Transaction Management
-------------------------------------------------------------------------- */
-static inline u32 acpi_ec_read_status(union acpi_ec *ec)
+static u32 acpi_ec_read_status(union acpi_ec *ec)
{
u32 status = 0;
struct timer_list timeout;
};
-static inline void
+static void
fw_load_abort(struct firmware_priv *fw_priv)
{
set_bit(FW_STATUS_ABORT, &fw_priv->status);
* This helper just factors out common code between do_lo_send_direct_write()
* and do_lo_send_write().
*/
-static inline int __do_lo_send_write(struct file *file,
+static int __do_lo_send_write(struct file *file,
u8 __user *buf, const int len, loff_t pos)
{
ssize_t bw;
}
}
-static inline void bcsp_complete_rx_pkt(struct hci_uart *hu)
+static void bcsp_complete_rx_pkt(struct hci_uart *hu)
{
struct bcsp_struct *bcsp = hu->priv;
int pass_up;
ADVANCE_RING();
}
-static __inline__ void r128_emit_state(drm_r128_private_t * dev_priv)
+static void r128_emit_state(drm_r128_private_t * dev_priv)
{
drm_r128_sarea_t *sarea_priv = dev_priv->sarea_priv;
unsigned int dirty = sarea_priv->dirty;
/* internal prototypes */
static int __cpufreq_governor(struct cpufreq_policy *policy, unsigned int event);
static void handle_update(void *data);
-static inline void adjust_jiffies(unsigned long val, struct cpufreq_freqs *ci);
/**
* Two notifier lists: the "policy" list is involved in the
static unsigned int disable_ratelimit = 1;
static DEFINE_SPINLOCK(disable_ratelimit_lock);
-static inline void cpufreq_debug_enable_ratelimit(void)
+static void cpufreq_debug_enable_ratelimit(void)
{
unsigned long flags;
spin_unlock_irqrestore(&disable_ratelimit_lock, flags);
}
-static inline void cpufreq_debug_disable_ratelimit(void)
+static void cpufreq_debug_disable_ratelimit(void)
{
unsigned long flags;
static unsigned long l_p_j_ref;
static unsigned int l_p_j_ref_freq;
-static inline void adjust_jiffies(unsigned long val, struct cpufreq_freqs *ci)
+static void adjust_jiffies(unsigned long val, struct cpufreq_freqs *ci)
{
if (ci->flags & CPUFREQ_CONST_LOOPS)
return;
* and attempt to recover if there are problems. Returns 0 if everything's
* ok; nonzero if the request has been terminated.
*/
-static inline
+static
int cdrom_read_check_ireason (ide_drive_t *drive, int len, int ireason)
{
if (ireason == 2)
/*
* Write handling
*/
-static inline int cdrom_write_check_ireason(ide_drive_t *drive, int len, int ireason)
+static int cdrom_write_check_ireason(ide_drive_t *drive, int len, int ireason)
{
/* Two notes about IDE interrupt reason here - 0 means that
* the drive wants to receive data from us, 2 means that
&& id->lba_capacity_2;
}
-static inline void idedisk_check_hpa(ide_drive_t *drive)
+static void idedisk_check_hpa(ide_drive_t *drive)
{
unsigned long long capacity, set_max;
int lba48 = idedisk_supports_lba48(drive->id);
ide_pio_sector(drive, write);
}
-static inline void ide_pio_datablock(ide_drive_t *drive, struct request *rq,
+static void ide_pio_datablock(ide_drive_t *drive, struct request *rq,
unsigned int write)
{
if (rq->bio) /* fs request */
param->private_data_len);
}
-static inline int cm_validate_req_param(struct ib_cm_req_param *param)
+static int cm_validate_req_param(struct ib_cm_req_param *param)
{
/* peer-to-peer not supported */
if (param->peer_to_peer)
(be32_to_cpu(local_qpn) > be32_to_cpu(remote_qpn))));
}
-static inline void cm_format_paths_from_req(struct cm_req_msg *req_msg,
+static void cm_format_paths_from_req(struct cm_req_msg *req_msg,
struct ib_sa_path_rec *primary_path,
struct ib_sa_path_rec *alt_path)
{
}
}
-static inline void
+static void
HDLC_irq(struct BCState *bcs, u_int stat) {
int len;
struct sk_buff *skb;
}
}
-static inline void
+static void
Memhscx_interrupt(struct IsdnCardState *cs, u_char val, u_char hscx)
{
u_char r;
}
}
-static inline void
+static void
hscx_interrupt(struct IsdnCardState *cs, u_char val, u_char hscx)
{
u_char r;
}
}
-static inline void
+static void
hscx_int_main(struct IsdnCardState *cs, u_char val)
{
}
-static inline void
+static void
jade_interrupt(struct IsdnCardState *cs, u_char val, u_char jade)
{
u_char r;
/* if page is completely empty, put it back on the free list, or dealloc it */
/* if page was hijacked, unmark the flag so it might get alloced next time */
/* Note: lock should be held when calling this */
-static inline void bitmap_checkfree(struct bitmap *bitmap, unsigned long page)
+static void bitmap_checkfree(struct bitmap *bitmap, unsigned long page)
{
char *ptr;
};
-static inline int
+static int
crypt_convert_scatterlist(struct crypt_config *cc, struct scatterlist *out,
struct scatterlist *in, unsigned int length,
int write, sector_t sector)
/*
* Always use UUID for lookups if it's present, otherwise use name or dev.
*/
-static inline struct hash_cell *__find_device_hash_cell(struct dm_ioctl *param)
+static struct hash_cell *__find_device_hash_cell(struct dm_ioctl *param)
{
if (*param->uuid)
return __get_uuid_cell(param->uuid);
return dm_get_mdptr(huge_decode_dev(param->dev));
}
-static inline struct mapped_device *find_device(struct dm_ioctl *param)
+static struct mapped_device *find_device(struct dm_ioctl *param)
{
struct hash_cell *hc;
struct mapped_device *md = NULL;
/*
* Dispatches the copy operation to kcopyd.
*/
-static inline void start_copy(struct pending_exception *pe)
+static void start_copy(struct pending_exception *pe)
{
struct dm_snapshot *s = pe->snap;
struct io_region src, dest;
* Decrements the number of outstanding ios that a bio has been
* cloned into, completing the original io if necc.
*/
-static inline void dec_pending(struct dm_io *io, int error)
+static void dec_pending(struct dm_io *io, int error)
{
if (error)
io->error = error;
}
}
-static inline void free_r1bio(r1bio_t *r1_bio)
+static void free_r1bio(r1bio_t *r1_bio)
{
conf_t *conf = mddev_to_conf(r1_bio->mddev);
mempool_free(r1_bio, conf->r1bio_pool);
}
-static inline void put_buf(r1bio_t *r1_bio)
+static void put_buf(r1bio_t *r1_bio)
{
conf_t *conf = mddev_to_conf(r1_bio->mddev);
int i;
}
}
-static inline void free_r10bio(r10bio_t *r10_bio)
+static void free_r10bio(r10bio_t *r10_bio)
{
conf_t *conf = mddev_to_conf(r10_bio->mddev);
mempool_free(r10_bio, conf->r10bio_pool);
}
-static inline void put_buf(r10bio_t *r10_bio)
+static void put_buf(r10bio_t *r10_bio)
{
conf_t *conf = mddev_to_conf(r10_bio->mddev);
static void print_raid5_conf (raid5_conf_t *conf);
-static inline void __release_stripe(raid5_conf_t *conf, struct stripe_head *sh)
+static void __release_stripe(raid5_conf_t *conf, struct stripe_head *sh)
{
if (atomic_dec_and_test(&sh->count)) {
if (!list_empty(&sh->lru))
hlist_del_init(&sh->hash);
}
-static inline void insert_hash(raid5_conf_t *conf, struct stripe_head *sh)
+static void insert_hash(raid5_conf_t *conf, struct stripe_head *sh)
{
struct hlist_head *hp = stripe_hash(conf, sh->sector);
static void raid5_build_block (struct stripe_head *sh, int i);
-static inline void init_stripe(struct stripe_head *sh, sector_t sector, int pd_idx)
+static void init_stripe(struct stripe_head *sh, sector_t sector, int pd_idx)
{
raid5_conf_t *conf = sh->raid_conf;
int disks = conf->raid_disks, i;
}
}
-static inline void raid5_activate_delayed(raid5_conf_t *conf)
+static void raid5_activate_delayed(raid5_conf_t *conf)
{
if (atomic_read(&conf->preread_active_stripes) < IO_THRESHOLD) {
while (!list_empty(&conf->delayed_list)) {
}
}
-static inline void activate_bit_delay(raid5_conf_t *conf)
+static void activate_bit_delay(raid5_conf_t *conf)
{
/* device_lock is held */
struct list_head head;
static void print_raid6_conf (raid6_conf_t *conf);
-static inline void __release_stripe(raid6_conf_t *conf, struct stripe_head *sh)
+static void __release_stripe(raid6_conf_t *conf, struct stripe_head *sh)
{
if (atomic_dec_and_test(&sh->count)) {
if (!list_empty(&sh->lru))
static void raid6_build_block (struct stripe_head *sh, int i);
-static inline void init_stripe(struct stripe_head *sh, sector_t sector, int pd_idx)
+static void init_stripe(struct stripe_head *sh, sector_t sector, int pd_idx)
{
raid6_conf_t *conf = sh->raid_conf;
int disks = conf->raid_disks, i;
}
}
-static inline void raid6_activate_delayed(raid6_conf_t *conf)
+static void raid6_activate_delayed(raid6_conf_t *conf)
{
if (atomic_read(&conf->preread_active_stripes) < IO_THRESHOLD) {
while (!list_empty(&conf->delayed_list)) {
}
}
-static inline void activate_bit_delay(raid6_conf_t *conf)
+static void activate_bit_delay(raid6_conf_t *conf)
{
/* device_lock is held */
struct list_head head;
int sat;
};
-static inline int tvp5150_read(struct i2c_client *c, unsigned char addr)
+static int tvp5150_read(struct i2c_client *c, unsigned char addr)
{
unsigned char buffer[1];
int rc;
}
/*=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=*/
-static inline void
+static void
mpt_lan_wake_post_buckets_task(struct net_device *dev, int priority)
/*
* @priority: 0 = put it on the timer queue, 1 = put it on the immediate queue
}
/*=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=*/
-static inline int
+static int
mpt_lan_receive_skb(struct net_device *dev, struct sk_buff *skb)
{
struct mpt_lan_priv *priv = dev->priv;
bypass the internal pipeline. Each of 4 delay cycles (read from the NOP register) is
required after writing to CDSN Control register, see Software Requirement 11.4 item 3. */
-static inline int DoC_Command(struct DiskOnChip *doc, unsigned char command,
+static int DoC_Command(struct DiskOnChip *doc, unsigned char command,
unsigned char xtraflags)
{
void __iomem *docptr = doc->virtadr;
with the internal pipeline. Each of 4 delay cycles (read from the NOP register) is
required after writing to CDSN Control register, see Software Requirement 11.4 item 3. */
-static inline void DoC_Command(void __iomem * docptr, unsigned char command,
+static void DoC_Command(void __iomem * docptr, unsigned char command,
unsigned char xtraflags)
{
/* Assert the CLE (Command Latch Enable) line to the flash chip */
/* DoC_Command: Send a flash command to the flash chip through the Flash
* command register. Need 2 Write Pipeline Terminates to complete send.
*/
-static inline void DoC_Command(void __iomem * docptr, unsigned char command,
+static void DoC_Command(void __iomem * docptr, unsigned char command,
unsigned char xtraflags)
{
WriteDOC(command, docptr, Mplus_FlashCmd);
return 1;
}
-static inline int __init doc_probe(unsigned long physadr)
+static int __init doc_probe(unsigned long physadr)
{
unsigned char ChipID;
struct mtd_info *mtd;
(void)readb(&nic->csr->scb.status);
}
-static inline void e100_enable_irq(struct nic *nic)
+static void e100_enable_irq(struct nic *nic)
{
unsigned long flags;
e100_write_flush(nic);
}
-static inline void e100_disable_irq(struct nic *nic)
+static void e100_disable_irq(struct nic *nic)
{
unsigned long flags;
#define E100_WAIT_SCB_TIMEOUT 20000 /* we might have to wait 100ms!!! */
#define E100_WAIT_SCB_FAST 20 /* delay like the old code */
-static inline int e100_exec_cmd(struct nic *nic, u8 cmd, dma_addr_t dma_addr)
+static int e100_exec_cmd(struct nic *nic, u8 cmd, dma_addr_t dma_addr)
{
unsigned long flags;
unsigned int i;
return err;
}
-static inline int e100_exec_cb(struct nic *nic, struct sk_buff *skb,
+static int e100_exec_cb(struct nic *nic, struct sk_buff *skb,
void (*cb_prepare)(struct nic *, struct cb *, struct sk_buff *))
{
struct cb *cb;
mod_timer(&nic->watchdog, jiffies + E100_WATCHDOG_PERIOD);
}
-static inline void e100_xmit_prepare(struct nic *nic, struct cb *cb,
+static void e100_xmit_prepare(struct nic *nic, struct cb *cb,
struct sk_buff *skb)
{
cb->command = nic->tx_command;
return 0;
}
-static inline int e100_tx_clean(struct nic *nic)
+static int e100_tx_clean(struct nic *nic)
{
struct cb *cb;
int tx_cleaned = 0;
}
#define RFD_BUF_LEN (sizeof(struct rfd) + VLAN_ETH_FRAME_LEN)
-static inline int e100_rx_alloc_skb(struct nic *nic, struct rx *rx)
+static int e100_rx_alloc_skb(struct nic *nic, struct rx *rx)
{
if(!(rx->skb = dev_alloc_skb(RFD_BUF_LEN + NET_IP_ALIGN)))
return -ENOMEM;
return 0;
}
-static inline int e100_rx_indicate(struct nic *nic, struct rx *rx,
+static int e100_rx_indicate(struct nic *nic, struct rx *rx,
unsigned int *work_done, unsigned int work_to_do)
{
struct sk_buff *skb = rx->skb;
return 0;
}
-static inline void e100_rx_clean(struct nic *nic, unsigned int *work_done,
+static void e100_rx_clean(struct nic *nic, unsigned int *work_done,
unsigned int work_to_do)
{
struct rx *rx;
const char* name);
static inline int card_wait_for_ready(const int ioaddr[], const char* name,
unsigned char in[]);
-static inline int card_send_command(const int ioaddr[], const char* name,
+static int card_send_command(const int ioaddr[], const char* name,
const unsigned char out[], unsigned char in[]);
/* SB1000 hardware routines to be used during frame rx interrupt */
}
/* Card Send Command (cannot be used during an interrupt) */
-static inline int
+static int
card_send_command(const int ioaddr[], const char* name,
const unsigned char out[], unsigned char in[])
{
}
-static inline int
+static int
hostap_rx_frame_mgmt(local_info_t *local, struct sk_buff *skb,
struct hostap_80211_rx_status *rx_stats, u16 type,
u16 stype)
/* Called only as a tasklet (software IRQ) */
-static inline struct net_device *prism2_rx_get_wds(local_info_t *local,
+static struct net_device *prism2_rx_get_wds(local_info_t *local,
u8 *addr)
{
struct hostap_interface *iface = NULL;
}
-static inline int
+static int
hostap_rx_frame_wds(local_info_t *local, struct ieee80211_hdr_4addr *hdr,
u16 fc, struct net_device **wds)
{
/* Called only as a tasklet (software IRQ) */
-static inline int
+static int
hostap_rx_frame_decrypt(local_info_t *local, struct sk_buff *skb,
struct ieee80211_crypt_data *crypt)
{
/* Called only as a tasklet (software IRQ) */
-static inline int
+static int
hostap_rx_frame_decrypt_msdu(local_info_t *local, struct sk_buff *skb,
int keyidx, struct ieee80211_crypt_data *crypt)
{
* @dev: pointer to net_device
* @entry: Prism2 command queue entry to be issued
*/
-static inline int hfa384x_cmd_issue(struct net_device *dev,
+static int hfa384x_cmd_issue(struct net_device *dev,
struct hostap_cmd_queue *entry)
{
struct hostap_interface *iface;
}
-static inline int hfa384x_wait_offset(struct net_device *dev, u16 o_off)
+static int hfa384x_wait_offset(struct net_device *dev, u16 o_off)
{
int tries = HFA384X_BAP_BUSY_TIMEOUT;
int res = HFA384X_INW(o_off) & HFA384X_OFFSET_BUSY;
* and will try to get the correct fid eventually. */
#define EXTRA_FID_READ_TESTS
-static inline u16 prism2_read_fid_reg(struct net_device *dev, u16 reg)
+static u16 prism2_read_fid_reg(struct net_device *dev, u16 reg)
{
#ifdef EXTRA_FID_READ_TESTS
u16 val, val2, val3;
/* Called only from hardware IRQ */
-static inline void prism2_check_magic(local_info_t *local)
+static void prism2_check_magic(local_info_t *local)
{
/* at least PCI Prism2.5 with bus mastering seems to sometimes
* return 0x0000 in SWSUPPORT0 for unknown reason, but re-reading the
write_register(dev, IPW_REG_AUTOINCREMENT_DATA, val);
}
-static inline void write_nic_memory(struct net_device *dev, u32 addr, u32 len,
+static void write_nic_memory(struct net_device *dev, u32 addr, u32 len,
const u8 * buf)
{
u32 aligned_addr;
*buf);
}
-static inline void read_nic_memory(struct net_device *dev, u32 addr, u32 len,
+static void read_nic_memory(struct net_device *dev, u32 addr, u32 len,
u8 * buf)
{
u32 aligned_addr;
#define MAX_RESET_BACKOFF 10
-static inline void schedule_reset(struct ipw2100_priv *priv)
+static void schedule_reset(struct ipw2100_priv *priv)
{
unsigned long now = get_seconds();
write_register(priv->net_dev, IPW_REG_GPIO, reg);
}
-static inline int rf_kill_active(struct ipw2100_priv *priv)
+static int rf_kill_active(struct ipw2100_priv *priv)
{
#define MAX_RF_KILL_CHECKS 5
#define RF_KILL_CHECK_DELAY 40
};
#endif
-static inline int ipw2100_alloc_skb(struct ipw2100_priv *priv,
+static int ipw2100_alloc_skb(struct ipw2100_priv *priv,
struct ipw2100_rx_packet *packet)
{
packet->skb = dev_alloc_skb(sizeof(struct ipw2100_rx));
#define SEARCH_SNAPSHOT 1
#define SNAPSHOT_ADDR(ofs) (priv->snapshot[((ofs) >> 12) & 0xff] + ((ofs) & 0xfff))
-static inline int ipw2100_snapshot_alloc(struct ipw2100_priv *priv)
+static int ipw2100_snapshot_alloc(struct ipw2100_priv *priv)
{
int i;
if (priv->snapshot[0])
return 1;
}
-static inline void ipw2100_snapshot_free(struct ipw2100_priv *priv)
+static void ipw2100_snapshot_free(struct ipw2100_priv *priv)
{
int i;
if (!priv->snapshot[0])
priv->snapshot[0] = NULL;
}
-static inline u32 ipw2100_match_buf(struct ipw2100_priv *priv, u8 * in_buf,
+static u32 ipw2100_match_buf(struct ipw2100_priv *priv, u8 * in_buf,
size_t len, int mode)
{
u32 i, j;
static u8 packet_data[IPW_RX_NIC_BUFFER_LENGTH];
#endif
-static inline void ipw2100_corruption_detected(struct ipw2100_priv *priv, int i)
+static void ipw2100_corruption_detected(struct ipw2100_priv *priv, int i)
{
#ifdef CONFIG_IPW2100_DEBUG_C3
struct ipw2100_status *status = &priv->status_queue.drv[i];
schedule_reset(priv);
}
-static inline void isr_rx(struct ipw2100_priv *priv, int i,
+static void isr_rx(struct ipw2100_priv *priv, int i,
struct ieee80211_rx_stats *stats)
{
struct ipw2100_status *status = &priv->status_queue.drv[i];
priv->rx_queue.drv[i].host_addr = packet->dma_addr;
}
-static inline int ipw2100_corruption_check(struct ipw2100_priv *priv, int i)
+static int ipw2100_corruption_check(struct ipw2100_priv *priv, int i)
{
struct ipw2100_status *status = &priv->status_queue.drv[i];
struct ipw2100_rx *u = priv->rx_buffers[i].rxp;
* The WRITE index is cached in the variable 'priv->rx_queue.next'.
*
*/
-static inline void __ipw2100_rx_process(struct ipw2100_priv *priv)
+static void __ipw2100_rx_process(struct ipw2100_priv *priv)
{
struct ipw2100_bd_queue *rxq = &priv->rx_queue;
struct ipw2100_status_queue *sq = &priv->status_queue;
* for use by future command and data packets.
*
*/
-static inline int __ipw2100_tx_process(struct ipw2100_priv *priv)
+static int __ipw2100_tx_process(struct ipw2100_priv *priv)
{
struct ipw2100_bd_queue *txq = &priv->tx_queue;
struct ipw2100_bd *tbd;
up(&priv->sem);
}
-static inline void __ipw_led_activity_on(struct ipw_priv *priv)
+static void __ipw_led_activity_on(struct ipw_priv *priv)
{
u32 led;
static DEVICE_ATTR(direct_dword, S_IWUSR | S_IRUGO,
show_direct_dword, store_direct_dword);
-static inline int rf_kill_active(struct ipw_priv *priv)
+static int rf_kill_active(struct ipw_priv *priv)
{
if (0 == (ipw_read32(priv, 0x30) & 0x10000))
priv->status |= STATUS_RF_KILL_HW;
}
/* perform a chip select operation */
-static inline void eeprom_cs(struct ipw_priv *priv)
+static void eeprom_cs(struct ipw_priv *priv)
{
eeprom_write_reg(priv, 0);
eeprom_write_reg(priv, EEPROM_BIT_CS);
}
/* perform a chip select operation */
-static inline void eeprom_disable_cs(struct ipw_priv *priv)
+static void eeprom_disable_cs(struct ipw_priv *priv)
{
eeprom_write_reg(priv, EEPROM_BIT_CS);
eeprom_write_reg(priv, 0);
IPW_DEBUG_TRACE("<<\n");
}
-static inline void ipw_zero_memory(struct ipw_priv *priv, u32 start, u32 count)
+static void ipw_zero_memory(struct ipw_priv *priv, u32 start, u32 count)
{
count >>= 2;
if (!count)
return ipw_read32(priv, 0x90) == 0xd55555d5;
}
-static inline int ipw_poll_bit(struct ipw_priv *priv, u32 addr, u32 mask,
+static int ipw_poll_bit(struct ipw_priv *priv, u32 addr, u32 mask,
int timeout)
{
int i = 0;
#define IPW_RX_BUF_SIZE (3000)
-static inline void ipw_rx_queue_reset(struct ipw_priv *priv,
+static void ipw_rx_queue_reset(struct ipw_priv *priv,
struct ipw_rx_queue *rxq)
{
unsigned long flags;
ipw_queue_tx_free(priv, &priv->txq[3]);
}
-static inline void ipw_create_bssid(struct ipw_priv *priv, u8 * bssid)
+static void ipw_create_bssid(struct ipw_priv *priv, u8 * bssid)
{
/* First 3 bytes are manufacturer */
bssid[0] = priv->mac_addr[0];
bssid[0] |= 0x02; /* set local assignment bit (IEEE802) */
}
-static inline u8 ipw_add_station(struct ipw_priv *priv, u8 * bssid)
+static u8 ipw_add_station(struct ipw_priv *priv, u8 * bssid)
{
struct ipw_station_entry entry;
int i;
return i;
}
-static inline u8 ipw_find_station(struct ipw_priv *priv, u8 * bssid)
+static u8 ipw_find_station(struct ipw_priv *priv, u8 * bssid)
{
int i;
memset(avg, 0, sizeof(*avg));
}
-static void inline average_add(struct average *avg, s16 val)
+static void average_add(struct average *avg, s16 val)
{
avg->sum -= avg->entries[avg->pos];
avg->sum += val;
}
}
-static s16 inline average_value(struct average *avg)
+static s16 average_value(struct average *avg)
{
if (!unlikely(avg->init)) {
if (avg->pos)
}
-static inline u32 ipw_get_max_rate(struct ipw_priv *priv)
+static u32 ipw_get_max_rate(struct ipw_priv *priv)
{
u32 i = 0x80000000;
u32 mask = priv->rates_mask;
* roaming_threshold -> disassociate_threshold, scan and roam for better signal.
* Above disassociate threshold, give up and stop scanning.
* Roaming is disabled if disassociate_threshold <= roaming_threshold */
-static inline void ipw_handle_missed_beacon(struct ipw_priv *priv,
+static void ipw_handle_missed_beacon(struct ipw_priv *priv,
int missed_count)
{
priv->notif_missed_beacons = missed_count;
* Handle host notification packet.
* Called from interrupt routine
*/
-static inline void ipw_rx_notification(struct ipw_priv *priv,
+static void ipw_rx_notification(struct ipw_priv *priv,
struct ipw_rx_notification *notif)
{
notif->size = le16_to_cpu(notif->size);
return 1;
}
-static inline void ipw_copy_rates(struct ipw_supported_rates *dest,
+static void ipw_copy_rates(struct ipw_supported_rates *dest,
const struct ipw_supported_rates *src)
{
u8 i;
#define ipw_debug_config(x) do {} while (0)
#endif
-static inline void ipw_set_fixed_rate(struct ipw_priv *priv, int mode)
+static void ipw_set_fixed_rate(struct ipw_priv *priv, int mode)
{
/* TODO: Verify that this works... */
struct ipw_fixed_rate fr = {
}
#endif
-static inline int is_network_packet(struct ipw_priv *priv,
+static int is_network_packet(struct ipw_priv *priv,
struct ieee80211_hdr_4addr *header)
{
/* Filter incoming packets to determine if they are targetted toward
#define IPW_PACKET_RETRY_TIME HZ
-static inline int is_duplicate_packet(struct ipw_priv *priv,
+static int is_duplicate_packet(struct ipw_priv *priv,
struct ieee80211_hdr_4addr *header)
{
u16 sc = le16_to_cpu(header->seq_ctl);
/* net device stuff */
-static inline void init_sys_config(struct ipw_sys_config *sys_config)
+static void init_sys_config(struct ipw_sys_config *sys_config)
{
memset(sys_config, 0, sizeof(struct ipw_sys_config));
sys_config->bt_coexistence = 1; /* We may need to look into prvStaBtConfig */
we need to heavily modify the ieee80211_skb_to_txb.
*/
-static inline int ipw_tx_skb(struct ipw_priv *priv, struct ieee80211_txb *txb,
+static int ipw_tx_skb(struct ipw_priv *priv, struct ieee80211_txb *txb,
int pri)
{
struct ieee80211_hdr_3addr *hdr = (struct ieee80211_hdr_3addr *)
* Write to card's Host Adapter Command Register. Include a delay for
* those times when it is needed.
*/
-static inline void hacr_write_slow(unsigned long ioaddr, u16 hacr)
+static void hacr_write_slow(unsigned long ioaddr, u16 hacr)
{
hacr_write(ioaddr, hacr);
/* delay might only be needed sometimes */
* The Windows drivers don't use the CRC, but the AP and the PtP tool
* depend on it.
*/
-static inline u16 psa_crc(u8 * psa, /* The PSA */
+static u16 psa_crc(u8 * psa, /* The PSA */
int size)
{ /* Number of short for CRC */
int byte_cnt; /* Loop on the PSA */
/*
* Write 1 byte to the MMC.
*/
-static inline void mmc_out(unsigned long ioaddr, u16 o, u8 d)
+static void mmc_out(unsigned long ioaddr, u16 o, u8 d)
{
int count = 0;
* Routine to write bytes to the Modem Management Controller.
* We start at the end because it is the way it should be!
*/
-static inline void mmc_write(unsigned long ioaddr, u8 o, u8 * b, int n)
+static void mmc_write(unsigned long ioaddr, u8 o, u8 * b, int n)
{
o += n;
b += n;
* Read a byte from the MMC.
* Optimised version for 1 byte, avoid using memory.
*/
-static inline u8 mmc_in(unsigned long ioaddr, u16 o)
+static u8 mmc_in(unsigned long ioaddr, u16 o)
{
int count = 0;
* Set channel attention bit and busy wait until command has
* completed, then acknowledge completion of the command.
*/
-static inline int wv_synchronous_cmd(struct net_device * dev, const char *str)
+static int wv_synchronous_cmd(struct net_device * dev, const char *str)
{
net_local *lp = (net_local *) dev->priv;
unsigned long ioaddr = dev->base_addr;
* Configuration commands completion interrupt.
* Check if done, and if OK.
*/
-static inline int
+static int
wv_config_complete(struct net_device * dev, unsigned long ioaddr, net_local * lp)
{
unsigned short mcs_addr;
* wavelan_interrupt is not an option), so you may experience
* delays sometimes.
*/
-static inline void wv_82586_reconfig(struct net_device * dev)
+static void wv_82586_reconfig(struct net_device * dev)
{
net_local *lp = (net_local *) dev->priv;
unsigned long flags;
* This is the information which is displayed by the driver at startup.
* There are lots of flags for configuring it to your liking.
*/
-static inline void wv_init_info(struct net_device * dev)
+static void wv_init_info(struct net_device * dev)
{
short ioaddr = dev->base_addr;
net_local *lp = (net_local *) dev->priv;
* It's a bit complicated and you don't really want to look into it.
* (called in wavelan_ioctl)
*/
-static inline int wv_set_frequency(unsigned long ioaddr, /* I/O port of the card */
+static int wv_set_frequency(unsigned long ioaddr, /* I/O port of the card */
iw_freq * frequency)
{
const int BAND_NUM = 10; /* Number of bands */
/*
* Give the list of available frequencies.
*/
-static inline int wv_frequency_list(unsigned long ioaddr, /* I/O port of the card */
+static int wv_frequency_list(unsigned long ioaddr, /* I/O port of the card */
iw_freq * list, /* List of frequencies to fill */
int max)
{ /* Maximum number of frequencies */
* Note: if any errors occur, the packet is "dropped on the floor".
* (called by wv_packet_rcv())
*/
-static inline void
+static void
wv_packet_read(struct net_device * dev, u16 buf_off, int sksize)
{
net_local *lp = (net_local *) dev->priv;
* (called in wavelan_interrupt()).
* Note : the spinlock is already grabbed for us.
*/
-static inline void wv_receive(struct net_device * dev)
+static void wv_receive(struct net_device * dev)
{
unsigned long ioaddr = dev->base_addr;
net_local *lp = (net_local *) dev->priv;
*
* (called in wavelan_packet_xmit())
*/
-static inline int wv_packet_write(struct net_device * dev, void *buf, short length)
+static int wv_packet_write(struct net_device * dev, void *buf, short length)
{
net_local *lp = (net_local *) dev->priv;
unsigned long ioaddr = dev->base_addr;
* Routine to initialize the Modem Management Controller.
* (called by wv_hw_reset())
*/
-static inline int wv_mmc_init(struct net_device * dev)
+static int wv_mmc_init(struct net_device * dev)
{
unsigned long ioaddr = dev->base_addr;
net_local *lp = (net_local *) dev->priv;
* Start the receive unit.
* (called by wv_hw_reset())
*/
-static inline int wv_ru_start(struct net_device * dev)
+static int wv_ru_start(struct net_device * dev)
{
net_local *lp = (net_local *) dev->priv;
unsigned long ioaddr = dev->base_addr;
*
* (called by wv_hw_reset())
*/
-static inline int wv_cu_start(struct net_device * dev)
+static int wv_cu_start(struct net_device * dev)
{
net_local *lp = (net_local *) dev->priv;
unsigned long ioaddr = dev->base_addr;
*
* (called by wv_hw_reset())
*/
-static inline int wv_82586_start(struct net_device * dev)
+static int wv_82586_start(struct net_device * dev)
{
net_local *lp = (net_local *) dev->priv;
unsigned long ioaddr = dev->base_addr;
* WaveLAN controller (i82586).
* (called by wavelan_close())
*/
-static inline void wv_82586_stop(struct net_device * dev)
+static void wv_82586_stop(struct net_device * dev)
{
net_local *lp = (net_local *) dev->priv;
unsigned long ioaddr = dev->base_addr;
*
***************************************************************************/
-static inline unsigned char
+static unsigned char
aic_inb(struct aic7xxx_host *p, long port)
{
#ifdef MMAPIO
#endif
}
-static inline void
+static void
aic_outb(struct aic7xxx_host *p, unsigned char val, long port)
{
#ifdef MMAPIO
ctask->digest_count = 4;
}
-static inline int
+static int
iscsi_digest_final_send(struct iscsi_conn *conn, struct iscsi_cmd_task *ctask,
struct iscsi_buf *buf, uint32_t *digest, int final)
{
{ ATA_SHIFT_PIO, XFER_PIO_0 },
};
-static inline u8 base_from_shift(unsigned int shift)
+static u8 base_from_shift(unsigned int shift)
{
int i;
* return the scb from the head of the free list. NULL if there are none
* available
**/
-static inline scb_t *
+static scb_t *
megaraid_alloc_scb(adapter_t *adapter, struct scsi_cmnd *scp)
{
struct list_head *head = &adapter->kscb_pool;
*
* prepare the scatter-gather list
*/
-static inline int
+static int
megaraid_mbox_mksgl(adapter_t *adapter, scb_t *scb)
{
struct scatterlist *sgl;
*
* post the command to the controller if mailbox is availble.
*/
-static inline int
+static int
mbox_post_cmd(adapter_t *adapter, scb_t *scb)
{
mraid_device_t *raid_dev = ADAP2RAIDDEV(adapter);
*
* Returns: 1 if the interrupt is valid, 0 otherwise
*/
-static inline int
+static int
megaraid_ack_sequence(adapter_t *adapter)
{
mraid_device_t *raid_dev = ADAP2RAIDDEV(adapter);
*
* DMA sync if required.
*/
-static inline void
+static void
megaraid_mbox_sync_scb(adapter_t *adapter, scb_t *scb)
{
mbox_ccb_t *ccb;
*
* Returns a free command from the pool
*/
-static inline struct megasas_cmd *megasas_get_cmd(struct megasas_instance
+static struct megasas_cmd *megasas_get_cmd(struct megasas_instance
*instance)
{
unsigned long flags;
* If successful, this function returns the number of SG elements. Otherwise,
* it returnes -1.
*/
-static inline int
+static int
megasas_make_sgl32(struct megasas_instance *instance, struct scsi_cmnd *scp,
union megasas_sgl *mfi_sgl)
{
* If successful, this function returns the number of SG elements. Otherwise,
* it returnes -1.
*/
-static inline int
+static int
megasas_make_sgl64(struct megasas_instance *instance, struct scsi_cmnd *scp,
union megasas_sgl *mfi_sgl)
{
* This function prepares CDB commands. These are typcially pass-through
* commands to the devices.
*/
-static inline int
+static int
megasas_build_dcdb(struct megasas_instance *instance, struct scsi_cmnd *scp,
struct megasas_cmd *cmd)
{
*
* Frames (and accompanying SGLs) for regular SCSI IOs use this function.
*/
-static inline int
+static int
megasas_build_ldio(struct megasas_instance *instance, struct scsi_cmnd *scp,
struct megasas_cmd *cmd)
{
* @scp: SCSI command
* @frame_count: [OUT] Number of frames used to prepare this command
*/
-static inline struct megasas_cmd *megasas_build_cmd(struct megasas_instance
+static struct megasas_cmd *megasas_build_cmd(struct megasas_instance
*instance,
struct scsi_cmnd *scp,
int *frame_count)
* @instance: Adapter soft state
* @cmd: Completed command
*/
-static inline void
+static void
megasas_unmap_sgbuf(struct megasas_instance *instance, struct megasas_cmd *cmd)
{
dma_addr_t buf_h;
* an alternate status (as in the case of aborted
* commands)
*/
-static inline void
+static void
megasas_complete_cmd(struct megasas_instance *instance, struct megasas_cmd *cmd,
u8 alt_status)
{
* SCSI mid-layer instead of the status
* returned by the FW
*/
-static inline int
+static int
megasas_deplete_reply_queue(struct megasas_instance *instance, u8 alt_status)
{
u32 status;
return cd;
}
-static inline void scsi_cd_put(struct scsi_cd *cd)
+static void scsi_cd_put(struct scsi_cd *cd)
{
struct scsi_device *sdev = cd->device;
** urbs **
************/
-static inline struct urb *usbatm_pop_urb(struct usbatm_channel *channel)
+static struct urb *usbatm_pop_urb(struct usbatm_channel *channel)
{
struct urb *urb;
return urb;
}
-static inline int usbatm_submit_urb(struct urb *urb)
+static int usbatm_submit_urb(struct urb *urb)
{
struct usbatm_channel *channel = urb->context;
int ret;
return 0;
}
-static inline int maven_program_timming(struct maven_data* md,
+static int maven_program_timming(struct maven_data* md,
const struct mavenregs* m) {
struct i2c_client* c = md->client;
return buf->p > buf->ep;
}
-static inline int buf_check_size(struct cbuf *buf, int len)
+static int buf_check_size(struct cbuf *buf, int len)
{
if (buf->p + len > buf->ep) {
if (buf->p < buf->ep) {
return 1;
}
-static inline void *buf_alloc(struct cbuf *buf, int len)
+static void *buf_alloc(struct cbuf *buf, int len)
{
void *ret = NULL;
return ret;
}
-static inline void buf_put_int8(struct cbuf *buf, u8 val)
+static void buf_put_int8(struct cbuf *buf, u8 val)
{
if (buf_check_size(buf, 1)) {
buf->p[0] = val;
}
}
-static inline void buf_put_int16(struct cbuf *buf, u16 val)
+static void buf_put_int16(struct cbuf *buf, u16 val)
{
if (buf_check_size(buf, 2)) {
*(__le16 *) buf->p = cpu_to_le16(val);
}
}
-static inline void buf_put_int32(struct cbuf *buf, u32 val)
+static void buf_put_int32(struct cbuf *buf, u32 val)
{
if (buf_check_size(buf, 4)) {
*(__le32 *)buf->p = cpu_to_le32(val);
}
}
-static inline void buf_put_int64(struct cbuf *buf, u64 val)
+static void buf_put_int64(struct cbuf *buf, u64 val)
{
if (buf_check_size(buf, 8)) {
*(__le64 *)buf->p = cpu_to_le64(val);
}
}
-static inline void buf_put_stringn(struct cbuf *buf, const char *s, u16 slen)
+static void buf_put_stringn(struct cbuf *buf, const char *s, u16 slen)
{
if (buf_check_size(buf, slen + 2)) {
buf_put_int16(buf, slen);
buf_put_stringn(buf, s, strlen(s));
}
-static inline u8 buf_get_int8(struct cbuf *buf)
+static u8 buf_get_int8(struct cbuf *buf)
{
u8 ret = 0;
return ret;
}
-static inline u16 buf_get_int16(struct cbuf *buf)
+static u16 buf_get_int16(struct cbuf *buf)
{
u16 ret = 0;
return ret;
}
-static inline u32 buf_get_int32(struct cbuf *buf)
+static u32 buf_get_int32(struct cbuf *buf)
{
u32 ret = 0;
return ret;
}
-static inline u64 buf_get_int64(struct cbuf *buf)
+static u64 buf_get_int64(struct cbuf *buf)
{
u64 ret = 0;
return ret;
}
-static inline void buf_get_str(struct cbuf *buf, struct v9fs_str *vstr)
+static void buf_get_str(struct cbuf *buf, struct v9fs_str *vstr)
{
vstr->len = buf_get_int16(buf);
if (!buf_check_overflow(buf) && buf_check_size(buf, vstr->len)) {
}
}
-static inline void buf_get_qid(struct cbuf *bufp, struct v9fs_qid *qid)
+static void buf_get_qid(struct cbuf *bufp, struct v9fs_qid *qid)
{
qid->type = buf_get_int8(bufp);
qid->version = buf_get_int32(bufp);
*
*/
-static inline void
+static void
buf_get_stat(struct cbuf *bufp, struct v9fs_stat *stat, int extended)
{
stat->size = buf_get_int16(bufp);
buf_put_int64(bufp, val);
}
-static inline void
+static void
v9fs_put_str(struct cbuf *bufp, char *data, struct v9fs_str *str)
{
if (data) {
buf_put_stringn(bufp, data, str->len);
}
-static inline int
+static int
v9fs_put_user_data(struct cbuf *bufp, const char __user * data, int count,
unsigned char **pdata)
{
if (!dump_seek(file, (off))) \
goto end_coredump;
-static inline void fill_elf_header(struct elfhdr *elf, int segs)
+static void fill_elf_header(struct elfhdr *elf, int segs)
{
memcpy(elf->e_ident, ELFMAG, SELFMAG);
elf->e_ident[EI_CLASS] = ELF_CLASS;
return;
}
-static inline void fill_elf_note_phdr(struct elf_phdr *phdr, int sz, off_t offset)
+static void fill_elf_note_phdr(struct elf_phdr *phdr, int sz, off_t offset)
{
phdr->p_type = PT_NOTE;
phdr->p_offset = offset;
return p - from;
}
-static inline char * check_special_flags (char * sfs, Node * e)
+static char * check_special_flags (char * sfs, Node * e)
{
char * p = sfs;
int cont = 1;
bio_free(bio, fs_bio_set);
}
-inline void bio_init(struct bio *bio)
+void bio_init(struct bio *bio)
{
bio->bi_next = NULL;
bio->bi_bdev = NULL;
* the actual data it points to. Reference count of returned
* bio will be one.
*/
-inline void __bio_clone(struct bio *bio, struct bio *bio_src)
+void __bio_clone(struct bio *bio, struct bio *bio_src)
{
request_queue_t *q = bdev_get_queue(bio_src->bi_bdev);
* some of those buffers may be aliases of filesystem data.
* grow_dev_page() will go BUG() if this happens.
*/
-static inline int
+static int
grow_buffers(struct block_device *bdev, sector_t block, int size)
{
struct page *page;
/*
* Look up the bh in this cpu's LRU. If it's there, move it to the head.
*/
-static inline struct buffer_head *
+static struct buffer_head *
lookup_bh_lru(struct block_device *bdev, sector_t block, int size)
{
struct buffer_head *ret = NULL;
/*
* Called when truncating a buffer on a page completely.
*/
-static inline void discard_buffer(struct buffer_head * bh)
+static void discard_buffer(struct buffer_head * bh)
{
lock_buffer(bh);
clear_buffer_dirty(bh);
* Ooo, nasty. We need here to frob 32-bit unsigned longs to
* 64-bit unsigned longs.
*/
-static inline
+static
int compat_get_fd_set(unsigned long nr, compat_ulong_t __user *ufdset,
unsigned long *fdset)
{
return 0;
}
-static inline
+static
void compat_set_fd_set(unsigned long nr, compat_ulong_t __user *ufdset,
unsigned long *fdset)
{
* d_iput() operation if defined.
* Called with dcache_lock and per dentry lock held, drops both.
*/
-static inline void dentry_iput(struct dentry * dentry)
+static void dentry_iput(struct dentry * dentry)
{
struct inode *inode = dentry->d_inode;
if (inode) {
* disturbing other processes. (Other processes might share the signal
* table via the CLONE_SIGHAND option to clone().)
*/
-static inline int de_thread(struct task_struct *tsk)
+static int de_thread(struct task_struct *tsk)
{
struct signal_struct *sig = tsk->signal;
struct sighand_struct *newsighand, *oldsighand = tsk->sighand;
* so that a new one can be started
*/
-static inline void flush_old_files(struct files_struct * files)
+static void flush_old_files(struct files_struct * files)
{
long j = -1;
struct fdtable *fdt;
EXPORT_SYMBOL(prepare_binprm);
-static inline int unsafe_exec(struct task_struct *p)
+static int unsafe_exec(struct task_struct *p)
{
int unsafe = 0;
if (p->ptrace & PT_PTRACED) {
spin_unlock(&files->file_lock);
}
-static inline int get_close_on_exec(unsigned int fd)
+static int get_close_on_exec(unsigned int fd)
{
struct files_struct *files = current->files;
struct fdtable *fdt;
ic = next_inode(&i, ic, (c)))
-static inline void jffs2_build_inode_pass1(struct jffs2_sb_info *c,
+static void jffs2_build_inode_pass1(struct jffs2_sb_info *c,
struct jffs2_inode_cache *ic)
{
struct jffs2_full_dirent *fd;
/*
* Allocate and initializes a new fragment.
*/
-static inline struct jffs2_node_frag * new_fragment(struct jffs2_full_dnode *fn, uint32_t ofs, uint32_t size)
+static struct jffs2_node_frag * new_fragment(struct jffs2_full_dnode *fn, uint32_t ofs, uint32_t size)
{
struct jffs2_node_frag *newfrag;
*
* Checks the node if we are in the checking stage.
*/
-static inline int check_node(struct jffs2_sb_info *c, struct jffs2_inode_info *f, struct jffs2_tmp_dnode_info *tn)
+static int check_node(struct jffs2_sb_info *c, struct jffs2_inode_info *f, struct jffs2_tmp_dnode_info *tn)
{
int ret;
/*
* XDR functions for basic NLM types
*/
-static inline u32 *nlm_decode_cookie(u32 *p, struct nlm_cookie *c)
+static u32 *nlm_decode_cookie(u32 *p, struct nlm_cookie *c)
{
unsigned int len;
return p;
}
-static inline u32 *
+static u32 *
nlm_decode_fh(u32 *p, struct nfs_fh *f)
{
unsigned int len;
return xdr_encode_netobj(p, oh);
}
-static inline u32 *
+static u32 *
nlm_decode_lock(u32 *p, struct nlm_lock *lock)
{
struct file_lock *fl = &lock->fl;
}
-static inline void
+static void
__mb_cache_entry_unhash(struct mb_cache_entry *ce)
{
int n;
}
-static inline void
+static void
__mb_cache_entry_forget(struct mb_cache_entry *ce, gfp_t gfp_mask)
{
struct mb_cache *cache = ce->e_cache;
}
-static inline void
+static void
__mb_cache_entry_release_unlock(struct mb_cache_entry *ce)
{
/* Wake up all processes queuing for this cache entry. */
* POSIX.1 2.4: an empty pathname is invalid (ENOENT).
* PATH_MAX includes the nul terminator --RR.
*/
-static inline int do_getname(const char __user *filename, char *page)
+static int do_getname(const char __user *filename, char *page)
{
int retval;
unsigned long len = PATH_MAX;
* short-cut DAC fails, then call permission() to do more
* complete permission check.
*/
-static inline int exec_permission_lite(struct inode *inode,
+static int exec_permission_lite(struct inode *inode,
struct nameidata *nd)
{
umode_t mode = inode->i_mode;
* 10. We don't allow removal of NFS sillyrenamed files; it's handled by
* nfs_async_unlink().
*/
-static inline int may_delete(struct inode *dir,struct dentry *victim,int isdir)
+static int may_delete(struct inode *dir,struct dentry *victim,int isdir)
{
int error;
return error;
}
-static inline int do_rename(const char * oldname, const char * newname)
+static int do_rename(const char * oldname, const char * newname)
{
int error = 0;
struct dentry * old_dir, * new_dir;
/*
* XDR functions for basic NFS types
*/
-static inline u32 *
+static u32 *
decode_fh(u32 *p, struct svc_fh *fhp)
{
fh_init(fhp, NFS_FHSIZE);
return p;
}
-static inline u32 *
+static u32 *
encode_fattr(struct svc_rqst *rqstp, u32 *p, struct svc_fh *fhp,
struct kstat *stat)
{
mutex_lock(PIPE_MUTEX(*inode));
}
-static inline int
+static int
pipe_iov_copy_from_user(void *to, struct iovec *iov, unsigned long len)
{
unsigned long copy;
return 0;
}
-static inline int
+static int
pipe_iov_copy_to_user(struct iovec *iov, const void *from, unsigned long len)
{
unsigned long copy;
* when reading out p->cpuset, as we don't really care if it changes
* on the next cycle, and we are not going to try to dereference it.
*/
-static inline int pid_array_load(pid_t *pidarray, int npids, struct cpuset *cs)
+static int pid_array_load(pid_t *pidarray, int npids, struct cpuset *cs)
{
int n = 0;
struct task_struct *g, *p;
return retval;
}
-static inline int has_stopped_jobs(int pgrp)
+static int has_stopped_jobs(int pgrp)
{
int retval = 0;
struct task_struct *p;
*
* NOTE that reparent_to_init() gives the caller full capabilities.
*/
-static inline void reparent_to_init(void)
+static void reparent_to_init(void)
{
write_lock_irq(&tasklist_lock);
EXPORT_SYMBOL(daemonize);
-static inline void close_files(struct files_struct * files)
+static void close_files(struct files_struct * files)
{
int i, j;
struct fdtable *fdt;
p->real_parent = reaper;
}
-static inline void reparent_thread(task_t *p, task_t *father, int traced)
+static void reparent_thread(task_t *p, task_t *father, int traced)
{
/* We don't want people slaying init. */
if (p->exit_signal != -1)
* group, and if no such member exists, give it to
* the global child reaper process (ie "init")
*/
-static inline void forget_original_parent(struct task_struct * father,
+static void forget_original_parent(struct task_struct * father,
struct list_head *to_release)
{
struct task_struct *p, *reaper = father;
return do_sys_settimeofday(tp, NULL);
}
-static inline int common_timer_create(struct k_itimer *new_timer)
+static int common_timer_create(struct k_itimer *new_timer)
{
hrtimer_init(&new_timer->it.real.timer, new_timer->it_clock);
new_timer->it.real.timer.data = new_timer;
return ret;
}
-static inline struct task_struct * good_sigevent(sigevent_t * event)
+static struct task_struct * good_sigevent(sigevent_t * event)
{
struct task_struct *rtn = current->group_leader;
/* Set a POSIX.1b interval timer. */
/* timr->it_lock is taken. */
-static inline int
+static int
common_timer_set(struct k_itimer *timr, int flags,
struct itimerspec *new_setting, struct itimerspec *old_setting)
{
/*
* return timer owned by the process, used by exit_itimers
*/
-static inline void itimer_delete(struct k_itimer *timer)
+static void itimer_delete(struct k_itimer *timer)
{
unsigned long flags;
* long it was waiting to run. We also note when it began so that we
* can keep stats on how long its timeslice is.
*/
-static inline void sched_info_arrive(task_t *t)
+static void sched_info_arrive(task_t *t)
{
unsigned long now = jiffies, diff = 0;
struct runqueue *rq = task_rq(t);
* We want to under-estimate the load of migration sources, to
* balance conservatively.
*/
-static inline unsigned long __source_load(int cpu, int type, enum idle_type idle)
+static unsigned long __source_load(int cpu, int type, enum idle_type idle)
{
runqueue_t *rq = cpu_rq(cpu);
unsigned long running = rq->nr_running;
* pull_task - move a task from a remote runqueue to the local runqueue.
* Both runqueues must be locked.
*/
-static inline
+static
void pull_task(runqueue_t *src_rq, prio_array_t *src_array, task_t *p,
runqueue_t *this_rq, prio_array_t *this_array, int this_cpu)
{
/*
* can_migrate_task - may task p from runqueue rq be migrated to this_cpu?
*/
-static inline
+static
int can_migrate_task(task_t *p, runqueue_t *rq, int this_cpu,
struct sched_domain *sd, enum idle_type idle,
int *all_pinned)
* idle_balance is called by schedule() if this_cpu is about to become
* idle. Attempts to pull tasks from other CPUs.
*/
-static inline void idle_balance(int this_cpu, runqueue_t *this_rq)
+static void idle_balance(int this_cpu, runqueue_t *this_rq)
{
struct sched_domain *sd;
resched_task(rq->idle);
}
-static inline void wake_sleeping_dependent(int this_cpu, runqueue_t *this_rq)
+static void wake_sleeping_dependent(int this_cpu, runqueue_t *this_rq)
{
struct sched_domain *tmp, *sd = NULL;
cpumask_t sibling_map;
return p->time_slice * (100 - sd->per_cpu_gain) / 100;
}
-static inline int dependent_sleeper(int this_cpu, runqueue_t *this_rq)
+static int dependent_sleeper(int this_cpu, runqueue_t *this_rq)
{
struct sched_domain *tmp, *sd = NULL;
cpumask_t sibling_map;
* Detach sched domains from a group of cpus specified in cpu_map
* These cpus will now be attached to the NULL domain
*/
-static inline void detach_destroy_domains(const cpumask_t *cpu_map)
+static void detach_destroy_domains(const cpumask_t *cpu_map)
{
int i;
spin_unlock_irqrestore(¤t->sighand->siglock, flags);
}
-static inline int collect_signal(int sig, struct sigpending *list, siginfo_t *info)
+static int collect_signal(int sig, struct sigpending *list, siginfo_t *info)
{
struct sigqueue *q, *first = NULL;
int still_pending = 0;
* We return zero if we still hold the siglock and should look
* for another signal without checking group_stop_count again.
*/
-static inline int handle_group_stop(void)
+static int handle_group_stop(void)
{
int stop_count;
return ret;
}
-static inline void run_workqueue(struct cpu_workqueue_struct *cwq)
+static void run_workqueue(struct cpu_workqueue_struct *cwq)
{
unsigned long flags;
MODULE_AUTHOR(DRV_COPYRIGHT);
MODULE_LICENSE("GPL");
-static inline int ieee80211_networks_allocate(struct ieee80211_device *ieee)
+static int ieee80211_networks_allocate(struct ieee80211_device *ieee)
{
if (ieee->networks)
return 0;
ieee->networks = NULL;
}
-static inline void ieee80211_networks_initialize(struct ieee80211_device *ieee)
+static void ieee80211_networks_initialize(struct ieee80211_device *ieee)
{
int i;
#include <net/ieee80211.h>
-static inline void ieee80211_monitor_rx(struct ieee80211_device *ieee,
+static void ieee80211_monitor_rx(struct ieee80211_device *ieee,
struct sk_buff *skb,
struct ieee80211_rx_stats *rx_stats)
{
* Responsible for handling management control frames
*
* Called by ieee80211_rx */
-static inline int
+static int
ieee80211_rx_frame_mgmt(struct ieee80211_device *ieee, struct sk_buff *skb,
struct ieee80211_rx_stats *rx_stats, u16 type,
u16 stype)
}
/* Called only as a tasklet (software IRQ), by ieee80211_rx */
-static inline int
+static int
ieee80211_rx_frame_decrypt(struct ieee80211_device *ieee, struct sk_buff *skb,
struct ieee80211_crypt_data *crypt)
{
}
/* Called only as a tasklet (software IRQ), by ieee80211_rx */
-static inline int
+static int
ieee80211_rx_frame_decrypt_msdu(struct ieee80211_device *ieee,
struct sk_buff *skb, int keyidx,
struct ieee80211_crypt_data *crypt)
/***************************************************/
-static inline int ieee80211_network_init(struct ieee80211_device *ieee, struct ieee80211_probe_response
+static int ieee80211_network_init(struct ieee80211_device *ieee, struct ieee80211_probe_response
*beacon,
struct ieee80211_network *network,
struct ieee80211_rx_stats *stats)
!memcmp(src->ssid, dst->ssid, src->ssid_len));
}
-static inline void update_network(struct ieee80211_network *dst,
+static void update_network(struct ieee80211_network *dst,
struct ieee80211_network *src)
{
int qos_active;
return (WLAN_FC_GET_STYPE(le16_to_cpu(fc)) == IEEE80211_STYPE_BEACON);
}
-static inline void ieee80211_process_probe_response(struct ieee80211_device
+static void ieee80211_process_probe_response(struct ieee80211_device
*ieee, struct
ieee80211_probe_response
*beacon, struct ieee80211_rx_stats
static u8 P802_1H_OUI[P80211_OUI_LEN] = { 0x00, 0x00, 0xf8 };
static u8 RFC1042_OUI[P80211_OUI_LEN] = { 0x00, 0x00, 0x00 };
-static inline int ieee80211_copy_snap(u8 * data, u16 h_proto)
+static int ieee80211_copy_snap(u8 * data, u16 h_proto)
{
struct ieee80211_snap_hdr *snap;
u8 *oui;
return SNAP_SIZE + sizeof(u16);
}
-static inline int ieee80211_encrypt_fragment(struct ieee80211_device *ieee,
+static int ieee80211_encrypt_fragment(struct ieee80211_device *ieee,
struct sk_buff *frag, int hdr_len)
{
struct ieee80211_crypt_data *crypt = ieee->crypt[ieee->tx_keyidx];
};
#define MAX_CUSTOM_LEN 64
-static inline char *ipw2100_translate_scan(struct ieee80211_device *ieee,
+static char *ipw2100_translate_scan(struct ieee80211_device *ieee,
char *start, char *stop,
struct ieee80211_network *network)
{
}
/* Process one complete nfnetlink message. */
-static inline int nfnetlink_rcv_msg(struct sk_buff *skb,
+static int nfnetlink_rcv_msg(struct sk_buff *skb,
struct nlmsghdr *nlh, int *errp)
{
struct nfnl_callback *nc;
has the same SID as the process. If av is zero, then
access to the file is not checked, e.g. for cases
where only the descriptor is affected like seek. */
-static inline int file_has_perm(struct task_struct *tsk,
+static int file_has_perm(struct task_struct *tsk,
struct file *file,
u32 av)
{
return 0;
}
-static inline int prog_dmabuf_dac(struct solo1_state *s)
+static int prog_dmabuf_dac(struct solo1_state *s)
{
unsigned long va;
int c;
apu_data_set(chip, data);
}
-static inline void apu_set_register(struct es1968 *chip, u16 channel, u8 reg, u16 data)
+static void apu_set_register(struct es1968 *chip, u16 channel, u8 reg, u16 data)
{
unsigned long flags;
spin_lock_irqsave(&chip->reg_lock, flags);
return __maestro_read(chip, IDR0_DATA_PORT);
}
-static inline u16 apu_get_register(struct es1968 *chip, u16 channel, u8 reg)
+static u16 apu_get_register(struct es1968 *chip, u16 channel, u8 reg)
{
unsigned long flags;
u16 v;
projects / linux-2.6-omap-h63xx.git / commitdiff