/*
* Set up the memory map and initialize registers
*/
void cpu_init_f(void)
{
sim_t *sim = (sim_t *)(MMAP_SIM);
out_8(&sim->sypcr, 0x00);
out_8(&sim->swivr, 0x0f);
out_8(&sim->swsr, 0x00);
out_8(&sim->mpark, 0x00);
intctrl_t *icr = (intctrl_t *)(MMAP_INTC);
/* timer 2 not masked */
out_be32(&icr->imr, 0xfffffbff);
out_8(&icr->icr0, 0x00); /* sw watchdog */
out_8(&icr->icr1, 0x00); /* timer 1 */
out_8(&icr->icr2, 0x88); /* timer 2 */
out_8(&icr->icr3, 0x00); /* i2c */
out_8(&icr->icr4, 0x00); /* uart 0 */
out_8(&icr->icr5, 0x00); /* uart 1 */
out_8(&icr->icr6, 0x00); /* dma 0 */
out_8(&icr->icr7, 0x00); /* dma 1 */
out_8(&icr->icr8, 0x00); /* dma 2 */
out_8(&icr->icr9, 0x00); /* dma 3 */
/* Chipselect Init */
init_csm();
/* enable data/instruction cache now */
icache_enable();
}
static void sja1000_ofp_write_reg(const struct sja1000_priv *priv,
int reg, u8 val)
{
out_8(priv->reg_base + reg, val);
}
static int do_lcd_cur (cmd_tbl_t * cmdtp, int flag, int argc, char *argv[])
{
ulong count;
ulong dir;
char cur_addr;
if (argc < 3) {
cmd_usage(cmdtp);
return 1;
}
count = simple_strtoul(argv[1], NULL, 16);
if (count > 31) {
printf("unable to shift > 0x20\n");
count = 0;
}
dir = simple_strtoul(argv[2], NULL, 16);
cur_addr = in_8((u8 *) LCD_CMD_ADDR);
udelay(50);
if (dir == 0x0) {
if (addr_flag == 0x80) {
if (count >= (cur_addr & 0xf)) {
out_8((u8 *) LCD_CMD_ADDR, 0x80);
udelay(50);
count = 0;
}
} else {
if (count >= ((cur_addr & 0x0f) + 0x0f)) {
out_8((u8 *) LCD_CMD_ADDR, 0x80);
addr_flag = 0x80;
udelay(50);
count = 0x0;
} else if (count >= ( cur_addr & 0xf)) {
count -= cur_addr & 0xf ;
out_8((u8 *) LCD_CMD_ADDR, 0x80 | 0xf);
addr_flag = 0x80;
udelay(50);
}
}
} else {
if (addr_flag == 0x80) {
if (count >= (0x1f - (cur_addr & 0xf))) {
count = 0x0;
addr_flag = 0xc0;
out_8((u8 *) LCD_CMD_ADDR, 0xc0 | 0xf);
udelay(50);
} else if ((count + (cur_addr & 0xf ))>= 0x0f) {
count = count + (cur_addr & 0xf) - 0x0f;
addr_flag = 0xc0;
out_8((u8 *) LCD_CMD_ADDR, 0xc0);
udelay(50);
}
} else if ((count + (cur_addr & 0xf )) >= 0x0f) {
count = 0x0;
out_8((u8 *) LCD_CMD_ADDR, 0xC0 | 0x0F);
udelay(50);
}
}
while (count--) {
if (dir == 0)
out_8((u8 *) LCD_CMD_ADDR, 0x10);
else
out_8((u8 *) LCD_CMD_ADDR, 0x14);
udelay(50);
}
return 0;
}
static int offb_setcolreg(u_int regno, u_int red, u_int green, u_int blue,
u_int transp, struct fb_info *info)
{
struct offb_par *par = (struct offb_par *) info->par;
int i, depth;
u32 *pal = info->pseudo_palette;
depth = info->var.bits_per_pixel;
if (depth == 16)
depth = (info->var.green.length == 5) ? 15 : 16;
if (regno > 255 ||
(depth == 16 && regno > 63) ||
(depth == 15 && regno > 31))
return 1;
if (regno < 16) {
switch (depth) {
case 15:
pal[regno] = (regno << 10) | (regno << 5) | regno;
break;
case 16:
pal[regno] = (regno << 11) | (regno << 5) | regno;
break;
case 24:
pal[regno] = (regno << 16) | (regno << 8) | regno;
break;
case 32:
i = (regno << 8) | regno;
pal[regno] = (i << 16) | i;
break;
}
}
red >>= 8;
green >>= 8;
blue >>= 8;
if (!par->cmap_adr)
return 0;
switch (par->cmap_type) {
case cmap_m64:
writeb(regno, par->cmap_adr);
writeb(red, par->cmap_data);
writeb(green, par->cmap_data);
writeb(blue, par->cmap_data);
break;
case cmap_M3A:
/* Clear PALETTE_ACCESS_CNTL in DAC_CNTL */
out_le32(par->cmap_adr + 0x58,
in_le32(par->cmap_adr + 0x58) & ~0x20);
case cmap_r128:
/* Set palette index & data */
out_8(par->cmap_adr + 0xb0, regno);
out_le32(par->cmap_adr + 0xb4,
(red << 16 | green << 8 | blue));
break;
case cmap_M3B:
/* Set PALETTE_ACCESS_CNTL in DAC_CNTL */
out_le32(par->cmap_adr + 0x58,
in_le32(par->cmap_adr + 0x58) | 0x20);
/* Set palette index & data */
out_8(par->cmap_adr + 0xb0, regno);
out_le32(par->cmap_adr + 0xb4, (red << 16 | green << 8 | blue));
break;
case cmap_radeon:
/* Set palette index & data (could be smarter) */
out_8(par->cmap_adr + 0xb0, regno);
out_le32(par->cmap_adr + 0xb4, (red << 16 | green << 8 | blue));
break;
case cmap_gxt2000:
out_le32(((unsigned __iomem *) par->cmap_adr) + regno,
(red << 16 | green << 8 | blue));
break;
case cmap_avivo:
/* Write to both LUTs for now */
writel(1, par->cmap_adr + AVIVO_DC_LUT_RW_SELECT);
writeb(regno, par->cmap_adr + AVIVO_DC_LUT_RW_INDEX);
writel(((red) << 22) | ((green) << 12) | ((blue) << 2),
par->cmap_adr + AVIVO_DC_LUT_30_COLOR);
writel(0, par->cmap_adr + AVIVO_DC_LUT_RW_SELECT);
writeb(regno, par->cmap_adr + AVIVO_DC_LUT_RW_INDEX);
writel(((red) << 22) | ((green) << 12) | ((blue) << 2),
par->cmap_adr + AVIVO_DC_LUT_30_COLOR);
break;
}
return 0;
}
/*
* Per table 27, page 58 of MPC8641HPCN spec.
*/
int set_px_sysclk(ulong sysclk)
{
u8 sysclk_s, sysclk_r, sysclk_v, vclkh, vclkl, sysclk_aux;
u8 *pixis_base = (u8 *)PIXIS_BASE;
switch (sysclk) {
case 33:
sysclk_s = 0x04;
sysclk_r = 0x04;
sysclk_v = 0x07;
sysclk_aux = 0x00;
break;
case 40:
sysclk_s = 0x01;
sysclk_r = 0x1F;
sysclk_v = 0x20;
sysclk_aux = 0x01;
break;
case 50:
sysclk_s = 0x01;
sysclk_r = 0x1F;
sysclk_v = 0x2A;
sysclk_aux = 0x02;
break;
case 66:
sysclk_s = 0x01;
sysclk_r = 0x04;
sysclk_v = 0x04;
sysclk_aux = 0x03;
break;
case 83:
sysclk_s = 0x01;
sysclk_r = 0x1F;
sysclk_v = 0x4B;
sysclk_aux = 0x04;
break;
case 100:
sysclk_s = 0x01;
sysclk_r = 0x1F;
sysclk_v = 0x5C;
sysclk_aux = 0x05;
break;
case 134:
sysclk_s = 0x06;
sysclk_r = 0x1F;
sysclk_v = 0x3B;
sysclk_aux = 0x06;
break;
case 166:
sysclk_s = 0x06;
sysclk_r = 0x1F;
sysclk_v = 0x4B;
sysclk_aux = 0x07;
break;
default:
printf("Unsupported SYSCLK frequency.\n");
return 0;
}
vclkh = (sysclk_s << 5) | sysclk_r;
vclkl = sysclk_v;
out_8(pixis_base + PIXIS_VCLKH, vclkh);
out_8(pixis_base + PIXIS_VCLKL, vclkl);
out_8(pixis_base + PIXIS_AUX, sysclk_aux);
return 1;
}
/**
* mpc52xx_lpbfifo_kick - Trigger the next block of data to be transfered
*/
static void mpc52xx_lpbfifo_kick(struct mpc52xx_lpbfifo_request *req)
{
size_t transfer_size = req->size - req->pos;
struct bcom_bd *bd;
void __iomem *reg;
u32 *data;
int i;
int bit_fields;
int dma = !(req->flags & MPC52XX_LPBFIFO_FLAG_NO_DMA);
int write = req->flags & MPC52XX_LPBFIFO_FLAG_WRITE;
int poll_dma = req->flags & MPC52XX_LPBFIFO_FLAG_POLL_DMA;
/* Set and clear the reset bits; is good practice in User Manual */
out_be32(lpbfifo.regs + LPBFIFO_REG_ENABLE, 0x01010000);
/* set master enable bit */
out_be32(lpbfifo.regs + LPBFIFO_REG_ENABLE, 0x00000001);
if (!dma) {
/* While the FIFO can be setup for transfer sizes as large as
* 16M-1, the FIFO itself is only 512 bytes deep and it does
* not generate interrupts for FIFO full events (only transfer
* complete will raise an IRQ). Therefore when not using
* Bestcomm to drive the FIFO it needs to either be polled, or
* transfers need to constrained to the size of the fifo.
*
* This driver restricts the size of the transfer
*/
if (transfer_size > 512)
transfer_size = 512;
/* Load the FIFO with data */
if (write) {
reg = lpbfifo.regs + LPBFIFO_REG_FIFO_DATA;
data = req->data + req->pos;
for (i = 0; i < transfer_size; i += 4)
out_be32(reg, *data++);
}
/* Unmask both error and completion irqs */
out_be32(lpbfifo.regs + LPBFIFO_REG_ENABLE, 0x00000301);
} else {
/* Choose the correct direction
*
* Configure the watermarks so DMA will always complete correctly.
* It may be worth experimenting with the ALARM value to see if
* there is a performance impacit. However, if it is wrong there
* is a risk of DMA not transferring the last chunk of data
*/
if (write) {
out_be32(lpbfifo.regs + LPBFIFO_REG_FIFO_ALARM, 0x1e4);
out_8(lpbfifo.regs + LPBFIFO_REG_FIFO_CONTROL, 7);
lpbfifo.bcom_cur_task = lpbfifo.bcom_tx_task;
} else {
out_be32(lpbfifo.regs + LPBFIFO_REG_FIFO_ALARM, 0x1ff);
out_8(lpbfifo.regs + LPBFIFO_REG_FIFO_CONTROL, 0);
lpbfifo.bcom_cur_task = lpbfifo.bcom_rx_task;
if (poll_dma) {
if (lpbfifo.dma_irqs_enabled) {
disable_irq(bcom_get_task_irq(lpbfifo.bcom_rx_task));
lpbfifo.dma_irqs_enabled = 0;
}
} else {
if (!lpbfifo.dma_irqs_enabled) {
enable_irq(bcom_get_task_irq(lpbfifo.bcom_rx_task));
lpbfifo.dma_irqs_enabled = 1;
}
}
}
bd = bcom_prepare_next_buffer(lpbfifo.bcom_cur_task);
bd->status = transfer_size;
if (!write) {
/*
* In the DMA read case, the DMA doesn't complete,
* possibly due to incorrect watermarks in the ALARM
* and CONTROL regs. For now instead of trying to
* determine the right watermarks that will make this
* work, just increase the number of bytes the FIFO is
* expecting.
*
* When submitting another operation, the FIFO will get
* reset, so the condition of the FIFO waiting for a
* non-existent 4 bytes will get cleared.
*/
transfer_size += 4; /* BLECH! */
}
bd->data[0] = req->data_phys + req->pos;
bcom_submit_next_buffer(lpbfifo.bcom_cur_task, NULL);
/* error irq & master enabled bit */
bit_fields = 0x00000201;
/* Unmask irqs */
if (write && (!poll_dma))
bit_fields |= 0x00000100; /* completion irq too */
out_be32(lpbfifo.regs + LPBFIFO_REG_ENABLE, bit_fields);
}
/* Set transfer size, width, chip select and READ mode */
out_be32(lpbfifo.regs + LPBFIFO_REG_START_ADDRESS,
req->offset + req->pos);
out_be32(lpbfifo.regs + LPBFIFO_REG_PACKET_SIZE, transfer_size);
bit_fields = req->cs << 24 | 0x000008;
if (!write)
bit_fields |= 0x010000; /* read mode */
out_be32(lpbfifo.regs + LPBFIFO_REG_CONTROL, bit_fields);
/* Kick it off */
out_8(lpbfifo.regs + LPBFIFO_REG_PACKET_SIZE, 0x01);
if (dma)
bcom_enable(lpbfifo.bcom_cur_task);
}
static void ace_out_8(struct ace_device *ace, int reg, u16 val)
{
void *r = ace->baseaddr + reg;
out_8(r, val);
out_8(r + 1, val >> 8);
}
/*
* Read a byte from an address in SRAM
*/
static u8 read_sram(struct fsl_dcm_data *dcm, u8 offset)
{
out_8(dcm->addr, offset);
return in_8(dcm->data);
}
static int fsl_dcm_probe(struct platform_device *pdev)
{
struct device_node *np = pdev->dev.of_node;
struct fsl_dcm_data *dcm;
int ret;
u8 ver;
dcm = kzalloc(sizeof(struct fsl_dcm_data), GFP_KERNEL);
if (!dcm)
return -ENOMEM;
dcm->base = of_iomap(np, 0);
if (!dcm->base) {
dev_err(&pdev->dev, "could not map fpga node\n");
ret = -ENOMEM;
goto error_kzalloc;
}
dcm->dev = &pdev->dev;
dcm->board = pdev->dev.platform_data;
/*
* write 0x1F to GDC register then read GDD register
* to get GMSA version.
* 0x00: v1 -> pixis
* 0x01: v2 -> qixis
*/
out_8(dcm->base + 0x16, 0x1F);
ver = in_8(dcm->base + 0x17);
if (ver == 0x0) {
dcm->addr = dcm->base + 0x0a;
dcm->data = dcm->base + 0x0d;
} else if (ver == 0x01) {
dcm->addr = dcm->base + 0x12;
dcm->data = dcm->base + 0x13;
}
dcm->ocmd = dcm->base + 0x14;
dcm->omsg = dcm->base + 0x15;
dcm->mack = dcm->base + 0x18;
/* Check to make sure the DCM is enable and working */
if (!is_sram_available(dcm)) {
dev_err(&pdev->dev, "dcm is not responding\n");
ret = -ENODEV;
goto error_iomap;
}
dev_set_drvdata(&pdev->dev, dcm);
ret = sysfs_create_group(&pdev->dev.kobj, &fsl_dcm_attr_group);
if (ret) {
dev_err(&pdev->dev, "could not create sysfs group\n");
goto error_iomap;
}
if (!select_dcm_channels(dcm, dcm->board->mask)) {
dev_err(&pdev->dev, "could not set crecord mask\n");
ret = -ENODEV;
goto error_sysfs;
}
/* Set the timer to the fastest support rate. */
if (!set_dcm_frequency(dcm, 1)) {
dev_err(&pdev->dev, "could not set frequency\n");
ret = -ENODEV;
goto error_sysfs;
}
return 0;
error_sysfs:
sysfs_remove_group(&pdev->dev.kobj, &fsl_dcm_attr_group);
error_iomap:
iounmap(dcm->base);
error_kzalloc:
kfree(dcm);
return ret;
}
static __inline__ void macscsi_write(struct Scsi_Host *instance, int reg, int value)
{
out_8(instance->io_port + (reg<<4), value);
}
/*
* Write a byte to an address in SRAM
*/
static void write_sram(struct fsl_dcm_data *dcm, u8 offset, u8 v)
{
out_8(dcm->addr, offset);
out_8(dcm->data, v);
}
/**
* p1022ds_set_monitor_port: switch the output to a different monitor port
*/
static void p1022ds_set_monitor_port(enum fsl_diu_monitor_port port)
{
struct device_node *guts_node;
struct device_node *lbc_node = NULL;
struct device_node *law_node = NULL;
struct ccsr_guts __iomem *guts;
struct fsl_lbc_regs *lbc = NULL;
void *ecm = NULL;
u8 __iomem *lbc_lcs0_ba = NULL;
u8 __iomem *lbc_lcs1_ba = NULL;
phys_addr_t cs0_addr, cs1_addr;
u32 br0, or0, br1, or1;
const __be32 *iprop;
unsigned int num_laws;
u8 b;
/* Map the global utilities registers. */
guts_node = of_find_compatible_node(NULL, NULL, "fsl,p1022-guts");
if (!guts_node) {
pr_err("p1022ds: missing global utilities device node\n");
return;
}
guts = of_iomap(guts_node, 0);
if (!guts) {
pr_err("p1022ds: could not map global utilities device\n");
goto exit;
}
lbc_node = of_find_compatible_node(NULL, NULL, "fsl,p1022-elbc");
if (!lbc_node) {
pr_err("p1022ds: missing localbus node\n");
goto exit;
}
lbc = of_iomap(lbc_node, 0);
if (!lbc) {
pr_err("p1022ds: could not map localbus node\n");
goto exit;
}
law_node = of_find_compatible_node(NULL, NULL, "fsl,ecm-law");
if (!law_node) {
pr_err("p1022ds: missing local access window node\n");
goto exit;
}
ecm = of_iomap(law_node, 0);
if (!ecm) {
pr_err("p1022ds: could not map local access window node\n");
goto exit;
}
iprop = of_get_property(law_node, "fsl,num-laws", NULL);
if (!iprop) {
pr_err("p1022ds: LAW node is missing fsl,num-laws property\n");
goto exit;
}
num_laws = be32_to_cpup(iprop);
/*
* Indirect mode requires both BR0 and BR1 to be set to "GPCM",
* otherwise writes to these addresses won't actually appear on the
* local bus, and so the PIXIS won't see them.
*
* In FCM mode, writes go to the NAND controller, which does not pass
* them to the localbus directly. So we force BR0 and BR1 into GPCM
* mode, since we don't care about what's behind the localbus any
* more.
*/
br0 = in_be32(&lbc->bank[0].br);
br1 = in_be32(&lbc->bank[1].br);
or0 = in_be32(&lbc->bank[0].or);
or1 = in_be32(&lbc->bank[1].or);
/* Make sure CS0 and CS1 are programmed */
if (!(br0 & BR_V) || !(br1 & BR_V)) {
pr_err("p1022ds: CS0 and/or CS1 is not programmed\n");
goto exit;
}
/*
* Use the existing BRx/ORx values if it's already GPCM. Otherwise,
* force the values to simple 32KB GPCM windows with the most
* conservative timing.
*/
if ((br0 & BR_MSEL) != BR_MS_GPCM) {
br0 = (br0 & BR_BA) | BR_V;
or0 = 0xFFFF8000 | 0xFF7;
out_be32(&lbc->bank[0].br, br0);
out_be32(&lbc->bank[0].or, or0);
}
if ((br1 & BR_MSEL) != BR_MS_GPCM) {
br1 = (br1 & BR_BA) | BR_V;
or1 = 0xFFFF8000 | 0xFF7;
out_be32(&lbc->bank[1].br, br1);
out_be32(&lbc->bank[1].or, or1);
}
cs0_addr = lbc_br_to_phys(ecm, num_laws, br0);
if (!cs0_addr) {
pr_err("p1022ds: could not determine physical address for CS0"
" (BR0=%08x)\n", br0);
goto exit;
}
cs1_addr = lbc_br_to_phys(ecm, num_laws, br1);
if (!cs1_addr) {
pr_err("p1022ds: could not determine physical address for CS1"
" (BR1=%08x)\n", br1);
goto exit;
}
lbc_lcs0_ba = ioremap(cs0_addr, 1);
if (!lbc_lcs0_ba) {
pr_err("p1022ds: could not ioremap CS0 address %llx\n",
(unsigned long long)cs0_addr);
goto exit;
}
lbc_lcs1_ba = ioremap(cs1_addr, 1);
if (!lbc_lcs1_ba) {
pr_err("p1022ds: could not ioremap CS1 address %llx\n",
(unsigned long long)cs1_addr);
goto exit;
}
/* Make sure we're in indirect mode first. */
if ((in_be32(&guts->pmuxcr) & PMUXCR_ELBCDIU_MASK) !=
PMUXCR_ELBCDIU_DIU) {
struct device_node *pixis_node;
void __iomem *pixis;
pixis_node =
of_find_compatible_node(NULL, NULL, "fsl,p1022ds-fpga");
if (!pixis_node) {
pr_err("p1022ds: missing pixis node\n");
goto exit;
}
pixis = of_iomap(pixis_node, 0);
of_node_put(pixis_node);
if (!pixis) {
pr_err("p1022ds: could not map pixis registers\n");
goto exit;
}
/* Enable indirect PIXIS mode. */
setbits8(pixis + PX_CTL, PX_CTL_ALTACC);
iounmap(pixis);
/* Switch the board mux to the DIU */
out_8(lbc_lcs0_ba, PX_BRDCFG0); /* BRDCFG0 */
b = in_8(lbc_lcs1_ba);
b |= PX_BRDCFG0_ELBC_DIU;
out_8(lbc_lcs1_ba, b);
/* Set the chip mux to DIU mode. */
clrsetbits_be32(&guts->pmuxcr, PMUXCR_ELBCDIU_MASK,
PMUXCR_ELBCDIU_DIU);
in_be32(&guts->pmuxcr);
}
switch (port) {
case FSL_DIU_PORT_DVI:
/* Enable the DVI port, disable the DFP and the backlight */
out_8(lbc_lcs0_ba, PX_BRDCFG1);
b = in_8(lbc_lcs1_ba);
b &= ~(PX_BRDCFG1_DFPEN | PX_BRDCFG1_BACKLIGHT);
b |= PX_BRDCFG1_DVIEN;
out_8(lbc_lcs1_ba, b);
break;
case FSL_DIU_PORT_LVDS:
/*
* LVDS also needs backlight enabled, otherwise the display
* will be blank.
*/
/* Enable the DFP port, disable the DVI and the backlight */
out_8(lbc_lcs0_ba, PX_BRDCFG1);
b = in_8(lbc_lcs1_ba);
b &= ~PX_BRDCFG1_DVIEN;
b |= PX_BRDCFG1_DFPEN | PX_BRDCFG1_BACKLIGHT;
out_8(lbc_lcs1_ba, b);
break;
default:
pr_err("p1022ds: unsupported monitor port %i\n", port);
}
exit:
if (lbc_lcs1_ba)
iounmap(lbc_lcs1_ba);
if (lbc_lcs0_ba)
iounmap(lbc_lcs0_ba);
if (lbc)
iounmap(lbc);
if (ecm)
iounmap(ecm);
if (guts)
iounmap(guts);
of_node_put(law_node);
of_node_put(lbc_node);
of_node_put(guts_node);
}
int do_caddy(cmd_tbl_t *cmdtp, int flag, int argc, char * const argv[])
{
unsigned long base_addr;
uint32_t ptr;
struct caddy_cmd *caddy_cmd;
uint32_t result[5];
uint16_t data16;
uint8_t data8;
uint32_t status;
pci_dev_t dev;
void *pci_ptr;
if (argc < 2) {
puts("Missing parameter\n");
return 1;
}
base_addr = simple_strtoul(argv[1], NULL, 16);
caddy_interface = (struct caddy_interface *) base_addr;
memset((void *)caddy_interface, 0, sizeof(struct caddy_interface));
memcpy((void *)&caddy_interface->magic[0], &CADDY_MAGIC, 16);
while (ctrlc() == 0) {
if (caddy_interface->cmd_in != caddy_interface->cmd_out) {
memset(result, 0, 5 * sizeof(result[0]));
status = 0;
caddy_cmd = &caddy_interface->cmd[caddy_interface->cmd_out];
pci_ptr = (void *)CONFIG_SYS_PCI1_IO_PHYS +
(caddy_cmd->addr & 0x001fffff);
switch (caddy_cmd->cmd) {
case CADDY_CMD_IO_READ_8:
result[0] = in_8(pci_ptr);
break;
case CADDY_CMD_IO_READ_16:
result[0] = in_be16(pci_ptr);
break;
case CADDY_CMD_IO_READ_32:
result[0] = in_be32(pci_ptr);
break;
case CADDY_CMD_IO_WRITE_8:
data8 = caddy_cmd->par[0] & 0x000000ff;
out_8(pci_ptr, data8);
break;
case CADDY_CMD_IO_WRITE_16:
data16 = caddy_cmd->par[0] & 0x0000ffff;
out_be16(pci_ptr, data16);
break;
case CADDY_CMD_IO_WRITE_32:
out_be32(pci_ptr, caddy_cmd->par[0]);
break;
case CADDY_CMD_CONFIG_READ_8:
dev = PCI_BDF(caddy_cmd->par[0],
caddy_cmd->par[1],
caddy_cmd->par[2]);
status = pci_read_config_byte(dev,
caddy_cmd->addr,
&data8);
result[0] = data8;
break;
case CADDY_CMD_CONFIG_READ_16:
dev = PCI_BDF(caddy_cmd->par[0],
caddy_cmd->par[1],
caddy_cmd->par[2]);
status = pci_read_config_word(dev,
caddy_cmd->addr,
&data16);
result[0] = data16;
break;
case CADDY_CMD_CONFIG_READ_32:
dev = PCI_BDF(caddy_cmd->par[0],
caddy_cmd->par[1],
caddy_cmd->par[2]);
status = pci_read_config_dword(dev,
caddy_cmd->addr,
&result[0]);
break;
case CADDY_CMD_CONFIG_WRITE_8:
dev = PCI_BDF(caddy_cmd->par[0],
caddy_cmd->par[1],
caddy_cmd->par[2]);
data8 = caddy_cmd->par[3] & 0x000000ff;
status = pci_write_config_byte(dev,
caddy_cmd->addr,
data8);
break;
case CADDY_CMD_CONFIG_WRITE_16:
dev = PCI_BDF(caddy_cmd->par[0],
caddy_cmd->par[1],
caddy_cmd->par[2]);
data16 = caddy_cmd->par[3] & 0x0000ffff;
status = pci_write_config_word(dev,
caddy_cmd->addr,
data16);
break;
case CADDY_CMD_CONFIG_WRITE_32:
dev = PCI_BDF(caddy_cmd->par[0],
caddy_cmd->par[1],
caddy_cmd->par[2]);
status = pci_write_config_dword(dev,
caddy_cmd->addr,
caddy_cmd->par[3]);
break;
default:
status = 0xffffffff;
break;
}
generate_answer(caddy_cmd, status, &result[0]);
ptr = caddy_interface->cmd_out + 1;
ptr = ptr & (CMD_SIZE - 1);
caddy_interface->cmd_out = ptr;
}
caddy_interface->heartbeat++;
}
return 0;
}
int indirect_write_config(struct pci_bus *bus, unsigned int devfn,
int offset, int len, u32 val)
{
struct pci_controller *hose = pci_bus_to_host(bus);
volatile void __iomem *cfg_data;
u8 cfg_type = 0;
u32 bus_no, reg;
if (hose->indirect_type & PPC_INDIRECT_TYPE_NO_PCIE_LINK) {
if (bus->number != hose->first_busno)
return PCIBIOS_DEVICE_NOT_FOUND;
if (devfn != 0)
return PCIBIOS_DEVICE_NOT_FOUND;
}
if (ppc_md.pci_exclude_device)
if (ppc_md.pci_exclude_device(hose, bus->number, devfn))
return PCIBIOS_DEVICE_NOT_FOUND;
if (hose->indirect_type & PPC_INDIRECT_TYPE_SET_CFG_TYPE)
if (bus->number != hose->first_busno)
cfg_type = 1;
bus_no = (bus->number == hose->first_busno) ?
hose->self_busno : bus->number;
if (hose->indirect_type & PPC_INDIRECT_TYPE_EXT_REG)
reg = ((offset & 0xf00) << 16) | (offset & 0xfc);
else
reg = offset & 0xfc;
if (hose->indirect_type & PPC_INDIRECT_TYPE_BIG_ENDIAN)
out_be32(hose->cfg_addr, (0x80000000 | (bus_no << 16) |
(devfn << 8) | reg | cfg_type));
else
out_le32(hose->cfg_addr, (0x80000000 | (bus_no << 16) |
(devfn << 8) | reg | cfg_type));
/* suppress setting of PCI_PRIMARY_BUS */
if (hose->indirect_type & PPC_INDIRECT_TYPE_SURPRESS_PRIMARY_BUS)
if ((offset == PCI_PRIMARY_BUS) &&
(bus->number == hose->first_busno))
val &= 0xffffff00;
/* Workaround for PCI_28 Errata in 440EPx/GRx */
if ((hose->indirect_type & PPC_INDIRECT_TYPE_BROKEN_MRM) &&
offset == PCI_CACHE_LINE_SIZE) {
val = 0;
}
/*
* Note: the caller has already checked that offset is
* suitably aligned and that len is 1, 2 or 4.
*/
cfg_data = hose->cfg_data + (offset & 3);
switch (len) {
case 1:
out_8(cfg_data, val);
break;
case 2:
out_le16(cfg_data, val);
break;
default:
out_le32(cfg_data, val);
break;
}
return PCIBIOS_SUCCESSFUL;
}
int misc_init_r(void)
{
unsigned char *dst;
unsigned char fctr;
ulong len = sizeof(fpgadata);
int status;
int index;
int i;
/* adjust flash start and offset */
gd->bd->bi_flashstart = 0 - gd->bd->bi_flashsize;
gd->bd->bi_flashoffset = 0;
dst = malloc(CONFIG_SYS_FPGA_MAX_SIZE);
if (gunzip(dst, CONFIG_SYS_FPGA_MAX_SIZE,
(uchar *)fpgadata, &len) != 0) {
printf("GUNZIP ERROR - must RESET board to recover\n");
do_reset(NULL, 0, 0, NULL);
}
status = fpga_boot(dst, len);
if (status != 0) {
printf("\nFPGA: Booting failed ");
switch (status) {
case ERROR_FPGA_PRG_INIT_LOW:
printf("(Timeout: INIT not low "
"after asserting PROGRAM*)\n");
break;
case ERROR_FPGA_PRG_INIT_HIGH:
printf("(Timeout: INIT not high "
"after deasserting PROGRAM*)\n");
break;
case ERROR_FPGA_PRG_DONE:
printf("(Timeout: DONE not high "
"after programming FPGA)\n");
break;
}
/* display infos on fpgaimage */
index = 15;
for (i=0; i<4; i++) {
len = dst[index];
printf("FPGA: %s\n", &(dst[index+1]));
index += len+3;
}
putc ('\n');
/* delayed reboot */
for (i=20; i>0; i--) {
printf("Rebooting in %2d seconds \r",i);
for (index=0;index<1000;index++)
udelay(1000);
}
putc('\n');
do_reset(NULL, 0, 0, NULL);
}
puts("FPGA: ");
/* display infos on fpgaimage */
index = 15;
for (i=0; i<4; i++) {
len = dst[index];
printf("%s ", &(dst[index+1]));
index += len+3;
}
putc('\n');
free(dst);
/*
* Reset FPGA via FPGA_DATA pin
*/
SET_FPGA(FPGA_PRG | FPGA_CLK);
udelay(1000); /* wait 1ms */
SET_FPGA(FPGA_PRG | FPGA_CLK | FPGA_DATA);
udelay(1000); /* wait 1ms */
/*
* Reset external DUARTs
*/
out_be32((void*)GPIO0_OR,
in_be32((void*)GPIO0_OR) | CONFIG_SYS_DUART_RST);
udelay(10);
out_be32((void*)GPIO0_OR,
in_be32((void*)GPIO0_OR) & ~CONFIG_SYS_DUART_RST);
udelay(1000);
/*
* Set NAND-FLASH GPIO signals to default
*/
out_be32((void*)GPIO0_OR,
in_be32((void*)GPIO0_OR) &
~(CONFIG_SYS_NAND_CLE | CONFIG_SYS_NAND_ALE));
out_be32((void*)GPIO0_OR,
in_be32((void*)GPIO0_OR) | CONFIG_SYS_NAND_CE);
/*
* Setup EEPROM write protection
*/
out_be32((void*)GPIO0_OR,
in_be32((void*)GPIO0_OR) | CONFIG_SYS_EEPROM_WP);
out_be32((void*)GPIO0_TCR,
in_be32((void*)GPIO0_TCR) | CONFIG_SYS_EEPROM_WP);
/*
* Enable interrupts in exar duart mcr[3]
*/
out_8((void *)DUART0_BA + 4, 0x08);
out_8((void *)DUART1_BA + 4, 0x08);
/*
* Enable auto RS485 mode in 2nd external uart
*/
out_8((void *)DUART1_BA + 3, 0xbf); /* write LCR */
fctr = in_8((void *)DUART1_BA + 1); /* read FCTR */
fctr |= 0x08; /* enable RS485 mode */
out_8((void *)DUART1_BA + 1, fctr); /* write FCTR */
out_8((void *)DUART1_BA + 3, 0); /* write LCR */
/*
* Init magnetic couplers
*/
if (!getenv("noinitcoupler")) {
init_coupler(CAN0_BA);
init_coupler(CAN1_BA);
}
return 0;
}
/*
* OF Platform Bus Binding
*/
static int __devinit mpc52xx_spi_probe(struct platform_device *op,
const struct of_device_id *match)
{
struct spi_master *master;
struct mpc52xx_spi *ms;
void __iomem *regs;
u8 ctrl1;
int rc, i = 0;
int gpio_cs;
/* MMIO registers */
dev_dbg(&op->dev, "probing mpc5200 SPI device\n");
regs = of_iomap(op->dev.of_node, 0);
if (!regs)
return -ENODEV;
/* initialize the device */
ctrl1 = SPI_CTRL1_SPIE | SPI_CTRL1_SPE | SPI_CTRL1_MSTR;
out_8(regs + SPI_CTRL1, ctrl1);
out_8(regs + SPI_CTRL2, 0x0);
out_8(regs + SPI_DATADIR, 0xe); /* Set output pins */
out_8(regs + SPI_PORTDATA, 0x8); /* Deassert /SS signal */
/* Clear the status register and re-read it to check for a MODF
* failure. This driver cannot currently handle multiple masters
* on the SPI bus. This fault will also occur if the SPI signals
* are not connected to any pins (port_config setting) */
in_8(regs + SPI_STATUS);
out_8(regs + SPI_CTRL1, ctrl1);
in_8(regs + SPI_DATA);
if (in_8(regs + SPI_STATUS) & SPI_STATUS_MODF) {
dev_err(&op->dev, "mode fault; is port_config correct?\n");
rc = -EIO;
goto err_init;
}
dev_dbg(&op->dev, "allocating spi_master struct\n");
master = spi_alloc_master(&op->dev, sizeof *ms);
if (!master) {
rc = -ENOMEM;
goto err_alloc;
}
master->bus_num = -1;
master->setup = mpc52xx_spi_setup;
master->transfer = mpc52xx_spi_transfer;
master->mode_bits = SPI_CPOL | SPI_CPHA | SPI_LSB_FIRST;
master->dev.of_node = op->dev.of_node;
dev_set_drvdata(&op->dev, master);
ms = spi_master_get_devdata(master);
ms->master = master;
ms->regs = regs;
ms->irq0 = irq_of_parse_and_map(op->dev.of_node, 0);
ms->irq1 = irq_of_parse_and_map(op->dev.of_node, 1);
ms->state = mpc52xx_spi_fsmstate_idle;
ms->ipb_freq = mpc5xxx_get_bus_frequency(op->dev.of_node);
ms->gpio_cs_count = of_gpio_count(op->dev.of_node);
if (ms->gpio_cs_count > 0) {
master->num_chipselect = ms->gpio_cs_count;
ms->gpio_cs = kmalloc(ms->gpio_cs_count * sizeof(unsigned int),
GFP_KERNEL);
if (!ms->gpio_cs) {
rc = -ENOMEM;
goto err_alloc;
}
for (i = 0; i < ms->gpio_cs_count; i++) {
gpio_cs = of_get_gpio(op->dev.of_node, i);
if (gpio_cs < 0) {
dev_err(&op->dev,
"could not parse the gpio field "
"in oftree\n");
rc = -ENODEV;
goto err_gpio;
}
rc = gpio_request(gpio_cs, dev_name(&op->dev));
if (rc) {
dev_err(&op->dev,
"can't request spi cs gpio #%d "
"on gpio line %d\n", i, gpio_cs);
goto err_gpio;
}
gpio_direction_output(gpio_cs, 1);
ms->gpio_cs[i] = gpio_cs;
}
} else {
master->num_chipselect = 1;
}
spin_lock_init(&ms->lock);
INIT_LIST_HEAD(&ms->queue);
INIT_WORK(&ms->work, mpc52xx_spi_wq);
/* Decide if interrupts can be used */
if (ms->irq0 && ms->irq1) {
rc = request_irq(ms->irq0, mpc52xx_spi_irq, 0,
"mpc5200-spi-modf", ms);
rc |= request_irq(ms->irq1, mpc52xx_spi_irq, 0,
"mpc5200-spi-spif", ms);
if (rc) {
free_irq(ms->irq0, ms);
free_irq(ms->irq1, ms);
ms->irq0 = ms->irq1 = 0;
}
} else {
/* operate in polled mode */
ms->irq0 = ms->irq1 = 0;
}
if (!ms->irq0)
dev_info(&op->dev, "using polled mode\n");
dev_dbg(&op->dev, "registering spi_master struct\n");
rc = spi_register_master(master);
if (rc)
goto err_register;
dev_info(&ms->master->dev, "registered MPC5200 SPI bus\n");
return rc;
err_register:
dev_err(&ms->master->dev, "initialization failed\n");
spi_master_put(master);
err_gpio:
while (i-- > 0)
gpio_free(ms->gpio_cs[i]);
kfree(ms->gpio_cs);
err_alloc:
err_init:
iounmap(regs);
return rc;
}
/**
* mpc52xx_lpbfifo_irq - IRQ handler for LPB FIFO
*
* On transmit, the dma completion irq triggers before the fifo completion
* triggers. Handle the dma completion here instead of the LPB FIFO Bestcomm
* task completion irq becuase everyting is not really done until the LPB FIFO
* completion irq triggers.
*
* In other words:
* For DMA, on receive, the "Fat Lady" is the bestcom completion irq. on
* transmit, the fifo completion irq is the "Fat Lady". The opera (or in this
* case the DMA/FIFO operation) is not finished until the "Fat Lady" sings.
*
* Reasons for entering this routine:
* 1) PIO mode rx and tx completion irq
* 2) DMA interrupt mode tx completion irq
* 3) DMA polled mode tx
*
* Exit conditions:
* 1) Transfer aborted
* 2) FIFO complete without DMA; more data to do
* 3) FIFO complete without DMA; all data transfered
* 4) FIFO complete using DMA
*
* Condition 1 can occur regardless of whether or not DMA is used.
* It requires executing the callback to report the error and exiting
* immediately.
*
* Condition 2 requires programming the FIFO with the next block of data
*
* Condition 3 requires executing the callback to report completion
*
* Condition 4 means the same as 3, except that we also retrieve the bcom
* buffer so DMA doesn't get clogged up.
*
* To make things trickier, the spinlock must be dropped before
* executing the callback, otherwise we could end up with a deadlock
* or nested spinlock condition. The out path is non-trivial, so
* extra fiddling is done to make sure all paths lead to the same
* outbound code.
*/
static irqreturn_t mpc52xx_lpbfifo_irq(int irq, void *dev_id)
{
struct mpc52xx_lpbfifo_request *req;
u32 status = in_8(lpbfifo.regs + LPBFIFO_REG_BYTES_DONE_STATUS);
void __iomem *reg;
u32 *data;
int count, i;
int do_callback = 0;
u32 ts;
unsigned long flags;
int dma, write, poll_dma;
spin_lock_irqsave(&lpbfifo.lock, flags);
ts = get_tbl();
req = lpbfifo.req;
if (!req) {
spin_unlock_irqrestore(&lpbfifo.lock, flags);
pr_err("bogus LPBFIFO IRQ\n");
return IRQ_HANDLED;
}
dma = !(req->flags & MPC52XX_LPBFIFO_FLAG_NO_DMA);
write = req->flags & MPC52XX_LPBFIFO_FLAG_WRITE;
poll_dma = req->flags & MPC52XX_LPBFIFO_FLAG_POLL_DMA;
if (dma && !write) {
spin_unlock_irqrestore(&lpbfifo.lock, flags);
pr_err("bogus LPBFIFO IRQ (dma and not writting)\n");
return IRQ_HANDLED;
}
if ((status & 0x01) == 0) {
goto out;
}
/* check abort bit */
if (status & 0x10) {
out_be32(lpbfifo.regs + LPBFIFO_REG_ENABLE, 0x01010000);
do_callback = 1;
goto out;
}
/* Read result from hardware */
count = in_be32(lpbfifo.regs + LPBFIFO_REG_BYTES_DONE_STATUS);
count &= 0x00ffffff;
if (!dma && !write) {
/* copy the data out of the FIFO */
reg = lpbfifo.regs + LPBFIFO_REG_FIFO_DATA;
data = req->data + req->pos;
for (i = 0; i < count; i += 4)
*data++ = in_be32(reg);
}
/* Update transfer position and count */
req->pos += count;
/* Decide what to do next */
if (req->size - req->pos)
mpc52xx_lpbfifo_kick(req); /* more work to do */
else
do_callback = 1;
out:
/* Clear the IRQ */
out_8(lpbfifo.regs + LPBFIFO_REG_BYTES_DONE_STATUS, 0x01);
if (dma && (status & 0x11)) {
/*
* Count the DMA as complete only when the FIFO completion
* status or abort bits are set.
*
* (status & 0x01) should always be the case except sometimes
* when using polled DMA.
*
* (status & 0x10) {transfer aborted}: This case needs more
* testing.
*/
bcom_retrieve_buffer(lpbfifo.bcom_cur_task, &status, NULL);
}
req->last_byte = ((u8 *)req->data)[req->size - 1];
/* When the do_callback flag is set; it means the transfer is finished
* so set the FIFO as idle */
if (do_callback)
lpbfifo.req = NULL;
if (irq != 0) /* don't increment on polled case */
req->irq_count++;
req->irq_ticks += get_tbl() - ts;
spin_unlock_irqrestore(&lpbfifo.lock, flags);
/* Spinlock is released; it is now safe to call the callback */
if (do_callback && req->callback)
req->callback(req);
return IRQ_HANDLED;
}
phys_size_t initdram(int board_type)
{
sdram_t *sdram = (sdram_t *)(MMAP_SDRAM);
gpio_t *gpio = (gpio_t *)(MMAP_GPIO);
u32 dramsize, i, dramclk;
/*
* When booting from external Flash, the port-size is less than
* the port-size of SDRAM. In this case it is necessary to enable
* Data[15:0] on Port Address/Data.
*/
out_8(&gpio->par_ad,
GPIO_PAR_AD_ADDR23 | GPIO_PAR_AD_ADDR22 | GPIO_PAR_AD_ADDR21 |
GPIO_PAR_AD_DATAL);
/* Initialize PAR to enable SDRAM signals */
out_8(&gpio->par_sdram,
GPIO_PAR_SDRAM_SDWE | GPIO_PAR_SDRAM_SCAS |
GPIO_PAR_SDRAM_SRAS | GPIO_PAR_SDRAM_SCKE |
GPIO_PAR_SDRAM_SDCS(3));
dramsize = CONFIG_SYS_SDRAM_SIZE * 0x100000;
for (i = 0x13; i < 0x20; i++) {
if (dramsize == (1 << i))
break;
}
i--;
if (!(in_be32(&sdram->dacr0) & SDRAMC_DARCn_RE)) {
dramclk = gd->bus_clk / (CONFIG_SYS_HZ * CONFIG_SYS_HZ);
/* Initialize DRAM Control Register: DCR */
out_be16(&sdram->dcr, SDRAMC_DCR_RTIM_9CLKS |
SDRAMC_DCR_RTIM_6CLKS |
SDRAMC_DCR_RC((15 * dramclk) >> 4));
/* Initialize DACR0 */
out_be32(&sdram->dacr0,
SDRAMC_DARCn_BA(CONFIG_SYS_SDRAM_BASE) |
SDRAMC_DARCn_CASL_C1 | SDRAMC_DARCn_CBM_CMD20 |
SDRAMC_DARCn_PS_32);
asm("nop");
/* Initialize DMR0 */
out_be32(&sdram->dmr0,
((dramsize - 1) & 0xFFFC0000) | SDRAMC_DMRn_V);
asm("nop");
/* Set IP (bit 3) in DACR */
setbits_be32(&sdram->dacr0, SDRAMC_DARCn_IP);
/* Wait 30ns to allow banks to precharge */
for (i = 0; i < 5; i++) {
asm("nop");
}
/* Write to this block to initiate precharge */
*(u32 *) (CONFIG_SYS_SDRAM_BASE) = 0xA5A59696;
/* Set RE (bit 15) in DACR */
setbits_be32(&sdram->dacr0, SDRAMC_DARCn_RE);
/* Wait for at least 8 auto refresh cycles to occur */
for (i = 0; i < 0x2000; i++) {
asm("nop");
}
/* Finish the configuration by issuing the MRS. */
setbits_be32(&sdram->dacr0, SDRAMC_DARCn_IMRS);
asm("nop");
/* Write to the SDRAM Mode Register */
*(u32 *) (CONFIG_SYS_SDRAM_BASE + 0x400) = 0xA5A59696;
}
static void restart(struct net_device *dev)
{
struct fs_enet_private *fep = netdev_priv(dev);
const struct fs_platform_info *fpi = fep->fpi;
fcc_t __iomem *fccp = fep->fcc.fccp;
fcc_c_t __iomem *fcccp = fep->fcc.fcccp;
fcc_enet_t __iomem *ep = fep->fcc.ep;
dma_addr_t rx_bd_base_phys, tx_bd_base_phys;
u16 paddrh, paddrm, paddrl;
const unsigned char *mac;
int i;
C32(fccp, fcc_gfmr, FCC_GFMR_ENR | FCC_GFMR_ENT);
/* clear everything (slow & steady does it) */
for (i = 0; i < sizeof(*ep); i++)
out_8((u8 __iomem *)ep + i, 0);
/* get physical address */
rx_bd_base_phys = fep->ring_mem_addr;
tx_bd_base_phys = rx_bd_base_phys + sizeof(cbd_t) * fpi->rx_ring;
/* point to bds */
W32(ep, fen_genfcc.fcc_rbase, rx_bd_base_phys);
W32(ep, fen_genfcc.fcc_tbase, tx_bd_base_phys);
/* Set maximum bytes per receive buffer.
* It must be a multiple of 32.
*/
W16(ep, fen_genfcc.fcc_mrblr, PKT_MAXBLR_SIZE);
W32(ep, fen_genfcc.fcc_rstate, (CPMFCR_GBL | CPMFCR_EB) << 24);
W32(ep, fen_genfcc.fcc_tstate, (CPMFCR_GBL | CPMFCR_EB) << 24);
/* Allocate space in the reserved FCC area of DPRAM for the
* internal buffers. No one uses this space (yet), so we
* can do this. Later, we will add resource management for
* this area.
*/
W16(ep, fen_genfcc.fcc_riptr, fpi->dpram_offset);
W16(ep, fen_genfcc.fcc_tiptr, fpi->dpram_offset + 32);
W16(ep, fen_padptr, fpi->dpram_offset + 64);
/* fill with special symbol... */
memset_io(fep->fcc.mem + fpi->dpram_offset + 64, 0x88, 32);
W32(ep, fen_genfcc.fcc_rbptr, 0);
W32(ep, fen_genfcc.fcc_tbptr, 0);
W32(ep, fen_genfcc.fcc_rcrc, 0);
W32(ep, fen_genfcc.fcc_tcrc, 0);
W16(ep, fen_genfcc.fcc_res1, 0);
W32(ep, fen_genfcc.fcc_res2, 0);
/* no CAM */
W32(ep, fen_camptr, 0);
/* Set CRC preset and mask */
W32(ep, fen_cmask, 0xdebb20e3);
W32(ep, fen_cpres, 0xffffffff);
W32(ep, fen_crcec, 0); /* CRC Error counter */
W32(ep, fen_alec, 0); /* alignment error counter */
W32(ep, fen_disfc, 0); /* discard frame counter */
W16(ep, fen_retlim, 15); /* Retry limit threshold */
W16(ep, fen_pper, 0); /* Normal persistence */
/* set group address */
W32(ep, fen_gaddrh, fep->fcc.gaddrh);
W32(ep, fen_gaddrl, fep->fcc.gaddrh);
/* Clear hash filter tables */
W32(ep, fen_iaddrh, 0);
W32(ep, fen_iaddrl, 0);
/* Clear the Out-of-sequence TxBD */
W16(ep, fen_tfcstat, 0);
W16(ep, fen_tfclen, 0);
W32(ep, fen_tfcptr, 0);
W16(ep, fen_mflr, PKT_MAXBUF_SIZE); /* maximum frame length register */
W16(ep, fen_minflr, PKT_MINBUF_SIZE); /* minimum frame length register */
/* set address */
mac = dev->dev_addr;
paddrh = ((u16)mac[5] << 8) | mac[4];
paddrm = ((u16)mac[3] << 8) | mac[2];
paddrl = ((u16)mac[1] << 8) | mac[0];
W16(ep, fen_paddrh, paddrh);
W16(ep, fen_paddrm, paddrm);
W16(ep, fen_paddrl, paddrl);
W16(ep, fen_taddrh, 0);
W16(ep, fen_taddrm, 0);
W16(ep, fen_taddrl, 0);
W16(ep, fen_maxd1, 1520); /* maximum DMA1 length */
W16(ep, fen_maxd2, 1520); /* maximum DMA2 length */
/* Clear stat counters, in case we ever enable RMON */
W32(ep, fen_octc, 0);
W32(ep, fen_colc, 0);
W32(ep, fen_broc, 0);
W32(ep, fen_mulc, 0);
W32(ep, fen_uspc, 0);
W32(ep, fen_frgc, 0);
W32(ep, fen_ospc, 0);
W32(ep, fen_jbrc, 0);
W32(ep, fen_p64c, 0);
W32(ep, fen_p65c, 0);
W32(ep, fen_p128c, 0);
W32(ep, fen_p256c, 0);
W32(ep, fen_p512c, 0);
W32(ep, fen_p1024c, 0);
W16(ep, fen_rfthr, 0); /* Suggested by manual */
W16(ep, fen_rfcnt, 0);
W16(ep, fen_cftype, 0);
fs_init_bds(dev);
/* adjust to speed (for RMII mode) */
if (fpi->use_rmii) {
if (fep->phydev->speed == 100)
C8(fcccp, fcc_gfemr, 0x20);
else
S8(fcccp, fcc_gfemr, 0x20);
}
fcc_cr_cmd(fep, CPM_CR_INIT_TRX);
/* clear events */
W16(fccp, fcc_fcce, 0xffff);
/* Enable interrupts we wish to service */
W16(fccp, fcc_fccm, FCC_ENET_TXE | FCC_ENET_RXF | FCC_ENET_TXB);
/* Set GFMR to enable Ethernet operating mode */
W32(fccp, fcc_gfmr, FCC_GFMR_TCI | FCC_GFMR_MODE_ENET);
/* set sync/delimiters */
W16(fccp, fcc_fdsr, 0xd555);
W32(fccp, fcc_fpsmr, FCC_PSMR_ENCRC);
if (fpi->use_rmii)
S32(fccp, fcc_fpsmr, FCC_PSMR_RMII);
/* adjust to duplex mode */
if (fep->phydev->duplex)
S32(fccp, fcc_fpsmr, FCC_PSMR_FDE | FCC_PSMR_LPB);
else
C32(fccp, fcc_fpsmr, FCC_PSMR_FDE | FCC_PSMR_LPB);
/* Restore multicast and promiscuous settings */
set_multicast_list(dev);
S32(fccp, fcc_gfmr, FCC_GFMR_ENR | FCC_GFMR_ENT);
}
/*
* Submitting a data frame to a specified endpoint of a USB device
* The frame is put in the driver's transmit queue for this endpoint
*
* Arguments:
* usb A pointer to the USB structure
* pkt A pointer to the user frame structure
* trans_type Transaction tyep - IN,OUT or SETUP
* dest_addr Device address - 0~127
* dest_ep Endpoint number of the device - 0~16
* trans_mode Pipe type - ISO,Interrupt,bulk or control
* dest_speed USB speed - Low speed or FULL speed
* data_toggle Data sequence toggle - 0 or 1
*/
u32 fhci_host_transaction(struct fhci_usb *usb,
struct packet *pkt,
enum fhci_ta_type trans_type,
u8 dest_addr,
u8 dest_ep,
enum fhci_tf_mode trans_mode,
enum fhci_speed dest_speed, u8 data_toggle)
{
struct endpoint *ep = usb->ep0;
struct usb_td __iomem *td;
u16 extra_data;
u16 td_status;
fhci_usb_disable_interrupt(usb);
/* start from the next BD that should be filled */
td = ep->empty_td;
td_status = in_be16(&td->status);
if (td_status & TD_R && in_be16(&td->length)) {
/* if the TD is not free */
fhci_usb_enable_interrupt(usb);
return -1;
}
/* get the next TD in the ring */
ep->empty_td = next_bd(ep->td_base, ep->empty_td, td_status);
fhci_usb_enable_interrupt(usb);
pkt->priv_data = td;
out_be32(&td->buf_ptr, virt_to_phys(pkt->data));
/* sets up transaction parameters - addr,endp,dir,and type */
extra_data = (dest_ep << TD_ENDP_SHIFT) | dest_addr;
switch (trans_type) {
case FHCI_TA_IN:
extra_data |= TD_TOK_IN;
break;
case FHCI_TA_OUT:
extra_data |= TD_TOK_OUT;
break;
case FHCI_TA_SETUP:
extra_data |= TD_TOK_SETUP;
break;
}
if (trans_mode == FHCI_TF_ISO)
extra_data |= TD_ISO;
out_be16(&td->extra, extra_data);
/* sets up the buffer descriptor */
td_status = ((td_status & TD_W) | TD_R | TD_L | TD_I | TD_CNF);
if (!(pkt->info & PKT_NO_CRC))
td_status |= TD_TC;
switch (trans_type) {
case FHCI_TA_IN:
if (data_toggle)
pkt->info |= PKT_PID_DATA1;
else
pkt->info |= PKT_PID_DATA0;
break;
default:
if (data_toggle) {
td_status |= TD_PID_DATA1;
pkt->info |= PKT_PID_DATA1;
} else {
td_status |= TD_PID_DATA0;
pkt->info |= PKT_PID_DATA0;
}
break;
}
if ((dest_speed == FHCI_LOW_SPEED) &&
(usb->port_status == FHCI_PORT_FULL))
td_status |= TD_LSP;
out_be16(&td->status, td_status);
/* set up buffer length */
if (trans_type == FHCI_TA_IN)
out_be16(&td->length, pkt->len + CRC_SIZE);
else
out_be16(&td->length, pkt->len);
/* put the frame to the confirmation queue */
cq_put(ep->conf_frame_Q, pkt);
if (cq_howmany(ep->conf_frame_Q) == 1)
out_8(&usb->fhci->regs->usb_comm, USB_CMD_STR_FIFO);
return 0;
}
void ppc440spe_setup_pcie_rootpoint(struct pci_controller *hose, int port)
{
volatile void *mbase = NULL;
volatile void *rmbase = NULL;
pci_set_ops(hose,
pcie_read_config_byte,
pcie_read_config_word,
pcie_read_config_dword,
pcie_write_config_byte,
pcie_write_config_word,
pcie_write_config_dword);
switch (port) {
case 0:
mbase = (u32 *)CFG_PCIE0_XCFGBASE;
rmbase = (u32 *)CFG_PCIE0_CFGBASE;
hose->cfg_data = (u8 *)CFG_PCIE0_CFGBASE;
break;
case 1:
mbase = (u32 *)CFG_PCIE1_XCFGBASE;
rmbase = (u32 *)CFG_PCIE1_CFGBASE;
hose->cfg_data = (u8 *)CFG_PCIE1_CFGBASE;
break;
case 2:
mbase = (u32 *)CFG_PCIE2_XCFGBASE;
rmbase = (u32 *)CFG_PCIE2_CFGBASE;
hose->cfg_data = (u8 *)CFG_PCIE2_CFGBASE;
break;
}
/*
* Set bus numbers on our root port
*/
out_8((u8 *)mbase + PCI_PRIMARY_BUS, 0);
out_8((u8 *)mbase + PCI_SECONDARY_BUS, 1);
out_8((u8 *)mbase + PCI_SUBORDINATE_BUS, 1);
/*
* Set up outbound translation to hose->mem_space from PLB
* addresses at an offset of 0xd_0000_0000. We set the low
* bits of the mask to 11 to turn off splitting into 8
* subregions and to enable the outbound translation.
*/
out_le32(mbase + PECFG_POM0LAH, 0x00000000);
out_le32(mbase + PECFG_POM0LAL, 0x00000000);
switch (port) {
case 0:
mtdcr(DCRN_PEGPL_OMR1BAH(PCIE0), 0x0000000d);
mtdcr(DCRN_PEGPL_OMR1BAL(PCIE0), CFG_PCIE_MEMBASE +
port * CFG_PCIE_MEMSIZE);
mtdcr(DCRN_PEGPL_OMR1MSKH(PCIE0), 0x7fffffff);
mtdcr(DCRN_PEGPL_OMR1MSKL(PCIE0),
~(CFG_PCIE_MEMSIZE - 1) | 3);
break;
case 1:
mtdcr(DCRN_PEGPL_OMR1BAH(PCIE1), 0x0000000d);
mtdcr(DCRN_PEGPL_OMR1BAL(PCIE1), (CFG_PCIE_MEMBASE +
port * CFG_PCIE_MEMSIZE));
mtdcr(DCRN_PEGPL_OMR1MSKH(PCIE1), 0x7fffffff);
mtdcr(DCRN_PEGPL_OMR1MSKL(PCIE1),
~(CFG_PCIE_MEMSIZE - 1) | 3);
break;
case 2:
mtdcr(DCRN_PEGPL_OMR1BAH(PCIE2), 0x0000000d);
mtdcr(DCRN_PEGPL_OMR1BAL(PCIE2), (CFG_PCIE_MEMBASE +
port * CFG_PCIE_MEMSIZE));
mtdcr(DCRN_PEGPL_OMR1MSKH(PCIE2), 0x7fffffff);
mtdcr(DCRN_PEGPL_OMR1MSKL(PCIE2),
~(CFG_PCIE_MEMSIZE - 1) | 3);
break;
}
/* Set up 16GB inbound memory window at 0 */
out_le32(mbase + PCI_BASE_ADDRESS_0, 0);
out_le32(mbase + PCI_BASE_ADDRESS_1, 0);
out_le32(mbase + PECFG_BAR0HMPA, 0x7fffffc);
out_le32(mbase + PECFG_BAR0LMPA, 0);
out_le32(mbase + PECFG_PIM01SAH, 0xffff0000);
out_le32(mbase + PECFG_PIM01SAL, 0x00000000);
out_le32(mbase + PECFG_PIM0LAL, 0);
out_le32(mbase + PECFG_PIM0LAH, 0);
out_le32(mbase + PECFG_PIM1LAL, 0x00000000);
out_le32(mbase + PECFG_PIM1LAH, 0x00000004);
out_le32(mbase + PECFG_PIMEN, 0x1);
/* Enable I/O, Mem, and Busmaster cycles */
out_le16((u16 *)(mbase + PCI_COMMAND),
in_le16((u16 *)(mbase + PCI_COMMAND)) |
PCI_COMMAND_IO | PCI_COMMAND_MEMORY | PCI_COMMAND_MASTER);
printf("PCIE:%d successfully set as rootpoint\n",port);
}
static void mpc52xx_psc_write_char(struct uart_port *port, unsigned char c)
{
out_8(&PSC(port)->mpc52xx_psc_buffer_8, c);
}
/*
* Simple board reset.
*/
void pixis_reset(void)
{
u8 *pixis_base = (u8 *)PIXIS_BASE;
out_8(pixis_base + PIXIS_RST, 0);
}
static void mpc512x_psc_write_char(struct uart_port *port, unsigned char c)
{
out_8(&FIFO_512x(port)->txdata_8, c);
}
phys_size_t initdram(int board_type)
{
u32 dramsize;
#if defined(CONFIG_SERIAL_BOOT)
/*
* Serial Boot: The dram is already initialized in start.S
* only require to return DRAM size
*/
dramsize = CONFIG_SYS_SDRAM_SIZE * 0x100000;
#else
sdramc_t *sdram = (sdramc_t *)(MMAP_SDRAM);
ccm_t *ccm = (ccm_t *)MMAP_CCM;
gpio_t *gpio = (gpio_t *) MMAP_GPIO;
pm_t *pm = (pm_t *) MMAP_PM;
u32 i;
dramsize = CONFIG_SYS_SDRAM_SIZE * 0x100000;
for (i = 0x13; i < 0x20; i++) {
if (dramsize == (1 << i))
break;
}
out_8(&pm->pmcr0, 0x2E);
out_8(&gpio->mscr_sdram, 1);
clrbits_be16(&ccm->misccr2, CCM_MISCCR2_FBHALF);
setbits_be16(&ccm->misccr2, CCM_MISCCR2_DDR2CLK);
out_be32(&sdram->rcrcr, 0x40000000);
out_be32(&sdram->padcr, 0x01030203);
out_be32(&sdram->cr00, 0x01010101);
out_be32(&sdram->cr01, 0x00000101);
out_be32(&sdram->cr02, 0x01010100);
out_be32(&sdram->cr03, 0x01010000);
out_be32(&sdram->cr04, 0x00010101);
out_be32(&sdram->cr06, 0x00010100);
out_be32(&sdram->cr07, 0x00000001);
out_be32(&sdram->cr08, 0x01000001);
out_be32(&sdram->cr09, 0x00000100);
out_be32(&sdram->cr10, 0x00010001);
out_be32(&sdram->cr11, 0x00000200);
out_be32(&sdram->cr12, 0x01000002);
out_be32(&sdram->cr13, 0x00000000);
out_be32(&sdram->cr14, 0x00000100);
out_be32(&sdram->cr15, 0x02000100);
out_be32(&sdram->cr16, 0x02000407);
out_be32(&sdram->cr17, 0x02030007);
out_be32(&sdram->cr18, 0x02000100);
out_be32(&sdram->cr19, 0x0A030203);
out_be32(&sdram->cr20, 0x00020708);
out_be32(&sdram->cr21, 0x00050008);
out_be32(&sdram->cr22, 0x04030002);
out_be32(&sdram->cr23, 0x00000004);
out_be32(&sdram->cr24, 0x020A0000);
out_be32(&sdram->cr25, 0x0C00000E);
out_be32(&sdram->cr26, 0x00002004);
out_be32(&sdram->cr28, 0x00100010);
out_be32(&sdram->cr29, 0x00100010);
out_be32(&sdram->cr31, 0x07990000);
out_be32(&sdram->cr40, 0x00000000);
out_be32(&sdram->cr41, 0x00C80064);
out_be32(&sdram->cr42, 0x44520002);
out_be32(&sdram->cr43, 0x00C80023);
out_be32(&sdram->cr45, 0x0000C350);
out_be32(&sdram->cr56, 0x04000000);
out_be32(&sdram->cr57, 0x03000304);
out_be32(&sdram->cr58, 0x40040000);
out_be32(&sdram->cr59, 0xC0004004);
out_be32(&sdram->cr60, 0x0642C000);
out_be32(&sdram->cr61, 0x00000642);
asm("tpf");
out_be32(&sdram->cr09, 0x01000100);
udelay(100);
#endif
return dramsize;
};
static irqreturn_t swim3_interrupt(int irq, void *dev_id)
{
struct floppy_state *fs = (struct floppy_state *) dev_id;
struct swim3 __iomem *sw = fs->swim3;
int intr, err, n;
int stat, resid;
struct dbdma_regs __iomem *dr;
struct dbdma_cmd *cp;
unsigned long flags;
struct request *req = fs->cur_req;
swim3_dbg("* interrupt, state=%d\n", fs->state);
spin_lock_irqsave(&swim3_lock, flags);
intr = in_8(&sw->intr);
err = (intr & ERROR_INTR)? in_8(&sw->error): 0;
if ((intr & ERROR_INTR) && fs->state != do_transfer)
swim3_err("Non-transfer error interrupt: state=%d, dir=%x, intr=%x, err=%x\n",
fs->state, rq_data_dir(req), intr, err);
switch (fs->state) {
case locating:
if (intr & SEEN_SECTOR) {
out_8(&sw->control_bic, DO_ACTION | WRITE_SECTORS);
out_8(&sw->select, RELAX);
out_8(&sw->intr_enable, 0);
del_timer(&fs->timeout);
fs->timeout_pending = 0;
if (sw->ctrack == 0xff) {
swim3_err("%s", "Seen sector but cyl=ff?\n");
fs->cur_cyl = -1;
if (fs->retries > 5) {
swim3_end_request(fs, -EIO, 0);
fs->state = idle;
start_request(fs);
} else {
fs->state = jogging;
act(fs);
}
break;
}
fs->cur_cyl = sw->ctrack;
fs->cur_sector = sw->csect;
if (fs->expect_cyl != -1 && fs->expect_cyl != fs->cur_cyl)
swim3_err("Expected cyl %d, got %d\n",
fs->expect_cyl, fs->cur_cyl);
fs->state = do_transfer;
act(fs);
}
break;
case seeking:
case jogging:
if (sw->nseek == 0) {
out_8(&sw->control_bic, DO_SEEK);
out_8(&sw->select, RELAX);
out_8(&sw->intr_enable, 0);
del_timer(&fs->timeout);
fs->timeout_pending = 0;
if (fs->state == seeking)
++fs->retries;
fs->state = settling;
act(fs);
}
break;
case settling:
out_8(&sw->intr_enable, 0);
del_timer(&fs->timeout);
fs->timeout_pending = 0;
act(fs);
break;
case do_transfer:
if ((intr & (ERROR_INTR | TRANSFER_DONE)) == 0)
break;
out_8(&sw->intr_enable, 0);
out_8(&sw->control_bic, WRITE_SECTORS | DO_ACTION);
out_8(&sw->select, RELAX);
del_timer(&fs->timeout);
fs->timeout_pending = 0;
dr = fs->dma;
cp = fs->dma_cmd;
if (rq_data_dir(req) == WRITE)
++cp;
/*
* Check that the main data transfer has finished.
* On writing, the swim3 sometimes doesn't use
* up all the bytes of the postamble, so we can still
* see DMA active here. That doesn't matter as long
* as all the sector data has been transferred.
*/
if ((intr & ERROR_INTR) == 0 && cp->xfer_status == 0) {
/* wait a little while for DMA to complete */
for (n = 0; n < 100; ++n) {
if (cp->xfer_status != 0)
break;
udelay(1);
barrier();
}
}
/* turn off DMA */
out_le32(&dr->control, (RUN | PAUSE) << 16);
stat = ld_le16(&cp->xfer_status);
resid = ld_le16(&cp->res_count);
if (intr & ERROR_INTR) {
n = fs->scount - 1 - resid / 512;
if (n > 0) {
blk_update_request(req, 0, n << 9);
fs->req_sector += n;
}
if (fs->retries < 5) {
++fs->retries;
act(fs);
} else {
swim3_err("Error %sing block %ld (err=%x)\n",
rq_data_dir(req) == WRITE? "writ": "read",
(long)blk_rq_pos(req), err);
swim3_end_request(fs, -EIO, 0);
fs->state = idle;
}
} else {
if ((stat & ACTIVE) == 0 || resid != 0) {
/* musta been an error */
swim3_err("fd dma error: stat=%x resid=%d\n", stat, resid);
swim3_err(" state=%d, dir=%x, intr=%x, err=%x\n",
fs->state, rq_data_dir(req), intr, err);
swim3_end_request(fs, -EIO, 0);
fs->state = idle;
start_request(fs);
break;
}
fs->retries = 0;
if (swim3_end_request(fs, 0, fs->scount << 9)) {
fs->req_sector += fs->scount;
if (fs->req_sector > fs->secpertrack) {
fs->req_sector -= fs->secpertrack;
if (++fs->head > 1) {
fs->head = 0;
++fs->req_cyl;
}
}
act(fs);
} else
fs->state = idle;
}
if (fs->state == idle)
start_request(fs);
break;
default:
swim3_err("Don't know what to do in state %d\n", fs->state);
}
spin_unlock_irqrestore(&swim3_lock, flags);
return IRQ_HANDLED;
}
static inline void
uwrite(int uart, int reg, unsigned int val)
{
out_8((uint8_t*)(uart_data[uart].ioBase + reg), val);
}
static int floppy_open(struct block_device *bdev, fmode_t mode)
{
struct floppy_state *fs = bdev->bd_disk->private_data;
struct swim3 __iomem *sw = fs->swim3;
int n, err = 0;
if (fs->ref_count == 0) {
if (fs->mdev->media_bay &&
check_media_bay(fs->mdev->media_bay) != MB_FD)
return -ENXIO;
out_8(&sw->setup, S_IBM_DRIVE | S_FCLK_DIV2);
out_8(&sw->control_bic, 0xff);
out_8(&sw->mode, 0x95);
udelay(10);
out_8(&sw->intr_enable, 0);
out_8(&sw->control_bis, DRIVE_ENABLE | INTR_ENABLE);
swim3_action(fs, MOTOR_ON);
fs->write_prot = -1;
fs->cur_cyl = -1;
for (n = 0; n < 2 * HZ; ++n) {
if (n >= HZ/30 && swim3_readbit(fs, SEEK_COMPLETE))
break;
if (signal_pending(current)) {
err = -EINTR;
break;
}
swim3_select(fs, RELAX);
schedule_timeout_interruptible(1);
}
if (err == 0 && (swim3_readbit(fs, SEEK_COMPLETE) == 0
|| swim3_readbit(fs, DISK_IN) == 0))
err = -ENXIO;
swim3_action(fs, SETMFM);
swim3_select(fs, RELAX);
} else if (fs->ref_count == -1 || mode & FMODE_EXCL)
return -EBUSY;
if (err == 0 && (mode & FMODE_NDELAY) == 0
&& (mode & (FMODE_READ|FMODE_WRITE))) {
check_disk_change(bdev);
if (fs->ejected)
err = -ENXIO;
}
if (err == 0 && (mode & FMODE_WRITE)) {
if (fs->write_prot < 0)
fs->write_prot = swim3_readbit(fs, WRITE_PROT);
if (fs->write_prot)
err = -EROFS;
}
if (err) {
if (fs->ref_count == 0) {
swim3_action(fs, MOTOR_OFF);
out_8(&sw->control_bic, DRIVE_ENABLE | INTR_ENABLE);
swim3_select(fs, RELAX);
}
return err;
}
if (mode & FMODE_EXCL)
fs->ref_count = -1;
else
++fs->ref_count;
return 0;
}
static void lcd_bl_ctrl(char val)
{
out_8((u8 *) LCD_BLK_CTRL, in_8((u8 *) LCD_BLK_CTRL) | val);
}
static void uec_init_rx_parameter(uec_private_t *uec, int num_threads_rx)
{
u8 bmrx = 0;
int i;
uec_82xx_address_filtering_pram_t *p_af_pram;
/* Allocate global Rx parameter RAM page */
uec->rx_glbl_pram_offset = qe_muram_alloc(
sizeof(uec_rx_global_pram_t), UEC_RX_GLOBAL_PRAM_ALIGNMENT);
uec->p_rx_glbl_pram = (uec_rx_global_pram_t *)
qe_muram_addr(uec->rx_glbl_pram_offset);
/* Zero Global Rx parameter RAM */
memset(uec->p_rx_glbl_pram, 0, sizeof(uec_rx_global_pram_t));
/* Init global Rx parameter RAM */
/* REMODER, Extended feature mode disable, VLAN disable,
LossLess flow control disable, Receive firmware statisic disable,
Extended address parsing mode disable, One Rx queues,
Dynamic maximum/minimum frame length disable, IP checksum check
disable, IP address alignment disable
*/
out_be32(&uec->p_rx_glbl_pram->remoder, REMODER_INIT_VALUE);
/* RQPTR */
uec->thread_dat_rx_offset = qe_muram_alloc(
num_threads_rx * sizeof(uec_thread_data_rx_t),
UEC_THREAD_DATA_ALIGNMENT);
uec->p_thread_data_rx = (uec_thread_data_rx_t *)
qe_muram_addr(uec->thread_dat_rx_offset);
out_be32(&uec->p_rx_glbl_pram->rqptr, uec->thread_dat_rx_offset);
/* Type_or_Len */
out_be16(&uec->p_rx_glbl_pram->typeorlen, 3072);
/* RxRMON base pointer, we don't need it */
out_be32(&uec->p_rx_glbl_pram->rxrmonbaseptr, 0);
/* IntCoalescingPTR, we don't need it, no interrupt */
out_be32(&uec->p_rx_glbl_pram->intcoalescingptr, 0);
/* RSTATE, global snooping, big endian, the CSB bus selected */
bmrx = BMR_INIT_VALUE;
out_8(&uec->p_rx_glbl_pram->rstate, bmrx);
/* MRBLR */
out_be16(&uec->p_rx_glbl_pram->mrblr, MAX_RXBUF_LEN);
/* RBDQPTR */
uec->rx_bd_qs_tbl_offset = qe_muram_alloc(
sizeof(uec_rx_bd_queues_entry_t) + \
sizeof(uec_rx_prefetched_bds_t),
UEC_RX_BD_QUEUES_ALIGNMENT);
uec->p_rx_bd_qs_tbl = (uec_rx_bd_queues_entry_t *)
qe_muram_addr(uec->rx_bd_qs_tbl_offset);
/* Zero it */
memset(uec->p_rx_bd_qs_tbl, 0, sizeof(uec_rx_bd_queues_entry_t) + \
sizeof(uec_rx_prefetched_bds_t));
out_be32(&uec->p_rx_glbl_pram->rbdqptr, uec->rx_bd_qs_tbl_offset);
out_be32(&uec->p_rx_bd_qs_tbl->externalbdbaseptr,
(u32)uec->p_rx_bd_ring);
/* MFLR */
out_be16(&uec->p_rx_glbl_pram->mflr, MAX_FRAME_LEN);
/* MINFLR */
out_be16(&uec->p_rx_glbl_pram->minflr, MIN_FRAME_LEN);
/* MAXD1 */
out_be16(&uec->p_rx_glbl_pram->maxd1, MAX_DMA1_LEN);
/* MAXD2 */
out_be16(&uec->p_rx_glbl_pram->maxd2, MAX_DMA2_LEN);
/* ECAM_PTR */
out_be32(&uec->p_rx_glbl_pram->ecamptr, 0);
/* L2QT */
out_be32(&uec->p_rx_glbl_pram->l2qt, 0);
/* L3QT */
for (i = 0; i < 8; i++) {
out_be32(&uec->p_rx_glbl_pram->l3qt[i], 0);
}
/* VLAN_TYPE */
out_be16(&uec->p_rx_glbl_pram->vlantype, 0x8100);
/* TCI */
out_be16(&uec->p_rx_glbl_pram->vlantci, 0);
/* Clear PQ2 style address filtering hash table */
p_af_pram = (uec_82xx_address_filtering_pram_t *) \
uec->p_rx_glbl_pram->addressfiltering;
p_af_pram->iaddr_h = 0;
p_af_pram->iaddr_l = 0;
p_af_pram->gaddr_h = 0;
p_af_pram->gaddr_l = 0;
}
