u8 service;
__le16 length;
__le16 crc16;
-};
+} __attribute__((packed));
static inline u8 zd_cck_plcp_header_rate(const struct cck_plcp_header *header)
{
u8 rt_rate;
u16 rt_channel;
u16 rt_chbitmask;
-};
+} __attribute__((packed));
static void fill_rt_header(void *buffer, struct zd_mac *mac,
const struct ieee80211_rx_stats *stats,
struct rx_length_info {
__le16 length[3];
__le16 tag;
-};
+} __attribute__((packed));
#define RX_LENGTH_INFO_TAG 0x697e
u8 signal_quality_ofdm;
u8 decryption_type;
u8 frame_status;
-};
+} __attribute__((packed));
/* rx_status field decryption_type */
#define ZD_RX_NO_WEP 0
return r;
}
-static void disable_read_regs_int(struct zd_usb *usb)
-{
- struct zd_usb_interrupt *intr = &usb->intr;
-
- spin_lock(&intr->lock);
- intr->read_regs_enabled = 0;
- spin_unlock(&intr->lock);
-}
-
#define urb_dev(urb) (&(urb)->dev->dev)
static inline void handle_regs_int(struct urb *urb)
{
struct zd_usb_interrupt *intr = &usb->intr;
- spin_lock(&intr->lock);
+ spin_lock_irq(&intr->lock);
intr->read_regs_enabled = 1;
INIT_COMPLETION(intr->read_regs.completion);
- spin_unlock(&intr->lock);
+ spin_unlock_irq(&intr->lock);
+}
+
+static void disable_read_regs_int(struct zd_usb *usb)
+{
+ struct zd_usb_interrupt *intr = &usb->intr;
+
+ spin_lock_irq(&intr->lock);
+ intr->read_regs_enabled = 0;
+ spin_unlock_irq(&intr->lock);
}
static int get_results(struct zd_usb *usb, u16 *values,
struct read_regs_int *rr = &intr->read_regs;
struct usb_int_regs *regs = (struct usb_int_regs *)rr->buffer;
- spin_lock(&intr->lock);
+ spin_lock_irq(&intr->lock);
r = -EIO;
/* The created block size seems to be larger than expected.
r = 0;
error_unlock:
- spin_unlock(&intr->lock);
+ spin_unlock_irq(&intr->lock);
return r;
}
struct usb_req_read_regs {
__le16 id;
__le16 addr[0];
-};
+} __attribute__((packed));
struct reg_data {
__le16 addr;
__le16 value;
-};
+} __attribute__((packed));
struct usb_req_write_regs {
__le16 id;
struct reg_data reg_writes[0];
-};
+} __attribute__((packed));
enum {
RF_IF_LE = 0x02,
/* RF2595: 24 */
__le16 bit_values[0];
/* (CR203 & ~(RF_IF_LE | RF_CLK | RF_DATA)) | (bit ? RF_DATA : 0) */
-};
+} __attribute__((packed));
/* USB interrupt */
struct usb_int_header {
u8 type; /* must always be 1 */
u8 id;
-};
+} __attribute__((packed));
struct usb_int_regs {
struct usb_int_header hdr;
struct reg_data regs[0];
-};
+} __attribute__((packed));
struct usb_int_retry_fail {
struct usb_int_header hdr;
u8 _dummy;
u8 addr[ETH_ALEN];
u8 ibss_wakeup_dest;
-};
+} __attribute__((packed));
struct read_regs_int {
struct completion completion;
* this stack is providing the full 802.11 header, one will
* eventually be affixed to this fragment -- so we must account
* for it when determining the amount of payload space. */
- bytes_per_frag = frag_size - IEEE80211_3ADDR_LEN;
+ bytes_per_frag = frag_size - hdr_len;
if (ieee->config &
(CFG_IEEE80211_COMPUTE_FCS | CFG_IEEE80211_RESERVE_FCS))
bytes_per_frag -= IEEE80211_FCS_LEN;
} else {
nr_frags = 1;
bytes_per_frag = bytes_last_frag = bytes;
- frag_size = bytes + IEEE80211_3ADDR_LEN;
+ frag_size = bytes + hdr_len;
}
rts_required = (frag_size > ieee->rts
sm->scanning = 1;
spin_unlock_irqrestore(&sm->lock, flags);
- netif_tx_disable(sm->ieee->dev);
ret = sm->start_scan(sm->dev);
if (ret) {
spin_lock_irqsave(&sm->lock, flags);
if (net)
sm->set_channel(sm->dev, net->channel);
}
- netif_wake_queue(sm->ieee->dev);
ieee80211softmac_call_events(sm, IEEE80211SOFTMAC_EVENT_SCAN_FINISHED, NULL);
}
EXPORT_SYMBOL_GPL(ieee80211softmac_scan_finished);