static const unsigned char ce_ata_nf_ctrl_Pins[4] = { 'C', 'C', 'D', 'A' }; //only INTA
static const unsigned char idePins[4] = { 'B', 'C', 'D', 'A' }; //only INTA
-static const unsigned char usbPins[4] = { 'A', 'B', 'C', 'D' }; //all 4
+static const unsigned char usbPins[4] = { 'A', 'B', 'C', 'D' }; //all 4
-static const unsigned char hdacaudioPins[4] = { 'B', 'C', 'D', 'A' }; //only INTA
+static const unsigned char hdacaudioPins[4] = { 'B', 'C', 'D', 'A' }; //only INTA
static unsigned char *pin_to_irq(const unsigned char *pin)
{
static void pci_routing_fixup(struct device *dev)
{
- printk_info("%s: dev is %p\n", __FUNCTION__, dev);
+ printk(BIOS_INFO, "%s: dev is %p\n", __FUNCTION__, dev);
/* set up PCI IRQ routing */
pci_write_config8(dev, 0x55, pciIrqs[0] << 4);
pci_write_config8(dev, 0x57, pciIrqs[3] << 4);
/* VGA */
- printk_info("setting vga\n");
+ printk(BIOS_INFO, "setting vga\n");
pci_assign_irqs(0, 0x1, pin_to_irq(vgaPins));
/* PCI slot */
- printk_info("setting pci slot\n");
+ printk(BIOS_INFO, "setting pci slot\n");
pci_assign_irqs(0, 0x08, pin_to_irq(slotPins));
/* PCI slot */
- printk_info("setting USB Device Controller\n");
+ printk(BIOS_INFO, "setting USB Device Controller\n");
pci_assign_irqs(0, 0x0b, pin_to_irq(usbdevicePins));
/* PCI slot */
- printk_info("setting SDIO Controller\n");
+ printk(BIOS_INFO, "setting SDIO Controller\n");
pci_assign_irqs(0, 0x0c, pin_to_irq(sdioPins));
/* PCI slot */
- printk_info("setting SD $ MS Controller\n");
+ printk(BIOS_INFO, "setting SD $ MS Controller\n");
pci_assign_irqs(0, 0x0d, pin_to_irq(sd_ms_ctrl_Pins));
/* PCI slot */
- printk_info("setting CE-ATA NF Controller(Card Boot)\n");
+ printk(BIOS_INFO, "setting CE-ATA NF Controller(Card Boot)\n");
pci_assign_irqs(0, 0x0e, pin_to_irq(ce_ata_nf_ctrl_Pins));
/* PCI slot */
- printk_info("setting ide\n");
+ printk(BIOS_INFO, "setting ide\n");
//pci_assign_irqs(0, 0x0f, pin_to_irq(idePins));
/* Standard usb components */
- printk_info("setting usb1-2\n");
+ printk(BIOS_INFO, "setting usb1-2\n");
// pci_assign_irqs(0, 0x10, pin_to_irq(usbPins));
/* sound hardware */
- printk_info("setting hdac audio\n");
+ printk(BIOS_INFO, "setting hdac audio\n");
pci_assign_irqs(0, 0x14, pin_to_irq(hdacaudioPins));
- printk_spew("%s: DONE\n", __FUNCTION__);
+ printk(BIOS_SPEW, "%s: DONE\n", __FUNCTION__);
}
-void setup_pm(device_t dev)
+static void setup_pm(device_t dev)
{
u16 tmp;
/* Debounce LID and PWRBTN# Inputs for 16ms. */
*/
}
-void S3_ps2_kb_ms_wakeup(struct device *dev)
+static void S3_ps2_kb_ms_wakeup(struct device *dev)
{
u8 enables;
enables = pci_read_config8(dev, 0x51);
pci_write_config8(dev, 0x51, enables);
outb(inb(VX800_ACPI_IO_BASE + 0x02) | 0x20, VX800_ACPI_IO_BASE + 0x02); //ACPI golabe enable for sci smi trigger
- outw(inw(VX800_ACPI_IO_BASE + 0x22) | 0x204, VX800_ACPI_IO_BASE + 0x22); //ACPI SCI on Internal KBC PME and mouse PME
+ outw(inw(VX800_ACPI_IO_BASE + 0x22) | 0x204, VX800_ACPI_IO_BASE + 0x22); //ACPI SCI on Internal KBC PME and mouse PME
}
-void S3_usb_wakeup(struct device *dev)
+static void S3_usb_wakeup(struct device *dev)
{
outw(inw(VX800_ACPI_IO_BASE + 0x22) | 0x4000, VX800_ACPI_IO_BASE + 0x22); //SCI on USB PME
}
-void S3_lid_wakeup(struct device *dev)
+static void S3_lid_wakeup(struct device *dev)
{
outw(inw(VX800_ACPI_IO_BASE + 0x22) | 0x800, VX800_ACPI_IO_BASE + 0x22); //SCI on LID PME
}
/* total kludge to get lxb to call our childrens set/enable functions - these are
not called unless this device has a resource to set - so set a dummy one */
-void vx800_read_resources(device_t dev)
+static void vx800_read_resources(device_t dev)
{
struct resource *resource;
IORESOURCE_STORED;
resource->size = 2;
resource->base = 0x2e;
-
}
-void vx800_set_resources(device_t dev)
+static void vx800_set_resources(device_t dev)
{
struct resource *resource;
resource = find_resource(dev, 1);
pci_dev_set_resources(dev);
}
-void vx800_enable_resources(device_t dev)
+static void vx800_enable_resources(device_t dev)
{
/* vx800 is not a pci bridge and has no resources of its own (other than
standard PC i/o addresses). however it does control the isa bus and so
static void southbridge_init(struct device *dev)
{
- printk_debug("vx800 sb init\n");
+ printk(BIOS_DEBUG, "vx800 sb init\n");
vx800_sb_init(dev);
pci_routing_fixup(dev);
/* turn on keyboard and RTC, no need to visit this reg twice */
pc_keyboard_init(0);
- printk_debug
- ("ps2 usb lid, you set who can wakeup system from s3 sleep\n");
+ printk(BIOS_DEBUG, "ps2 usb lid, you set who can wakeup system from s3 sleep\n");
S3_ps2_kb_ms_wakeup(dev);
S3_usb_wakeup(dev);
fadt->pm2_cnt_len = 1;//to support cpu-c3
#2
ssdt? ->every cpu has a P_BLK address. set it to 0x10 (so that "Read Processor Level3 register(PMIORx15<7:0>) to enter C3 state"---VIA vx800 P SPEC )
- #3 write 0x17 in to PMIO=VX800_ACPI_IO_BASE + 0x26, following the describtion in the P-spec.
+ #3 write 0x17 in to PMIO=VX800_ACPI_IO_BASE + 0x26, following the describtion in the P-spec.
1 enable SLP# asserts in C3 state PMIORx26<1> =1
2 enable CPUSTP# asserts in C3 state; PMIORx26<2> =1
3 CLKRUN# is always asserted PMIORx26<3> =0
- 4 Disable PCISTP# When CLKRUN# is asserted
- 1: PCISTP# will not assert When CLKRUN# is asserted
+ 4 Disable PCISTP# When CLKRUN# is asserted
+ 1: PCISTP# will not assert When CLKRUN# is asserted
PMIORx26<4> =1
- 5 This bit controls whether the CPU voltage is lowered when in C3/S1 state.
- VRDSLP will be active in either this bit set in C3 or LVL4 register read
+ 5 This bit controls whether the CPU voltage is lowered when in C3/S1 state.
+ VRDSLP will be active in either this bit set in C3 or LVL4 register read
PMIORx26<0> =0
- 6 Read Processor Level3 register(PMIORx15<7:0>) to enter C3 state PMIORx15
+ 6 Read Processor Level3 register(PMIORx15<7:0>) to enter C3 state PMIORx15
*/
outb(0x17, VX800_ACPI_IO_BASE + 0x26);
projects / coreboot.git / blobdiff