Ejemplo n.º 1
0
MAP1(MAP2, CONV_DEF)
MAP1(MAP2, CLCV_DEF)
MAP1(MAP2, CCRD_DEF)


/*
** Initialize the converter arrays.
**
** Each definition generates one incredibly long line of text, which
** hopefully will not break a poor compiler with limitations on
** line-length...
*/
CF
_nrrdConv[NRRD_TYPE_MAX+1][NRRD_TYPE_MAX+1] = {
{NULL},
MAP1(CONVTO_LIST, _dummy_)
{NULL}
};

CF
_nrrdClampConv[NRRD_TYPE_MAX+1][NRRD_TYPE_MAX+1] = {
{NULL},
MAP1(CLCVTO_LIST, _dummy_)
{NULL}
};

CN
_nrrdCastClampRound[NRRD_TYPE_MAX+1][NRRD_TYPE_MAX+1] = {
{NULL},
MAP1(CCRDTO_LIST, _dummy_)
{NULL}
Ejemplo n.º 2
0
#define S3C_DMA0_GPS		24
#define S3C_DMA0_PWM		29
#define S3C_DMA0_EXTERNAL	31

/* DMA request sources  */
#define S3C_DMA1_I2S0_RX	9	
#define S3C_DMA1_I2S0_TX	10
#define S3C_DMA1_SPI0_RX	16	
#define S3C_DMA1_SPI0_TX	17	

#define S3C_DMA_M2M		0

static struct s3c_dma_map __initdata s5p6442_dma_mappings[] = {
	[DMACH_PCM0_RX] = {
		.name		= "pcm0-in",
		.channels	= MAP1(S3C_DMA1_PCM0_RX),
		.hw_addr.from	= S3C_DMA1_PCM0_RX,
	},
	[DMACH_PCM0_TX] = {
		.name		= "pcm0-out",
		.channels	= MAP1(S3C_DMA1_PCM0_TX),
		.hw_addr.to	= S3C_DMA1_PCM0_TX,
	},
	[DMACH_PCM1_RX] = {
		.name		= "pcm1-in",
		.channels	= MAP1(S3C_DMA1_PCM1_RX),
		.hw_addr.from	= S3C_DMA1_PCM1_RX,
	},
	[DMACH_PCM1_TX] = {
		.name		= "pcm1-out",
		.channels	= MAP1(S3C_DMA1_PCM1_TX),
Ejemplo n.º 3
0
    [DMACH_I2S_IN] = {
        .name		= "i2s0-in",
        .channels	= MAP0(S3C_DMA0_I2S0_RX),
        .hw_addr.from	= S3C_DMA0_I2S0_RX,
        .sdma_sel	= 1 << S3C_DMA0_I2S0_RX,
    },
    [DMACH_I2S_OUT] = {
        .name		= "i2s0-out",
        .channels	= MAP0(S3C_DMA0_I2S0_TX),
        .hw_addr.to	= S3C_DMA0_I2S0_TX,
        .sdma_sel	= 1 << S3C_DMA0_I2S0_TX,
    },
    [DMACH_I2S1_IN] = {
        .name		= "i2s1-in",
        .channels	= MAP1(S3C_DMA1_I2S1_RX),
        .hw_addr.from	= S3C_DMA1_I2S1_RX,
        .sdma_sel	= 1 << (S3C_DMA1_I2S1_RX+S3C_DMA1),
    },
    [DMACH_I2S1_OUT] = {
        .name		= "i2s1-out",
        .channels	= MAP1(S3C_DMA1_I2S1_TX),
        .hw_addr.to	= S3C_DMA1_I2S1_TX,
        .sdma_sel	= 1 << (S3C_DMA1_I2S1_TX+S3C_DMA1),
    },
    [DMACH_SPI0_IN] = {
        .name		= "spi0-in",
        .channels	= MAP0(S3C_DMA0_SPI0_RX),
        .hw_addr.from	= S3C_DMA0_SPI0_RX,
        .sdma_sel	= 1 << S3C_DMA0_SPI0_RX,
    },
Ejemplo n.º 4
0
#define S3C_PDMA0_HSI_RX	29
#define S3C_PDMA0_Reserved_1	30
#define S3C_PDMA0_Reserved	31


/* DMA request sources of M2M-DMAC */
#define S3C_DMA_SEC_TX		0
#define S3C_DMA_SEC_RX		1
#define S3C_DMA_M2M		2


static struct s3c_dma_map __initdata s5pc100_dma_mappings[] = {

	[DMACH_UART0] = {
		.name       	= "s5p-uart-dma",
		.channels   	= MAP1(S3C_PDMA0_UART0CH0),
		.hw_addr.to	= S3C_PDMA0_UART0CH0,
	},
	[DMACH_UART0_SRC2] = {
		.name       	= "s5p-uart-dma-rx",
		.channels   	= MAP2(S3C_PDMA1_UART0CH1),
		.hw_addr.from 	= S3C_PDMA1_UART0CH1,
	},
	[DMACH_UART1] = {
               .name       	= "uart-dma-tx",
               .channels   	= MAP1(S3C_PDMA0_UART1CH0),
               .hw_addr.to 	= S3C_PDMA0_UART1CH0,
	},
	[DMACH_UART1_SRC2] = {
               .name       	= "uart-dma-rx",
               .channels   	= MAP2(S3C_PDMA1_UART1CH1),
Ejemplo n.º 5
0
		static key_id_t sdl_key_to_quake_key(SDLKey in)
		{
			key_id_t out;

			// Some characters map directly.
			if ((in < KEY_COUNT) && isprint(in))
			{
				out = static_cast<key_id_t>(in);
			}
			else
			{
				// Handle the rest.
				switch (in)
				{

#define MAP2(sdl, quake)	case sdl: out = quake; break
#define MAP1(key)			MAP2(SDLK_##key, K_##key)

					MAP1(BACKSPACE);
					MAP1(TAB);
					MAP2(SDLK_RETURN, K_ENTER);
					MAP1(PAUSE);
					MAP1(ESCAPE);
					MAP2(SDLK_DELETE, K_DEL);
					MAP2(SDLK_KP0, static_cast<key_id_t>('0'));
					MAP2(SDLK_KP1, static_cast<key_id_t>('1'));
					MAP2(SDLK_KP2, static_cast<key_id_t>('2'));
					MAP2(SDLK_KP3, static_cast<key_id_t>('3'));
					MAP2(SDLK_KP4, static_cast<key_id_t>('4'));
					MAP2(SDLK_KP5, static_cast<key_id_t>('5'));
					MAP2(SDLK_KP6, static_cast<key_id_t>('6'));
					MAP2(SDLK_KP7, static_cast<key_id_t>('7'));
					MAP2(SDLK_KP8, static_cast<key_id_t>('8'));
					MAP2(SDLK_KP9, static_cast<key_id_t>('9'));
					MAP2(SDLK_KP_PERIOD, static_cast<key_id_t>('.'));
					MAP2(SDLK_KP_DIVIDE, static_cast<key_id_t>('/'));
					MAP2(SDLK_KP_MULTIPLY, static_cast<key_id_t>('*'));
					MAP2(SDLK_KP_MINUS, static_cast<key_id_t>('0'));
					MAP2(SDLK_KP_PLUS, static_cast<key_id_t>('+'));
					MAP2(SDLK_KP_ENTER, K_ENTER);
					MAP2(SDLK_KP_EQUALS, static_cast<key_id_t>('-'));
					MAP2(SDLK_UP, K_UPARROW);
					MAP2(SDLK_DOWN, K_DOWNARROW);
					MAP2(SDLK_RIGHT, K_RIGHTARROW);
					MAP2(SDLK_LEFT, K_LEFTARROW);
					MAP2(SDLK_INSERT, K_INS);
					MAP1(HOME);
					MAP1(END);
					MAP2(SDLK_PAGEUP, K_PGUP);
					MAP2(SDLK_PAGEDOWN, K_PGDN);
					MAP1(F1);
					MAP1(F2);
					MAP1(F3);
					MAP1(F4);
					MAP1(F5);
					MAP1(F6);
					MAP1(F7);
					MAP1(F8);
					MAP1(F9);
					MAP1(F10);
					MAP1(F11);
					MAP1(F12);
					MAP2(SDLK_RSHIFT, K_SHIFT);
					MAP2(SDLK_LSHIFT, K_SHIFT);
					MAP2(SDLK_RCTRL, K_CTRL);
					MAP2(SDLK_LCTRL, K_CTRL);
					MAP2(SDLK_RALT, K_ALT);
					MAP2(SDLK_LALT, K_ALT);

#undef MAP1
#undef MAP2

				default:
					out = static_cast<key_id_t>(0);
				}
			}

			assert(out >= 0);
			assert(out < KEY_COUNT);
			return out;
		}