# endif
static inline void add_usec_to_timer(struct timer_list *t, long v)
{
- t->sub_expires += nsec_to_arch_cycle(v * 1000);
- while (t->sub_expires >= arch_cycles_per_jiffy)
+ t->arch_cycle_expires += nsec_to_arch_cycle(v * 1000);
+ while (t->arch_cycle_expires >= arch_cycles_per_jiffy)
{
t->expires++;
- t->sub_expires -= arch_cycles_per_jiffy;
+ t->arch_cycle_expires -= arch_cycles_per_jiffy;
}
}
#endif
#include <asm/io.h>
#include "ipmi_si_sm.h"
#include <linux/init.h>
-
-#define IPMI_SI_VERSION "v33"
+#include <linux/dmi.h>
/* Measure times between events in the driver. */
#undef DEBUG_TIMING
SI_KCS, SI_SMIC, SI_BT
};
+struct ipmi_device_id {
+ unsigned char device_id;
+ unsigned char device_revision;
+ unsigned char firmware_revision_1;
+ unsigned char firmware_revision_2;
+ unsigned char ipmi_version;
+ unsigned char additional_device_support;
+ unsigned char manufacturer_id[3];
+ unsigned char product_id[2];
+ unsigned char aux_firmware_revision[4];
+} __attribute__((packed));
+
+#define ipmi_version_major(v) ((v)->ipmi_version & 0xf)
+#define ipmi_version_minor(v) ((v)->ipmi_version >> 4)
+
struct smi_info
{
ipmi_smi_t intf;
void (*irq_cleanup)(struct smi_info *info);
unsigned int io_size;
+ /* Per-OEM handler, called from handle_flags().
+ Returns 1 when handle_flags() needs to be re-run
+ or 0 indicating it set si_state itself.
+ */
+ int (*oem_data_avail_handler)(struct smi_info *smi_info);
+
/* Flags from the last GET_MSG_FLAGS command, used when an ATTN
is set to hold the flags until we are done handling everything
from the flags. */
#define RECEIVE_MSG_AVAIL 0x01
#define EVENT_MSG_BUFFER_FULL 0x02
#define WDT_PRE_TIMEOUT_INT 0x08
+#define OEM0_DATA_AVAIL 0x20
+#define OEM1_DATA_AVAIL 0x40
+#define OEM2_DATA_AVAIL 0x80
+#define OEM_DATA_AVAIL (OEM0_DATA_AVAIL | \
+ OEM1_DATA_AVAIL | \
+ OEM2_DATA_AVAIL)
unsigned char msg_flags;
/* If set to true, this will request events the next time the
interrupts. */
int interrupt_disabled;
- unsigned char ipmi_si_dev_rev;
- unsigned char ipmi_si_fw_rev_major;
- unsigned char ipmi_si_fw_rev_minor;
- unsigned char ipmi_version_major;
- unsigned char ipmi_version_minor;
+ struct ipmi_device_id device_id;
/* Slave address, could be reported from DMI. */
unsigned char slave_addr;
entry = smi_info->xmit_msgs.next;
}
- if (!entry) {
+ if (! entry) {
smi_info->curr_msg = NULL;
rv = SI_SM_IDLE;
} else {
memory, we will re-enable the interrupt. */
static inline void disable_si_irq(struct smi_info *smi_info)
{
- if ((smi_info->irq) && (!smi_info->interrupt_disabled)) {
+ if ((smi_info->irq) && (! smi_info->interrupt_disabled)) {
disable_irq_nosync(smi_info->irq);
smi_info->interrupt_disabled = 1;
}
static void handle_flags(struct smi_info *smi_info)
{
+ retry:
if (smi_info->msg_flags & WDT_PRE_TIMEOUT_INT) {
/* Watchdog pre-timeout */
spin_lock(&smi_info->count_lock);
} else if (smi_info->msg_flags & RECEIVE_MSG_AVAIL) {
/* Messages available. */
smi_info->curr_msg = ipmi_alloc_smi_msg();
- if (!smi_info->curr_msg) {
+ if (! smi_info->curr_msg) {
disable_si_irq(smi_info);
smi_info->si_state = SI_NORMAL;
return;
} else if (smi_info->msg_flags & EVENT_MSG_BUFFER_FULL) {
/* Events available. */
smi_info->curr_msg = ipmi_alloc_smi_msg();
- if (!smi_info->curr_msg) {
+ if (! smi_info->curr_msg) {
disable_si_irq(smi_info);
smi_info->si_state = SI_NORMAL;
return;
smi_info->curr_msg->data,
smi_info->curr_msg->data_size);
smi_info->si_state = SI_GETTING_EVENTS;
+ } else if (smi_info->msg_flags & OEM_DATA_AVAIL) {
+ if (smi_info->oem_data_avail_handler)
+ if (smi_info->oem_data_avail_handler(smi_info))
+ goto retry;
} else {
smi_info->si_state = SI_NORMAL;
}
#endif
switch (smi_info->si_state) {
case SI_NORMAL:
- if (!smi_info->curr_msg)
+ if (! smi_info->curr_msg)
break;
smi_info->curr_msg->rsp_size
#if defined(CONFIG_HIGH_RES_TIMERS)
unsigned long flags;
unsigned long jiffies_now;
+ unsigned long seq;
if (del_timer(&(smi_info->si_timer))) {
/* If we don't delete the timer, then it will go off
immediately, anyway. So we only process if we
actually delete the timer. */
- /* We already have irqsave on, so no need for it
- here. */
- read_lock(&xtime_lock);
- jiffies_now = jiffies;
- smi_info->si_timer.expires = jiffies_now;
- smi_info->si_timer.sub_expires = get_arch_cycles(jiffies_now);
+ do {
+ seq = read_seqbegin_irqsave(&xtime_lock, flags);
+ jiffies_now = jiffies;
+ smi_info->si_timer.expires = jiffies_now;
+ smi_info->si_timer.arch_cycle_expires
+ = get_arch_cycles(jiffies_now);
+ } while (read_seqretry_irqrestore(&xtime_lock, seq, flags));
add_usec_to_timer(&smi_info->si_timer, SI_SHORT_TIMEOUT_USEC);
/* If the state machine asks for a short delay, then shorten
the timer timeout. */
if (smi_result == SI_SM_CALL_WITH_DELAY) {
+#if defined(CONFIG_HIGH_RES_TIMERS)
+ unsigned long seq;
+#endif
spin_lock_irqsave(&smi_info->count_lock, flags);
smi_info->short_timeouts++;
spin_unlock_irqrestore(&smi_info->count_lock, flags);
#if defined(CONFIG_HIGH_RES_TIMERS)
- read_lock(&xtime_lock);
- smi_info->si_timer.expires = jiffies;
- smi_info->si_timer.sub_expires
- = get_arch_cycles(smi_info->si_timer.expires);
- read_unlock(&xtime_lock);
+ do {
+ seq = read_seqbegin_irqsave(&xtime_lock, flags);
+ smi_info->si_timer.expires = jiffies;
+ smi_info->si_timer.arch_cycle_expires
+ = get_arch_cycles(smi_info->si_timer.expires);
+ } while (read_seqretry_irqrestore(&xtime_lock, seq, flags));
add_usec_to_timer(&smi_info->si_timer, SI_SHORT_TIMEOUT_USEC);
#else
smi_info->si_timer.expires = jiffies + 1;
spin_unlock_irqrestore(&smi_info->count_lock, flags);
smi_info->si_timer.expires = jiffies + SI_TIMEOUT_JIFFIES;
#if defined(CONFIG_HIGH_RES_TIMERS)
- smi_info->si_timer.sub_expires = 0;
+ smi_info->si_timer.arch_cycle_expires = 0;
#endif
}
#define IPMI_MEM_ADDR_SPACE 1
#define IPMI_IO_ADDR_SPACE 2
-#if defined(CONFIG_ACPI_INTERPRETER) || defined(CONFIG_X86) || defined(CONFIG_PCI)
+#if defined(CONFIG_ACPI) || defined(CONFIG_X86) || defined(CONFIG_PCI)
static int is_new_interface(int intf, u8 addr_space, unsigned long base_addr)
{
int i;
{
int rv;
- if (!info->irq)
+ if (! info->irq)
return 0;
if (info->si_type == SI_BT) {
SA_INTERRUPT,
DEVICE_NAME,
info);
- if (!rv)
+ if (! rv)
/* Enable the interrupt in the BT interface. */
info->io.outputb(&info->io, IPMI_BT_INTMASK_REG,
IPMI_BT_INTMASK_ENABLE_IRQ_BIT);
static void std_irq_cleanup(struct smi_info *info)
{
- if (!info->irq)
+ if (! info->irq)
return;
if (info->si_type == SI_BT)
unsigned int *addr = info->io.info;
int mapsize;
- if (!addr || (!*addr))
+ if (! addr || (! *addr))
return -ENODEV;
info->io_cleanup = port_cleanup;
{
struct smi_info *info;
- if (!ports[intf_num])
+ if (! ports[intf_num])
return -ENODEV;
- if (!is_new_interface(intf_num, IPMI_IO_ADDR_SPACE,
+ if (! is_new_interface(intf_num, IPMI_IO_ADDR_SPACE,
ports[intf_num]))
return -ENODEV;
info = kmalloc(sizeof(*info), GFP_KERNEL);
- if (!info) {
+ if (! info) {
printk(KERN_ERR "ipmi_si: Could not allocate SI data (1)\n");
return -ENOMEM;
}
info->io.info = &(ports[intf_num]);
info->io.addr = NULL;
info->io.regspacing = regspacings[intf_num];
- if (!info->io.regspacing)
+ if (! info->io.regspacing)
info->io.regspacing = DEFAULT_REGSPACING;
info->io.regsize = regsizes[intf_num];
- if (!info->io.regsize)
+ if (! info->io.regsize)
info->io.regsize = DEFAULT_REGSPACING;
info->io.regshift = regshifts[intf_num];
info->irq = 0;
unsigned long *addr = info->io.info;
int mapsize;
- if (!addr || (!*addr))
+ if (! addr || (! *addr))
return -ENODEV;
info->io_cleanup = mem_cleanup;
{
struct smi_info *info;
- if (!addrs[intf_num])
+ if (! addrs[intf_num])
return -ENODEV;
- if (!is_new_interface(intf_num, IPMI_MEM_ADDR_SPACE,
+ if (! is_new_interface(intf_num, IPMI_MEM_ADDR_SPACE,
addrs[intf_num]))
return -ENODEV;
info = kmalloc(sizeof(*info), GFP_KERNEL);
- if (!info) {
+ if (! info) {
printk(KERN_ERR "ipmi_si: Could not allocate SI data (2)\n");
return -ENOMEM;
}
info->io.info = &addrs[intf_num];
info->io.addr = NULL;
info->io.regspacing = regspacings[intf_num];
- if (!info->io.regspacing)
+ if (! info->io.regspacing)
info->io.regspacing = DEFAULT_REGSPACING;
info->io.regsize = regsizes[intf_num];
- if (!info->io.regsize)
+ if (! info->io.regsize)
info->io.regsize = DEFAULT_REGSPACING;
info->io.regshift = regshifts[intf_num];
info->irq = 0;
}
-#ifdef CONFIG_ACPI_INTERPRETER
+#ifdef CONFIG_ACPI
#include <linux/acpi.h>
{
acpi_status status;
- if (!info->irq)
+ if (! info->irq)
return 0;
/* FIXME - is level triggered right? */
static void acpi_gpe_irq_cleanup(struct smi_info *info)
{
- if (!info->irq)
+ if (! info->irq)
return;
acpi_remove_gpe_handler(NULL, info->irq, &ipmi_acpi_gpe);
char *io_type;
u8 addr_space;
+ if (acpi_disabled)
+ return -ENODEV;
+
if (acpi_failure)
return -ENODEV;
addr_space = IPMI_MEM_ADDR_SPACE;
else
addr_space = IPMI_IO_ADDR_SPACE;
- if (!is_new_interface(-1, addr_space, spmi->addr.address))
+ if (! is_new_interface(-1, addr_space, spmi->addr.address))
return -ENODEV;
- if (!spmi->addr.register_bit_width) {
+ if (! spmi->addr.register_bit_width) {
acpi_failure = 1;
return -ENODEV;
}
}
info = kmalloc(sizeof(*info), GFP_KERNEL);
- if (!info) {
+ if (! info) {
printk(KERN_ERR "ipmi_si: Could not allocate SI data (3)\n");
return -ENOMEM;
}
static dmi_ipmi_data_t dmi_data[SI_MAX_DRIVERS];
static int dmi_data_entries;
-typedef struct dmi_header
-{
- u8 type;
- u8 length;
- u16 handle;
-} dmi_header_t;
-
-static int decode_dmi(dmi_header_t __iomem *dm, int intf_num)
+static int __init decode_dmi(struct dmi_header *dm, int intf_num)
{
- u8 __iomem *data = (u8 __iomem *)dm;
+ u8 *data = (u8 *)dm;
unsigned long base_addr;
u8 reg_spacing;
- u8 len = readb(&dm->length);
+ u8 len = dm->length;
dmi_ipmi_data_t *ipmi_data = dmi_data+intf_num;
- ipmi_data->type = readb(&data[4]);
+ ipmi_data->type = data[4];
memcpy(&base_addr, data+8, sizeof(unsigned long));
if (len >= 0x11) {
}
/* If bit 4 of byte 0x10 is set, then the lsb for the address
is odd. */
- ipmi_data->base_addr = base_addr | ((readb(&data[0x10]) & 0x10) >> 4);
+ ipmi_data->base_addr = base_addr | ((data[0x10] & 0x10) >> 4);
- ipmi_data->irq = readb(&data[0x11]);
+ ipmi_data->irq = data[0x11];
/* The top two bits of byte 0x10 hold the register spacing. */
- reg_spacing = (readb(&data[0x10]) & 0xC0) >> 6;
+ reg_spacing = (data[0x10] & 0xC0) >> 6;
switch(reg_spacing){
case 0x00: /* Byte boundaries */
ipmi_data->offset = 1;
ipmi_data->offset = 1;
}
- ipmi_data->slave_addr = readb(&data[6]);
+ ipmi_data->slave_addr = data[6];
if (is_new_interface(-1, ipmi_data->addr_space,ipmi_data->base_addr)) {
dmi_data_entries++;
return -1;
}
-static int dmi_table(u32 base, int len, int num)
+static void __init dmi_find_bmc(void)
{
- u8 __iomem *buf;
- struct dmi_header __iomem *dm;
- u8 __iomem *data;
- int i=1;
- int status=-1;
+ struct dmi_device *dev = NULL;
int intf_num = 0;
- buf = ioremap(base, len);
- if(buf==NULL)
- return -1;
-
- data = buf;
-
- while(i<num && (data - buf) < len)
- {
- dm=(dmi_header_t __iomem *)data;
-
- if((data-buf+readb(&dm->length)) >= len)
- break;
-
- if (readb(&dm->type) == 38) {
- if (decode_dmi(dm, intf_num) == 0) {
- intf_num++;
- if (intf_num >= SI_MAX_DRIVERS)
- break;
- }
- }
-
- data+=readb(&dm->length);
- while((data-buf) < len && (readb(data)||readb(data+1)))
- data++;
- data+=2;
- i++;
- }
- iounmap(buf);
-
- return status;
-}
-
-static inline int dmi_checksum(u8 *buf)
-{
- u8 sum=0;
- int a;
-
- for(a=0; a<15; a++)
- sum+=buf[a];
- return (sum==0);
-}
-
-static int dmi_decode(void)
-{
- u8 buf[15];
- u32 fp=0xF0000;
-
-#ifdef CONFIG_SIMNOW
- return -1;
-#endif
-
- while(fp < 0xFFFFF)
- {
- isa_memcpy_fromio(buf, fp, 15);
- if(memcmp(buf, "_DMI_", 5)==0 && dmi_checksum(buf))
- {
- u16 num=buf[13]<<8|buf[12];
- u16 len=buf[7]<<8|buf[6];
- u32 base=buf[11]<<24|buf[10]<<16|buf[9]<<8|buf[8];
+ while ((dev = dmi_find_device(DMI_DEV_TYPE_IPMI, NULL, dev))) {
+ if (intf_num >= SI_MAX_DRIVERS)
+ break;
- if(dmi_table(base, len, num) == 0)
- return 0;
- }
- fp+=16;
+ decode_dmi((struct dmi_header *) dev->device_data, intf_num++);
}
-
- return -1;
}
static int try_init_smbios(int intf_num, struct smi_info **new_info)
{
- struct smi_info *info;
- dmi_ipmi_data_t *ipmi_data = dmi_data+intf_num;
- char *io_type;
+ struct smi_info *info;
+ dmi_ipmi_data_t *ipmi_data = dmi_data+intf_num;
+ char *io_type;
if (intf_num >= dmi_data_entries)
return -ENODEV;
- switch(ipmi_data->type) {
+ switch (ipmi_data->type) {
case 0x01: /* KCS */
si_type[intf_num] = "kcs";
break;
}
info = kmalloc(sizeof(*info), GFP_KERNEL);
- if (!info) {
+ if (! info) {
printk(KERN_ERR "ipmi_si: Could not allocate SI data (4)\n");
return -ENOMEM;
}
regspacings[intf_num] = ipmi_data->offset;
info->io.regspacing = regspacings[intf_num];
- if (!info->io.regspacing)
+ if (! info->io.regspacing)
info->io.regspacing = DEFAULT_REGSPACING;
info->io.regsize = DEFAULT_REGSPACING;
info->io.regshift = regshifts[intf_num];
pci_smic_checked = 1;
- if ((pci_dev = pci_get_device(PCI_HP_VENDOR_ID, PCI_MMC_DEVICE_ID,
- NULL)))
- ;
- else if ((pci_dev = pci_get_class(PCI_ERMC_CLASSCODE, NULL)) &&
- pci_dev->subsystem_vendor == PCI_HP_VENDOR_ID)
- fe_rmc = 1;
- else
- return -ENODEV;
+ pci_dev = pci_get_device(PCI_HP_VENDOR_ID, PCI_MMC_DEVICE_ID, NULL);
+ if (! pci_dev) {
+ pci_dev = pci_get_class(PCI_ERMC_CLASSCODE, NULL);
+ if (pci_dev && (pci_dev->subsystem_vendor == PCI_HP_VENDOR_ID))
+ fe_rmc = 1;
+ else
+ return -ENODEV;
+ }
error = pci_read_config_word(pci_dev, PCI_MMC_ADDR_CW, &base_addr);
if (error)
}
/* Bit 0: 1 specifies programmed I/O, 0 specifies memory mapped I/O */
- if (!(base_addr & 0x0001))
+ if (! (base_addr & 0x0001))
{
pci_dev_put(pci_dev);
printk(KERN_ERR
}
base_addr &= 0xFFFE;
- if (!fe_rmc)
+ if (! fe_rmc)
/* Data register starts at base address + 1 in eRMC */
++base_addr;
- if (!is_new_interface(-1, IPMI_IO_ADDR_SPACE, base_addr)) {
+ if (! is_new_interface(-1, IPMI_IO_ADDR_SPACE, base_addr)) {
pci_dev_put(pci_dev);
return -ENODEV;
}
info = kmalloc(sizeof(*info), GFP_KERNEL);
- if (!info) {
+ if (! info) {
pci_dev_put(pci_dev);
printk(KERN_ERR "ipmi_si: Could not allocate SI data (5)\n");
return -ENOMEM;
ports[intf_num] = base_addr;
info->io.info = &(ports[intf_num]);
info->io.regspacing = regspacings[intf_num];
- if (!info->io.regspacing)
+ if (! info->io.regspacing)
info->io.regspacing = DEFAULT_REGSPACING;
info->io.regsize = DEFAULT_REGSPACING;
info->io.regshift = regshifts[intf_num];
static int try_init_plug_and_play(int intf_num, struct smi_info **new_info)
{
#ifdef CONFIG_PCI
- if (find_pci_smic(intf_num, new_info)==0)
+ if (find_pci_smic(intf_num, new_info) == 0)
return 0;
#endif
/* Include other methods here. */
int rv = 0;
resp = kmalloc(IPMI_MAX_MSG_LENGTH, GFP_KERNEL);
- if (!resp)
+ if (! resp)
return -ENOMEM;
/* Do a Get Device ID command, since it comes back with some
for (;;)
{
if (smi_result == SI_SM_CALL_WITH_DELAY) {
- set_current_state(TASK_UNINTERRUPTIBLE);
- schedule_timeout(1);
+ schedule_timeout_uninterruptible(1);
smi_result = smi_info->handlers->event(
smi_info->si_sm, 100);
}
}
/* Record info from the get device id, in case we need it. */
- smi_info->ipmi_si_dev_rev = resp[4] & 0xf;
- smi_info->ipmi_si_fw_rev_major = resp[5] & 0x7f;
- smi_info->ipmi_si_fw_rev_minor = resp[6];
- smi_info->ipmi_version_major = resp[7] & 0xf;
- smi_info->ipmi_version_minor = resp[7] >> 4;
+ memcpy(&smi_info->device_id, &resp[3],
+ min_t(unsigned long, resp_len-3, sizeof(smi_info->device_id)));
out:
kfree(resp);
struct smi_info *smi = data;
out += sprintf(out, "interrupts_enabled: %d\n",
- smi->irq && !smi->interrupt_disabled);
+ smi->irq && ! smi->interrupt_disabled);
out += sprintf(out, "short_timeouts: %ld\n",
smi->short_timeouts);
out += sprintf(out, "long_timeouts: %ld\n",
return (out - ((char *) page));
}
+/*
+ * oem_data_avail_to_receive_msg_avail
+ * @info - smi_info structure with msg_flags set
+ *
+ * Converts flags from OEM_DATA_AVAIL to RECEIVE_MSG_AVAIL
+ * Returns 1 indicating need to re-run handle_flags().
+ */
+static int oem_data_avail_to_receive_msg_avail(struct smi_info *smi_info)
+{
+ smi_info->msg_flags = ((smi_info->msg_flags & ~OEM_DATA_AVAIL) |
+ RECEIVE_MSG_AVAIL);
+ return 1;
+}
+
+/*
+ * setup_dell_poweredge_oem_data_handler
+ * @info - smi_info.device_id must be populated
+ *
+ * Systems that match, but have firmware version < 1.40 may assert
+ * OEM0_DATA_AVAIL on their own, without being told via Set Flags that
+ * it's safe to do so. Such systems will de-assert OEM1_DATA_AVAIL
+ * upon receipt of IPMI_GET_MSG_CMD, so we should treat these flags
+ * as RECEIVE_MSG_AVAIL instead.
+ *
+ * As Dell has no plans to release IPMI 1.5 firmware that *ever*
+ * assert the OEM[012] bits, and if it did, the driver would have to
+ * change to handle that properly, we don't actually check for the
+ * firmware version.
+ * Device ID = 0x20 BMC on PowerEdge 8G servers
+ * Device Revision = 0x80
+ * Firmware Revision1 = 0x01 BMC version 1.40
+ * Firmware Revision2 = 0x40 BCD encoded
+ * IPMI Version = 0x51 IPMI 1.5
+ * Manufacturer ID = A2 02 00 Dell IANA
+ *
+ */
+#define DELL_POWEREDGE_8G_BMC_DEVICE_ID 0x20
+#define DELL_POWEREDGE_8G_BMC_DEVICE_REV 0x80
+#define DELL_POWEREDGE_8G_BMC_IPMI_VERSION 0x51
+#define DELL_IANA_MFR_ID {0xA2, 0x02, 0x00}
+static void setup_dell_poweredge_oem_data_handler(struct smi_info *smi_info)
+{
+ struct ipmi_device_id *id = &smi_info->device_id;
+ const char mfr[3]=DELL_IANA_MFR_ID;
+ if (! memcmp(mfr, id->manufacturer_id, sizeof(mfr))
+ && (id->device_id == DELL_POWEREDGE_8G_BMC_DEVICE_ID)
+ && (id->device_revision == DELL_POWEREDGE_8G_BMC_DEVICE_REV)
+ && (id->ipmi_version == DELL_POWEREDGE_8G_BMC_IPMI_VERSION))
+ {
+ smi_info->oem_data_avail_handler =
+ oem_data_avail_to_receive_msg_avail;
+ }
+}
+
+/*
+ * setup_oem_data_handler
+ * @info - smi_info.device_id must be filled in already
+ *
+ * Fills in smi_info.device_id.oem_data_available_handler
+ * when we know what function to use there.
+ */
+
+static void setup_oem_data_handler(struct smi_info *smi_info)
+{
+ setup_dell_poweredge_oem_data_handler(smi_info);
+}
+
/* Returns 0 if initialized, or negative on an error. */
static int init_one_smi(int intf_num, struct smi_info **smi)
{
rv = try_init_mem(intf_num, &new_smi);
if (rv)
rv = try_init_port(intf_num, &new_smi);
-#ifdef CONFIG_ACPI_INTERPRETER
- if ((rv) && (si_trydefaults)) {
+#ifdef CONFIG_ACPI
+ if (rv && si_trydefaults)
rv = try_init_acpi(intf_num, &new_smi);
- }
#endif
#ifdef CONFIG_X86
- if ((rv) && (si_trydefaults)) {
+ if (rv && si_trydefaults)
rv = try_init_smbios(intf_num, &new_smi);
- }
#endif
- if ((rv) && (si_trydefaults)) {
+ if (rv && si_trydefaults)
rv = try_init_plug_and_play(intf_num, &new_smi);
- }
-
if (rv)
return rv;
new_smi->si_sm = NULL;
new_smi->handlers = NULL;
- if (!new_smi->irq_setup) {
+ if (! new_smi->irq_setup) {
new_smi->irq = irqs[intf_num];
new_smi->irq_setup = std_irq_setup;
new_smi->irq_cleanup = std_irq_cleanup;
/* Allocate the state machine's data and initialize it. */
new_smi->si_sm = kmalloc(new_smi->handlers->size(), GFP_KERNEL);
- if (!new_smi->si_sm) {
+ if (! new_smi->si_sm) {
printk(" Could not allocate state machine memory\n");
rv = -ENOMEM;
goto out_err;
if (rv)
goto out_err;
+ setup_oem_data_handler(new_smi);
+
/* Try to claim any interrupts. */
new_smi->irq_setup(new_smi);
rv = ipmi_register_smi(&handlers,
new_smi,
- new_smi->ipmi_version_major,
- new_smi->ipmi_version_minor,
+ ipmi_version_major(&new_smi->device_id),
+ ipmi_version_minor(&new_smi->device_id),
new_smi->slave_addr,
&(new_smi->intf));
if (rv) {
/* Wait for the timer to stop. This avoids problems with race
conditions removing the timer here. */
- while (!new_smi->timer_stopped) {
- set_current_state(TASK_UNINTERRUPTIBLE);
- schedule_timeout(1);
- }
+ while (!new_smi->timer_stopped)
+ schedule_timeout_uninterruptible(1);
out_err:
if (new_smi->intf)
/* Parse out the si_type string into its components. */
str = si_type_str;
if (*str != '\0') {
- for (i=0; (i<SI_MAX_PARMS) && (*str != '\0'); i++) {
+ for (i = 0; (i < SI_MAX_PARMS) && (*str != '\0'); i++) {
si_type[i] = str;
str = strchr(str, ',');
if (str) {
}
}
- printk(KERN_INFO "IPMI System Interface driver version "
- IPMI_SI_VERSION);
- if (kcs_smi_handlers.version)
- printk(", KCS version %s", kcs_smi_handlers.version);
- if (smic_smi_handlers.version)
- printk(", SMIC version %s", smic_smi_handlers.version);
- if (bt_smi_handlers.version)
- printk(", BT version %s", bt_smi_handlers.version);
- printk("\n");
+ printk(KERN_INFO "IPMI System Interface driver.\n");
#ifdef CONFIG_X86
- dmi_decode();
+ dmi_find_bmc();
#endif
rv = init_one_smi(0, &(smi_infos[pos]));
- if (rv && !ports[0] && si_trydefaults) {
+ if (rv && ! ports[0] && si_trydefaults) {
/* If we are trying defaults and the initial port is
not set, then set it. */
si_type[0] = "kcs";
if (rv == 0)
pos++;
- for (i=1; i < SI_MAX_PARMS; i++) {
+ for (i = 1; i < SI_MAX_PARMS; i++) {
rv = init_one_smi(i, &(smi_infos[pos]));
if (rv == 0)
pos++;
/* Wait for the timer to stop. This avoids problems with race
conditions removing the timer here. */
- while (!to_clean->timer_stopped) {
- set_current_state(TASK_UNINTERRUPTIBLE);
- schedule_timeout(1);
- }
+ while (!to_clean->timer_stopped)
+ schedule_timeout_uninterruptible(1);
/* Interrupts and timeouts are stopped, now make sure the
interface is in a clean state. */
- while ((to_clean->curr_msg) || (to_clean->si_state != SI_NORMAL)) {
+ while (to_clean->curr_msg || (to_clean->si_state != SI_NORMAL)) {
poll(to_clean);
- set_current_state(TASK_UNINTERRUPTIBLE);
- schedule_timeout(1);
+ schedule_timeout_uninterruptible(1);
}
rv = ipmi_unregister_smi(to_clean->intf);
{
int i;
- if (!initialized)
+ if (! initialized)
return;
- for (i=0; i<SI_MAX_DRIVERS; i++) {
+ for (i = 0; i < SI_MAX_DRIVERS; i++) {
cleanup_one_si(smi_infos[i]);
}
}
module_exit(cleanup_ipmi_si);
MODULE_LICENSE("GPL");
+MODULE_AUTHOR("Corey Minyard <minyard@mvista.com>");
+MODULE_DESCRIPTION("Interface to the IPMI driver for the KCS, SMIC, and BT system interfaces.");
git.openpandora.org / pandora-kernel.git / blobdiff