{
unsigned int i;
- if ((size < 2) || (size > IPMI_MAX_MSG_LENGTH)) return -1;
+ if ((size < 2) || (size > IPMI_MAX_MSG_LENGTH))
+ return -1;
if ((bt->state != BT_STATE_IDLE) && (bt->state != BT_STATE_HOSED))
return -2;
if (bt_debug & BT_DEBUG_MSG) {
printk(KERN_WARNING "+++++++++++++++++++++++++++++++++++++\n");
printk(KERN_WARNING "BT: write seq=0x%02X:", bt->seq);
- for (i = 0; i < size; i ++) printk (" %02x", data[i]);
+ for (i = 0; i < size; i ++)
+ printk (" %02x", data[i]);
printk("\n");
}
bt->write_data[0] = size + 1; /* all data plus seq byte */
} else {
data[0] = bt->read_data[1];
data[1] = bt->read_data[3];
- if (length < msg_len) bt->truncated = 1;
+ if (length < msg_len)
+ bt->truncated = 1;
if (bt->truncated) { /* can be set in read_all_bytes() */
data[2] = IPMI_ERR_MSG_TRUNCATED;
msg_len = 3;
- } else memcpy(data + 2, bt->read_data + 4, msg_len - 2);
+ } else
+ memcpy(data + 2, bt->read_data + 4, msg_len - 2);
if (bt_debug & BT_DEBUG_MSG) {
printk (KERN_WARNING "BT: res (raw)");
- for (i = 0; i < msg_len; i++) printk(" %02x", data[i]);
+ for (i = 0; i < msg_len; i++)
+ printk(" %02x", data[i]);
printk ("\n");
}
}
static void reset_flags(struct si_sm_data *bt)
{
- if (BT_STATUS & BT_H_BUSY) BT_CONTROL(BT_H_BUSY);
- if (BT_STATUS & BT_B_BUSY) BT_CONTROL(BT_B_BUSY);
+ if (BT_STATUS & BT_H_BUSY)
+ BT_CONTROL(BT_H_BUSY);
+ if (BT_STATUS & BT_B_BUSY)
+ BT_CONTROL(BT_B_BUSY);
BT_CONTROL(BT_CLR_WR_PTR);
BT_CONTROL(BT_SMS_ATN);
#ifdef DEVELOPMENT_ONLY_NOT_FOR_PRODUCTION
BT_CONTROL(BT_H_BUSY);
BT_CONTROL(BT_B2H_ATN);
BT_CONTROL(BT_CLR_RD_PTR);
- for (i = 0; i < IPMI_MAX_MSG_LENGTH + 2; i++) BMC2HOST;
+ for (i = 0; i < IPMI_MAX_MSG_LENGTH + 2; i++)
+ BMC2HOST;
BT_CONTROL(BT_H_BUSY);
}
#endif
printk (" %02x", bt->write_data[i]);
printk ("\n");
}
- for (i = 0; i < bt->write_count; i++) HOST2BMC(bt->write_data[i]);
+ for (i = 0; i < bt->write_count; i++)
+ HOST2BMC(bt->write_data[i]);
}
static inline int read_all_bytes(struct si_sm_data *bt)
bt->truncated = 1;
return 1; /* let next XACTION START clean it up */
}
- for (i = 1; i <= bt->read_count; i++) bt->read_data[i] = BMC2HOST;
+ for (i = 1; i <= bt->read_count; i++)
+ bt->read_data[i] = BMC2HOST;
bt->read_count++; /* account for the length byte */
if (bt_debug & BT_DEBUG_MSG) {
((bt->read_data[1] & 0xF8) == (bt->write_data[1] & 0xF8)))
return 1;
- if (bt_debug & BT_DEBUG_MSG) printk(KERN_WARNING "BT: bad packet: "
+ if (bt_debug & BT_DEBUG_MSG)
+ printk(KERN_WARNING "BT: bad packet: "
"want 0x(%02X, %02X, %02X) got (%02X, %02X, %02X)\n",
bt->write_data[1], bt->write_data[2], bt->write_data[3],
bt->read_data[1], bt->read_data[2], bt->read_data[3]);
time);
bt->last_state = bt->state;
- if (bt->state == BT_STATE_HOSED) return SI_SM_HOSED;
+ if (bt->state == BT_STATE_HOSED)
+ return SI_SM_HOSED;
if (bt->state != BT_STATE_IDLE) { /* do timeout test */
/* FIXME: bt_event is sometimes called with time > BT_NORMAL_TIMEOUT
(noticed in ipmi_smic_sm.c January 2004) */
- if ((time <= 0) || (time >= BT_NORMAL_TIMEOUT)) time = 100;
+ if ((time <= 0) || (time >= BT_NORMAL_TIMEOUT))
+ time = 100;
bt->timeout -= time;
if ((bt->timeout < 0) && (bt->state < BT_STATE_RESET1)) {
error_recovery(bt, "timed out");
BT_CONTROL(BT_H_BUSY);
break;
}
- if (status & BT_B2H_ATN) break;
+ if (status & BT_B2H_ATN)
+ break;
bt->state = BT_STATE_WRITE_BYTES;
return SI_SM_CALL_WITHOUT_DELAY; /* for logging */
case BT_STATE_WRITE_BYTES:
- if (status & (BT_B_BUSY | BT_H2B_ATN)) break;
+ if (status & (BT_B_BUSY | BT_H2B_ATN))
+ break;
BT_CONTROL(BT_CLR_WR_PTR);
write_all_bytes(bt);
BT_CONTROL(BT_H2B_ATN); /* clears too fast to catch? */
return SI_SM_CALL_WITHOUT_DELAY; /* it MIGHT sail through */
case BT_STATE_WRITE_CONSUME: /* BMCs usually blow right thru here */
- if (status & (BT_H2B_ATN | BT_B_BUSY)) break;
+ if (status & (BT_H2B_ATN | BT_B_BUSY))
+ break;
bt->state = BT_STATE_B2H_WAIT;
/* fall through with status */
generation of B2H_ATN so ALWAYS return CALL_WITH_DELAY. */
case BT_STATE_B2H_WAIT:
- if (!(status & BT_B2H_ATN)) break;
+ if (!(status & BT_B2H_ATN))
+ break;
/* Assume ordered, uncached writes: no need to wait */
- if (!(status & BT_H_BUSY)) BT_CONTROL(BT_H_BUSY); /* set */
+ if (!(status & BT_H_BUSY))
+ BT_CONTROL(BT_H_BUSY); /* set */
BT_CONTROL(BT_B2H_ATN); /* clear it, ACK to the BMC */
BT_CONTROL(BT_CLR_RD_PTR); /* reset the queue */
i = read_all_bytes(bt);
BT_CONTROL(BT_H_BUSY); /* clear */
- if (!i) break; /* Try this state again */
+ if (!i) /* Try this state again */
+ break;
bt->state = BT_STATE_READ_END;
return SI_SM_CALL_WITHOUT_DELAY; /* for logging */
#ifdef MAKE_THIS_TRUE_IF_NECESSARY
- if (status & BT_H_BUSY) break;
+ if (status & BT_H_BUSY)
+ break;
#endif
bt->seq++;
bt->state = BT_STATE_IDLE;
break;
case BT_STATE_RESET3:
- if (bt->timeout > 0) return SI_SM_CALL_WITH_DELAY;
+ if (bt->timeout > 0)
+ return SI_SM_CALL_WITH_DELAY;
bt->state = BT_STATE_RESTART; /* printk in debug modes */
break;
but that's what you get from reading a bogus address, so we
test that first. The calling routine uses negative logic. */
- if ((BT_STATUS == 0xFF) && (BT_INTMASK_R == 0xFF)) return 1;
+ if ((BT_STATUS == 0xFF) && (BT_INTMASK_R == 0xFF))
+ return 1;
reset_flags(bt);
return 0;
}
do { \
seq = ((msgid >> 26) & 0x3f); \
seqid = (msgid & 0x3fffff); \
- } while(0)
+ } while (0)
#define NEXT_SEQID(seqid) (((seqid) + 1) & 0x3fffff)
down_read(&interfaces_sem);
down_write(&smi_watchers_sem);
list_add(&(watcher->link), &smi_watchers);
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
if (ipmi_interfaces[i] != NULL) {
watcher->new_smi(i);
}
int rv = 0;
unsigned int i;
- for (i=intf->curr_seq;
+ for (i = intf->curr_seq;
(i+1)%IPMI_IPMB_NUM_SEQ != intf->curr_seq;
- i=(i+1)%IPMI_IPMB_NUM_SEQ)
+ i = (i+1)%IPMI_IPMB_NUM_SEQ)
{
if (! intf->seq_table[i].inuse)
break;
/* Remove the user from the interfaces sequence table. */
spin_lock_irqsave(&(user->intf->seq_lock), flags);
- for (i=0; i<IPMI_IPMB_NUM_SEQ; i++) {
+ for (i = 0; i < IPMI_IPMB_NUM_SEQ; i++) {
if (user->intf->seq_table[i].inuse
&& (user->intf->seq_table[i].recv_msg->user == user))
{
#ifdef DEBUG_MSGING
{
int m;
- for (m=0; m<smi_msg->data_size; m++)
+ for (m = 0; m < smi_msg->data_size; m++)
printk(" %2.2x", smi_msg->data[m]);
printk("\n");
}
int i;
int rv= 0;
- for (i=0; i<IPMI_MAX_CHANNELS; i++)
+ for (i = 0; i < IPMI_MAX_CHANNELS; i++)
rv += sprintf(out+rv, "%x ", intf->channels[i].address);
out[rv-1] = '\n'; /* Replace the final space with a newline */
out[rv] = '\0';
rv = -ENOMEM;
down_write(&interfaces_sem);
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
if (ipmi_interfaces[i] == NULL) {
new_intf->intf_num = i;
new_intf->version_major = version_major;
new_intf->version_minor = version_minor;
- for (j=0; j<IPMI_MAX_CHANNELS; j++) {
+ for (j = 0; j < IPMI_MAX_CHANNELS; j++) {
new_intf->channels[j].address
= IPMI_BMC_SLAVE_ADDR;
new_intf->channels[j].lun = 2;
new_intf->handlers = handlers;
new_intf->send_info = send_info;
spin_lock_init(&(new_intf->seq_lock));
- for (j=0; j<IPMI_IPMB_NUM_SEQ; j++) {
+ for (j = 0; j < IPMI_IPMB_NUM_SEQ; j++) {
new_intf->seq_table[j].inuse = 0;
new_intf->seq_table[j].seqid = 0;
}
free_recv_msg_list(&(intf->waiting_events));
free_cmd_rcvr_list(&(intf->cmd_rcvrs));
- for (i=0; i<IPMI_IPMB_NUM_SEQ; i++) {
+ for (i = 0; i < IPMI_IPMB_NUM_SEQ; i++) {
if ((intf->seq_table[i].inuse)
&& (intf->seq_table[i].recv_msg))
{
down_write(&interfaces_sem);
if (list_empty(&(intf->users)))
{
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
if (ipmi_interfaces[i] == intf) {
remove_proc_entries(intf);
spin_lock_irqsave(&interfaces_lock, flags);
{
int m;
printk("Invalid command:");
- for (m=0; m<msg->data_size; m++)
+ for (m = 0; m < msg->data_size; m++)
printk(" %2.2x", msg->data[m]);
printk("\n");
}
#ifdef DEBUG_MSGING
int m;
printk("Recv:");
- for (m=0; m<msg->rsp_size; m++)
+ for (m = 0; m < msg->rsp_size; m++)
printk(" %2.2x", msg->rsp[m]);
printk("\n");
#endif
{
int m;
printk("Resend: ");
- for (m=0; m<smi_msg->data_size; m++)
+ for (m = 0; m < smi_msg->data_size; m++)
printk(" %2.2x", smi_msg->data[m]);
printk("\n");
}
INIT_LIST_HEAD(&timeouts);
spin_lock(&interfaces_lock);
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
intf = ipmi_interfaces[i];
if (intf == NULL)
continue;
have timed out, putting them in the timeouts
list. */
spin_lock_irqsave(&(intf->seq_lock), flags);
- for (j=0; j<IPMI_IPMB_NUM_SEQ; j++) {
+ for (j = 0; j < IPMI_IPMB_NUM_SEQ; j++) {
struct seq_table *ent = &(intf->seq_table[j]);
if (!ent->inuse)
continue;
spin_unlock(&intf->counter_lock);
smi_msg = smi_from_recv_msg(intf,
ent->recv_msg, j, ent->seqid);
- if(!smi_msg)
+ if (! smi_msg)
continue;
spin_unlock_irqrestore(&(intf->seq_lock),flags);
int i;
spin_lock(&interfaces_lock);
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
intf = ipmi_interfaces[i];
if (intf == NULL)
continue;
recv_msg.done = dummy_recv_done_handler;
/* For every registered interface, send the event. */
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
intf = ipmi_interfaces[i];
if (intf == NULL)
continue;
if (!str)
return;
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
char *p = str;
struct ipmi_ipmb_addr *ipmb;
int j;
has_paniced = 1;
/* For every registered interface, set it to run to completion. */
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
intf = ipmi_interfaces[i];
if (intf == NULL)
continue;
printk(KERN_INFO "ipmi message handler version "
IPMI_DRIVER_VERSION "\n");
- for (i=0; i<MAX_IPMI_INTERFACES; i++) {
+ for (i = 0; i < MAX_IPMI_INTERFACES; i++) {
ipmi_interfaces[i] = NULL;
}
/* Scan for a poweroff method */
- for (i=0; i<NUM_PO_FUNCS; i++) {
+ for (i = 0; i < NUM_PO_FUNCS; i++) {
if (poweroff_functions[i].detect(ipmi_user))
goto found;
}
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;
}
} 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;
#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
{
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;
{
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);
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 int __init decode_dmi(struct dmi_header *dm, int intf_num)
{
- u8 *data = (u8 *)dm;
+ u8 *data = (u8 *)dm;
unsigned long base_addr;
u8 reg_spacing;
u8 len = dm->length;
static void __init dmi_find_bmc(void)
{
struct dmi_device *dev = NULL;
- int intf_num = 0;
+ int intf_num = 0;
while ((dev = dmi_find_device(DMI_DEV_TYPE_IPMI, NULL, dev))) {
if (intf_num >= SI_MAX_DRIVERS)
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
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",
*/
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;
+ smi_info->msg_flags = ((smi_info->msg_flags & ~OEM_DATA_AVAIL) |
+ RECEIVE_MSG_AVAIL);
return 1;
}
{
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) {
+ 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;
}
if (rv)
rv = try_init_port(intf_num, &new_smi);
#ifdef CONFIG_ACPI_INTERPRETER
- if ((rv) && (si_trydefaults)) {
+ 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;
/* Wait for the timer to stop. This avoids problems with race
conditions removing the timer here. */
- while (!new_smi->timer_stopped) {
+ while (! new_smi->timer_stopped) {
set_current_state(TASK_UNINTERRUPTIBLE);
schedule_timeout(1);
}
/* 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) {
#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) {
+ while (! to_clean->timer_stopped) {
set_current_state(TASK_UNINTERRUPTIBLE);
schedule_timeout(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);
{
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]);
}
}
static int ipmi_open(struct inode *ino, struct file *filep)
{
- switch (iminor(ino))
- {
- case WATCHDOG_MINOR:
- if(test_and_set_bit(0, &ipmi_wdog_open))
+ switch (iminor(ino)) {
+ case WATCHDOG_MINOR:
+ if (test_and_set_bit(0, &ipmi_wdog_open))
return -EBUSY;
- /* Don't start the timer now, let it start on the
- first heartbeat. */
- ipmi_start_timer_on_heartbeat = 1;
- return nonseekable_open(ino, filep);
+ /* Don't start the timer now, let it start on the
+ first heartbeat. */
+ ipmi_start_timer_on_heartbeat = 1;
+ return nonseekable_open(ino, filep);
- default:
- return (-ENODEV);
+ default:
+ return (-ENODEV);
}
}
projects / openwrt / staging / blogic.git / commitdiff