x,y);
   return col;

/*
  LCD_PIXELINDEX col;
  tOff Off = XY2OFF(x,y);
#if LCD_BUSWIDTH == 16
  U16 Data;
  READ_MEM(Off,Data);
  #if LCD_BITSPERPIXEL == 1
    col = (Data >> (15-(x&15))) &1;
  #elif LCD_BITSPERPIXEL == 2
    col = (Data >> (14-((x&7)<<1))) &3;
  #elif LCD_BITSPERPIXEL == 4
    col = (Data >> (12-((x&3)<<2))) &15;
  #elif LCD_BITSPERPIXEL == 8
    col = ((x&1) ==0) ? Data>>8 : Data;
  #elif LCD_BITSPERPIXEL == 15
    col = Data;
  #elif LCD_BITSPERPIXEL == 16
    col = Data;
  #endif
#else
  U8 Data;
  READ_MEM(Off,Data);
  #if LCD_BITSPERPIXEL == 1
    col = (Data >> (7-(x&7))) &1;
  #elif LCD_BITSPERPIXEL == 2
    col = (Data >> (6-((x&3)<<1))) &3;
  #elif LCD_BITSPERPIXEL == 4
    col = (x&1) ? Data&15 : Data>>4;
  #elif LCD_BITSPERPIXEL == 8
    col = Data;
  #endif
#endif
  return col;
*/
}

static void XorPixel   (int x, int y) {
  LCD_PIXELINDEX Index = GetPixelIndex(x,y);
  _SetPixel(x,y,LCD_NUM_COLORS-1-Index);
}



/*
	*********************************************************
	*                                                       *
	*       LCD_L0_XorPixel                                 *
	*                                                       *
	*********************************************************

Purpose:  This routine is called by emWin. It writes 1 pixel into the
	  display.

*/
/*
void LCD_L0_XorPixel(int x, int y) {
  XORPIXEL(x, y);
}
*/





/*
	*********************************************************
	*                                                       *
	*       LCD_L0_SetPixelIndex                            *
	*                                                       *
	*********************************************************

Purpose:  This routine is called by emWin. It writes 1 pixel into the
	  display.

*/

void LCD_L0_SetPixelIndex(int x, int y, int ColorIndex) {
  SETPIXEL(x, y, ColorIndex);
}






/*

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