int
nvram_set(const char *name, const char *value)
{
unsigned long flags;
struct nvram_header *header;
int ret;
if (!name)
return -EINVAL;
// Check early write
if (nvram_major < 0)
return 0;
spin_lock_irqsave(&nvram_lock, flags);
if ((ret = _nvram_set(name, value))) {
/* Consolidate space and try again */
if ((header = kmalloc(NVRAM_SPACE, GFP_ATOMIC))) {
if (_nvram_commit(header) == 0) {
ret = _nvram_set(name, value);
}
kfree(header);
}
}
spin_unlock_irqrestore(&nvram_lock, flags);
return ret;
}
int
BCMINITFN(nvram_commit_internal)(bool nvram_corrupt)
{
struct nvram_header *header;
int ret;
uint32 *src, *dst;
uint i;
if (!(header = (struct nvram_header *) MALLOC(NULL, MAX_NVRAM_SPACE))) {
printf("nvram_commit: out of memory\n");
return -12; /* -ENOMEM */
}
NVRAM_LOCK();
/* Regenerate NVRAM */
ret = _nvram_commit(header);
if (ret)
goto done;
src = (uint32 *) &header[1];
dst = src;
for (i = sizeof(struct nvram_header); i < header->len && i < MAX_NVRAM_SPACE; i += 4)
*dst++ = htol32(*src++);
#ifdef _CFE_
if ((ret = cfe_open(flashdrv_nvram)) >= 0) {
if (nvram_corrupt) {
printf("Corrupting NVRAM...\n");
header->magic = NVRAM_INVALID_MAGIC;
}
cfe_writeblk(ret, 0, (unsigned char *) header, header->len);
cfe_close(ret);
}
#else
if (sysFlashInit(NULL) == 0) {
/* set/write invalid MAGIC # (in case writing image fails/is interrupted)
* write the NVRAM image to flash(with invalid magic)
* set/write valid MAGIC #
*/
header->magic = NVRAM_CLEAR_MAGIC;
nvWriteChars((unsigned char *)&header->magic, sizeof(header->magic));
header->magic = NVRAM_INVALID_MAGIC;
nvWrite((unsigned short *) header, MAX_NVRAM_SPACE);
header->magic = NVRAM_MAGIC;
nvWriteChars((unsigned char *)&header->magic, sizeof(header->magic));
}
#endif /* ifdef _CFE_ */
done:
NVRAM_UNLOCK();
MFREE(NULL, header, MAX_NVRAM_SPACE);
return ret;
}
int nvram_commit(void)
{
LOCK_NVRAM();
int stat=0;
if(!(_nvram!=NULL)) _nvram = _lib_nvram_open_staging();
stat= _nvram_commit(_nvram);
stat = staging_to_nvram();
UNLOCK_NVRAM();
return stat;
}
int
nvram_commit(void)
{
struct nvram_header *header;
int ret;
uint32 *src, *dst;
uint i;
uint32 err_addr;
if (!(header = (struct nvram_header *) MALLOC(NULL, NVRAM_SPACE))) {
printf("nvram_commit: out of memory\n");
return -12;
}
NVRAM_LOCK();
ret = _nvram_commit(header);
if (ret)
goto done;
src = (uint32 *) &header[1];
dst = src;
for (i = sizeof(struct nvram_header); i < header->len && i < NVRAM_SPACE;
i += 4)
*dst++ = htol32(*src++);
if (sysFlashInit(NULL) == 0) {
/* set/write invalid MAGIC # (in case writing image fails/is interrupted)
* write the NVRAM image to flash(with invalid magic)
* set/write valid MAGIC #
*/
header->magic = NVRAM_CLEAR_MAGIC;
nvWriteChars((unsigned char *)&header->magic, sizeof(header->magic));
header->magic = NVRAM_INVALID_MAGIC;
nvWrite((unsigned short *) header, NVRAM_SPACE);
header->magic = NVRAM_MAGIC;
nvWriteChars((unsigned char *)&header->magic, sizeof(header->magic));
}
done:
NVRAM_UNLOCK();
MFREE(NULL, header, NVRAM_SPACE);
return ret;
}
int
nvram_set(const char *name, const char *value)
{
unsigned long flags;
int ret;
struct nvram_header *header;
spin_lock_irqsave(&nvram_lock, flags);
#ifdef CFE_UPDATE //write back to default sector as well, Chen-I
if(strncmp(name, CFE_NVRAM_PREFIX, strlen(CFE_NVRAM_PREFIX))==0)
{
if(strcmp(name, CFE_NVRAM_COMMIT)==0)
{
#ifdef CONFIG_MTD_NFLASH
spin_unlock_irqrestore(&nvram_lock, flags);
return cfe_commit();
#else
cfe_commit();
#endif
}
else if(strcmp(name, "asuscfe_dump") == 0)
ret = cfe_dump();
else if(strcmp(name, CFE_NVRAM_WATCHDOG)==0)
{
bcm947xx_watchdog_disable();
}
else
{
cfe_update(name+strlen(CFE_NVRAM_PREFIX), value);
_nvram_set(name+strlen(CFE_NVRAM_PREFIX), value);
}
}
else
#endif
if ((ret = _nvram_set(name, value))) {
printk( KERN_INFO "nvram: consolidating space!\n");
/* Consolidate space and try again */
if ((header = kmalloc(nvram_space, GFP_ATOMIC))) {
if (_nvram_commit(header) == 0)
ret = _nvram_set(name, value);
kfree(header);
}
}
spin_unlock_irqrestore(&nvram_lock, flags);
return ret;
}
int
nvram_nflash_commit(void)
{
char *buf;
size_t len, magic_len;
unsigned int i;
int ret;
struct nvram_header *header;
unsigned long flags;
u_int32_t offset;
struct erase_info erase;
if (!(buf = kmalloc(NVRAM_SPACE, GFP_KERNEL))) {
printk("nvram_commit: out of memory\n");
return -ENOMEM;
}
down(&nvram_sem);
offset = 0;
header = (struct nvram_header *)buf;
header->magic = NVRAM_MAGIC;
/* reset MAGIC before we regenerate the NVRAM,
* otherwise we'll have an incorrect CRC
*/
/* Regenerate NVRAM */
spin_lock_irqsave(&nvram_lock, flags);
ret = _nvram_commit(header);
spin_unlock_irqrestore(&nvram_lock, flags);
if (ret)
goto done;
/* Write partition up to end of data area */
i = header->len;
ret = nvram_mtd->write(nvram_mtd, offset, i, &len, buf);
if (ret || len != i) {
printk("nvram_commit: write error\n");
ret = -EIO;
goto done;
}
done:
up(&nvram_sem);
kfree(buf);
return ret;
}
int
nvram_commit(void)
{
struct nvram_header *header;
int ret;
uint32 *src, *dst;
uint i;
if (!(header = (struct nvram_header *) MALLOC(NVRAM_SPACE))) {
printf("nvram_commit: out of memory\n");
return -12; /* -ENOMEM */
}
NVRAM_LOCK();
/* Regenerate NVRAM */
ret = _nvram_commit(header);
if (ret)
goto done;
src = (uint32 *) &header[1];
dst = src;
for (i = sizeof(struct nvram_header); i < header->len && i < NVRAM_SPACE; i += 4)
*dst++ = htol32(*src++);
#ifdef ASUS
#else
#ifdef _CFE_
if ((ret = cfe_open("flash0.nvram")) >= 0) {
cfe_writeblk(ret, 0, (unsigned char *) header, NVRAM_SPACE);
cfe_close(ret);
}
#else
if (flash_init((void *) FLASH_BASE, NULL) == 0)
nvWrite((unsigned short *) header, NVRAM_SPACE);
#endif
#endif
done:
NVRAM_UNLOCK();
MFREE(header, NVRAM_SPACE);
return ret;
}
int
BCMINITFN(nvram_reinit_hash)(void)
{
struct nvram_header *header;
int ret;
if (!(header = (struct nvram_header *) MALLOC(NULL, MAX_NVRAM_SPACE))) {
printf("nvram_reinit_hash: out of memory\n");
return -12; /* -ENOMEM */
}
NVRAM_LOCK();
/* Regenerate NVRAM */
ret = _nvram_commit(header);
NVRAM_UNLOCK();
MFREE(NULL, header, MAX_NVRAM_SPACE);
return ret;
}
int
nvram_set(const char *name, const char *value)
{
unsigned long flags;
int ret;
struct nvram_header *header;
spin_lock_irqsave(&nvram_lock, flags);
if ((ret = _nvram_set(name, value))) {
printk( KERN_INFO "nvram: consolidating space!\n");
/* Consolidate space and try again */
if ((header = kmalloc(nvram_space, GFP_ATOMIC))) {
if (_nvram_commit(header) == 0)
ret = _nvram_set(name, value);
kfree(header);
}
}
spin_unlock_irqrestore(&nvram_lock, flags);
return ret;
}
int
nvram_commit(void)
{
unsigned long flags;
unsigned char *buf;
int ret;
// Check early commit
if (nvram_major < 0)
return 0;
if (!(buf = kmalloc(NVRAM_SPACE, GFP_KERNEL))) {
printk("nvram_commit: out of memory\n");
return -ENOMEM;
}
/* Regenerate NVRAM */
spin_lock_irqsave(&nvram_lock, flags);
ret = _nvram_commit((struct nvram_header *)buf);
spin_unlock_irqrestore(&nvram_lock, flags);
if (ret)
goto done;
mutex_lock(&nvram_sem);
/* Write partition up to end of data area */
ret = ra_mtd_write_nm(MTD_NVRAM_NAME, NVRAM_MTD_OFFSET, NVRAM_SPACE, buf);
if (ret) {
printk("nvram_commit: write error\n");
}
mutex_unlock(&nvram_sem);
done:
kfree(buf);
return ret;
}
int
nvram_commit(void)
{
#if 0
char *buf;
#endif
size_t erasesize, len, magic_len;
unsigned int i;
int ret;
struct nvram_header *header;
unsigned long flags;
u_int32_t offset;
DECLARE_WAITQUEUE(wait, current);
wait_queue_head_t wait_q;
struct erase_info erase;
u_int32_t magic_offset = 0; /* Offset for writing MAGIC # */
u_int32_t nvramlen;
if (!nvram_mtd) {
printk("nvram_commit: NVRAM not found\n");
return -ENODEV;
}
if (in_interrupt()) {
printk("nvram_commit: not committing in interrupt\n");
return -EINVAL;
}
#ifdef NFLASH_SUPPORT
if (nvram_mtd->type == MTD_NANDFLASH)
return nvram_nflash_commit();
#endif
/* Backup sector blocks to be erased */
erasesize = ROUNDUP(nvram_space, nvram_mtd->erasesize);
#if 0
if (!(buf = kmalloc(erasesize, GFP_KERNEL))) {
printk("nvram_commit: out of memory\n");
return -ENOMEM;
}
#endif
down(&nvram_sem);
if ((i = erasesize - nvram_space) > 0) {
offset = nvram_mtd->size - erasesize;
len = 0;
ret = nvram_mtd->read(nvram_mtd, offset, i, &len, nvram_commit_buf);
if (ret || len != i) {
printk("nvram_commit: read error ret = %d, len = %d/%d\n", ret, len, i);
ret = -EIO;
goto done;
}
header = (struct nvram_header *)(nvram_commit_buf + i);
magic_offset = i + ((void *)&header->magic - (void *)header);
} else {
offset = nvram_mtd->size - nvram_space;
magic_offset = ((void *)&header->magic - (void *)header);
header = (struct nvram_header *)nvram_commit_buf;
}
/* clear the existing magic # to mark the NVRAM as unusable
* we can pull MAGIC bits low without erase
*/
header->magic = NVRAM_CLEAR_MAGIC; /* All zeros magic */
/* Unlock sector blocks */
if (nvram_mtd->unlock)
nvram_mtd->unlock(nvram_mtd, offset, nvram_mtd->erasesize);
ret = nvram_mtd->write(nvram_mtd, offset + magic_offset, sizeof(header->magic),
&magic_len, (char *)&header->magic);
if (ret || magic_len != sizeof(header->magic)) {
printk("nvram_commit: clear MAGIC error\n");
ret = -EIO;
goto done;
}
header->magic = NVRAM_MAGIC;
/* reset MAGIC before we regenerate the NVRAM,
* otherwise we'll have an incorrect CRC
*/
/* Regenerate NVRAM */
spin_lock_irqsave(&nvram_lock, flags);
ret = _nvram_commit(header);
spin_unlock_irqrestore(&nvram_lock, flags);
if (ret)
goto done;
#ifdef NVRAM2HANDLER
nvramlen = header->len + find_next_header_len(header);
//printk("nvramlen: %x\n", nvramlen);
#else
nvramlen = header->len;
#endif
/* Erase sector blocks */
init_waitqueue_head(&wait_q);
for (; offset < nvram_mtd->size - nvram_space + nvramlen;
offset += nvram_mtd->erasesize) {
erase.mtd = nvram_mtd;
erase.addr = offset;
erase.len = nvram_mtd->erasesize;
erase.callback = erase_callback;
erase.priv = (u_long) &wait_q;
set_current_state(TASK_INTERRUPTIBLE);
add_wait_queue(&wait_q, &wait);
/* Unlock sector blocks */
if (nvram_mtd->unlock)
nvram_mtd->unlock(nvram_mtd, offset, nvram_mtd->erasesize);
if ((ret = nvram_mtd->erase(nvram_mtd, &erase))) {
set_current_state(TASK_RUNNING);
remove_wait_queue(&wait_q, &wait);
printk("nvram_commit: erase error\n");
goto done;
}
/* Wait for erase to finish */
schedule();
remove_wait_queue(&wait_q, &wait);
}
/* Write partition up to end of data area */
header->magic = NVRAM_INVALID_MAGIC; /* All ones magic */
offset = nvram_mtd->size - erasesize;
i = erasesize - nvram_space + nvramlen;
ret = nvram_mtd->write(nvram_mtd, offset, i, &len, nvram_commit_buf);
if (ret || len != i) {
printk("nvram_commit: write error\n");
ret = -EIO;
goto done;
}
/* Now mark the NVRAM in flash as "valid" by setting the correct
* MAGIC #
*/
header->magic = NVRAM_MAGIC;
ret = nvram_mtd->write(nvram_mtd, offset + magic_offset, sizeof(header->magic),
&magic_len, (char *)&header->magic);
if (ret || magic_len != sizeof(header->magic)) {
printk("nvram_commit: write MAGIC error\n");
ret = -EIO;
goto done;
}
offset = nvram_mtd->size - erasesize;
ret = nvram_mtd->read(nvram_mtd, offset, 4, &len, nvram_commit_buf);
#ifdef RTN66U_NVRAM_64K_SUPPORT /*Only for RT-N66U upgrade from nvram 32K -> 64K*/
if(nvramlen<0x8001){
char *log_buf;
u_int32_t offset_t;
size_t log_len;
offset_t = 0x18000;
log_buf =0x01020304;
ret = nvram_mtd->write(nvram_mtd, offset_t, sizeof(log_buf), &log_len, &log_buf);
}
#endif
done:
up(&nvram_sem);
#if 0
kfree(buf);
#endif
return ret;
}
int
_nvram_read(char *buf)
{
struct nvram_header *header = (struct nvram_header *) buf;
size_t len;
int offset = 0;
if (nvram_mtd) {
#ifdef NFLASH_SUPPORT
if (nvram_mtd->type == MTD_NANDFLASH)
offset = 0;
else
#endif
offset = nvram_mtd->size - nvram_space;
}
#ifdef RTN66U_NVRAM_64K_SUPPORT /*Only for RT-N66U upgrade from nvram 32K -> 64K*/
if (nvram_32_reset==1 ||
!nvram_mtd ||
nvram_mtd->read(nvram_mtd, offset, nvram_space, &len, buf) ||
len != nvram_space ||
header->magic != NVRAM_MAGIC) {
nvram_32_reset=0;
#else
if (nvram_inram || !nvram_mtd ||
nvram_mtd->read(nvram_mtd, offset, nvram_space, &len, buf) ||
len != nvram_space ||
header->magic != NVRAM_MAGIC) {
#endif
/* Maybe we can recover some data from early initialization */
if (nvram_inram)
printk("Sourcing NVRAM from ram\n");
memcpy(buf, nvram_buf, nvram_space);
}
return 0;
}
struct nvram_tuple *
_nvram_realloc(struct nvram_tuple *t, const char *name, const char *value)
{
if ((nvram_offset + strlen(value) + 1) > nvram_space)
return NULL;
if (!t) {
if (!(t = kmalloc(sizeof(struct nvram_tuple) + strlen(name) + 1, GFP_ATOMIC)))
return NULL;
/* Copy name */
t->name = (char *) &t[1];
strcpy(t->name, name);
t->value = NULL;
}
/* Copy value */
if (!t->value || strcmp(t->value, value)) {
t->value = &nvram_buf[nvram_offset];
strcpy(t->value, value);
nvram_offset += strlen(value) + 1;
}
return t;
}
void
_nvram_free(struct nvram_tuple *t)
{
if (!t)
nvram_offset = 0;
else
kfree(t);
}
int
nvram_init(void *sih)
{
return 0;
}
int
nvram_set(const char *name, const char *value)
{
unsigned long flags;
int ret;
struct nvram_header *header;
spin_lock_irqsave(&nvram_lock, flags);
#ifdef CFE_UPDATE //write back to default sector as well, Chen-I
if(strncmp(name, CFE_NVRAM_PREFIX, strlen(CFE_NVRAM_PREFIX))==0)
{
if(strcmp(name, CFE_NVRAM_COMMIT)==0)
cfe_commit();
else if(strcmp(name, "asuscfe_dump") == 0)
ret = cfe_dump();
else if(strcmp(name, CFE_NVRAM_WATCHDOG)==0)
{
bcm947xx_watchdog_disable();
}
else
{
cfe_update(name+strlen(CFE_NVRAM_PREFIX), value);
_nvram_set(name+strlen(CFE_NVRAM_PREFIX), value);
}
}
else
#endif
if ((ret = _nvram_set(name, value))) {
/* Consolidate space and try again */
if ((header = kmalloc(nvram_space, GFP_ATOMIC))) {
if (_nvram_commit(header) == 0)
ret = _nvram_set(name, value);
kfree(header);
}
}
spin_unlock_irqrestore(&nvram_lock, flags);
return ret;
}
int
nvram_commit(void)
{
char *buf;
size_t erasesize, len, magic_len;
unsigned int i;
int ret;
struct nvram_header *header;
unsigned long flags;
u_int32_t offset;
DECLARE_WAITQUEUE(wait, current);
wait_queue_head_t wait_q;
struct erase_info erase;
u_int32_t magic_offset = 0; /* Offset for writing MAGIC # */
if (!nvram_mtd) {
printk("nvram_commit: NVRAM not found\n");
return -ENODEV;
}
if (in_interrupt()) {
printk("nvram_commit: not committing in interrupt\n");
return -EINVAL;
}
/* Backup sector blocks to be erased */
erasesize = ROUNDUP(NVRAM_SPACE, nvram_mtd->erasesize);
if (!(buf = kmalloc(erasesize, GFP_KERNEL))) {
printk("nvram_commit: out of memory\n");
return -ENOMEM;
}
down(&nvram_sem);
if ((i = erasesize - NVRAM_SPACE) > 0) {
offset = nvram_mtd->size - erasesize;
len = 0;
ret = MTD_READ(nvram_mtd, offset, i, &len, buf);
if (ret || len != i) {
printk("nvram_commit: read error ret = %d, len = %d/%d\n", ret, len, i);
ret = -EIO;
goto done;
}
header = (struct nvram_header *)(buf + i);
magic_offset = i + ((void *)&header->magic - (void *)header);
} else {
offset = nvram_mtd->size - NVRAM_SPACE;
magic_offset = ((void *)&header->magic - (void *)header);
header = (struct nvram_header *)buf;
}
/* clear the existing magic # to mark the NVRAM as unusable
we can pull MAGIC bits low without erase */
header->magic = NVRAM_CLEAR_MAGIC; /* All zeros magic */
/* Unlock sector blocks (for Intel 28F320C3B flash) , 20060309 */
if(nvram_mtd->unlock)
nvram_mtd->unlock(nvram_mtd, offset, nvram_mtd->erasesize);
ret = MTD_WRITE(nvram_mtd, offset + magic_offset, sizeof(header->magic),
&magic_len, (char *)&header->magic);
if (ret || magic_len != sizeof(header->magic)) {
printk("nvram_commit: clear MAGIC error\n");
ret = -EIO;
goto done;
}
header->magic = NVRAM_MAGIC; /* reset MAGIC before we regenerate the NVRAM,
otherwise we'll have an incorrect CRC */
/* Regenerate NVRAM */
spin_lock_irqsave(&nvram_lock, flags);
ret = _nvram_commit(header);
spin_unlock_irqrestore(&nvram_lock, flags);
if (ret)
goto done;
/* Erase sector blocks */
init_waitqueue_head(&wait_q);
for (; offset < nvram_mtd->size - NVRAM_SPACE + header->len; offset += nvram_mtd->erasesize) {
erase.mtd = nvram_mtd;
erase.addr = offset;
erase.len = nvram_mtd->erasesize;
erase.callback = erase_callback;
erase.priv = (u_long) &wait_q;
set_current_state(TASK_INTERRUPTIBLE);
add_wait_queue(&wait_q, &wait);
/* Unlock sector blocks */
if (nvram_mtd->unlock)
nvram_mtd->unlock(nvram_mtd, offset, nvram_mtd->erasesize);
if ((ret = MTD_ERASE(nvram_mtd, &erase))) {
set_current_state(TASK_RUNNING);
remove_wait_queue(&wait_q, &wait);
printk("nvram_commit: erase error\n");
goto done;
}
/* Wait for erase to finish */
schedule();
remove_wait_queue(&wait_q, &wait);
}
/* Write partition up to end of data area */
header->magic = NVRAM_INVALID_MAGIC; /* All ones magic */
offset = nvram_mtd->size - erasesize;
i = erasesize - NVRAM_SPACE + header->len;
ret = MTD_WRITE(nvram_mtd, offset, i, &len, buf);
if (ret || len != i) {
printk("nvram_commit: write error\n");
ret = -EIO;
goto done;
}
/* Now mark the NVRAM in flash as "valid" by setting the correct
MAGIC # */
header->magic = NVRAM_MAGIC;
ret = MTD_WRITE(nvram_mtd, offset + magic_offset, sizeof(header->magic),
&magic_len, (char *)&header->magic);
if (ret || magic_len != sizeof(header->magic)) {
printk("nvram_commit: write MAGIC error\n");
ret = -EIO;
goto done;
}
/*
* Reading a few bytes back here will put the device
* back to the correct mode on certain flashes */
offset = nvram_mtd->size - erasesize;
ret = MTD_READ(nvram_mtd, offset, 4, &len, buf);
done:
up(&nvram_sem);
kfree(buf);
return ret;
}
int
nvram_set(const char *name, const char *value)
{
unsigned long flags;
int ret;
struct nvram_header *header;
#if WPS
char wps_name[32];
int wep_len;
#endif
spin_lock_irqsave(&nvram_lock, flags);
//printk("nvram_set: name = %s, value = %s!\n", name, value);
#ifdef CFE_UPDATE
// write back to default sector as well, Chen-I
if(strncmp(name, CFE_NVRAM_PREFIX, strlen(CFE_NVRAM_PREFIX))==0)
{
if(strcmp(name, CFE_NVRAM_COMMIT)==0)
cfe_commit();
else if(strcmp(name, "asuscfe_dump") == 0)
ret = cfe_dump();
else if(strcmp(name, CFE_NVRAM_WATCHDOG)==0)
{
bcm947xx_watchdog_disable();
}
else
{
cfe_update(name+strlen(CFE_NVRAM_PREFIX), value);
_nvram_set(name+strlen(CFE_NVRAM_PREFIX), value);
}
}
else
#endif /* CFE_UPDATE */
#if WPS
if (strncmp(name, "wlx_", 4) == 0) {
memset(wps_name, 0, sizeof(wps_name));
sprintf(wps_name, "wl0_%s", name+4);
ret = _nvram_set(wps_name, value);
spin_unlock_irqrestore(&nvram_lock, flags);
return ret;
}
if (strncmp(name, "wl0_", 4) == 0)
{
/* Authentication mode */
if (strncmp(name, "wl0_akm", 7) == 0) {
if (strncmp(value, "psk2", 4) == 0) { // WPA2-Personal
_nvram_set("wl_auth_mode", "psk");
_nvram_set("wl_wpa_mode", "2");
}
else if (strncmp(value, "psk ", 4) == 0) { // WPA-Auto-Personal
_nvram_set("wl_auth_mode", "psk");
_nvram_set("wl_wpa_mode", "0");
}
else if (strncmp(value, "psk", 3) == 0) { // WPA-Personal
_nvram_set("wl_auth_mode", "psk");
_nvram_set("wl_wpa_mode", "1");
}
else if (strncmp(value, "wpa2", 4) == 0) { // WPA2-Enterprise
_nvram_set("wl_auth_mode", "wpa2");
}
else if (strncmp(value, "wpa ", 4) == 0) { // WPA-Auto-Enterprise
_nvram_set("wl_wpa_mode", "4");
_nvram_set("wl_auth_mode", "wpa");
}
else if (strncmp(value, "wpa", 3) == 0) { // WPA-Enterprise
_nvram_set("wl_wpa_mode", "3");
_nvram_set("wl_auth_mode", "wpa");
}
_nvram_set("wl_akm", value);
}
/* WPS KEY*/
else if (strcmp(name, "wl0_wpa_psk") == 0) {
_nvram_set("wl_wpa_psk", value);
}
/* WEP type */
#if 1
else if ((strncmp(name, "wl0_key", 7) == 0 )) {
wep_len = strlen (value);
memset(wps_name, 0, sizeof(wps_name));
if ((wep_len == 5) || (wep_len == 10)) { /* wl0_key1~4*/
// _nvram_set ("wl0_wep_x", "1");
_nvram_set ("wl_wep_x", "1");
sprintf(wps_name, "wl_%s", name+4);
}
else if ((wep_len == 13) || (wep_len == 26)) {
// _nvram_set ("wl0_wep_x", "2");
_nvram_set ("wl_wep_x", "2");
sprintf(wps_name, "wl_%s", name+4);
}
else { /* wl0_key index */
sprintf(wps_name, "wl_%s", name+4);
}
_nvram_set(wps_name, value);
}
#endif
else if (strcmp(name, "wl0_ssid") == 0) {
// _nvram_set("wl0_ssid2", value);
// _nvram_set("wl_ssid2", value);
_nvram_set("wl_ssid", value);
}
else if (strcmp(name, "wl0_crypto") == 0) {
_nvram_set("wl_crypto", value);
}
else if (strncmp(name, "wl0_wps", 7) == 0) {
memset(wps_name, 0, sizeof(wps_name));
sprintf(wps_name, "wl_%s", name+4);
_nvram_set(wps_name, value);
}
}
else if (strncmp(name, "wps_random_ssid_prefix", 22) == 0) {
memset(wps_name, 0, sizeof(wps_name));
sprintf(wps_name, "ASUS_");
ret = _nvram_set("wps_random_ssid_prefix", wps_name);
spin_unlock_irqrestore(&nvram_lock, flags);
return ret;
}
if ((strcmp(name, "wl_wps_config_state") == 0) || (strcmp(name, "wl0_wps_config_state") == 0))
_nvram_set("wps_config_state", value);
// else if ((strncmp(name, "wps_proc_status", 15) == 0 ) && (strcmp(value, "4"))) /* WPS success*/
// _nvram_set("wps_config_state", "1");
#if 0
if(!strcmp(name, "wl0_ssid"))
_nvram_set("wl_ssid", value);
if(!strcmp(name, "wl0_ssid"))
_nvram_set("wl_ssid", value);
/* Set Wireless encryption */
if (!strcmp(name, "wl0_akm")) {
_nvram_set("wl_auth_mode", "psk");
_nvram_set("wl_wpa_mode", "1");
}
else if (!strcmp("wl0_akm", "psk2")) {
_nvram_set("wl_auth_mode", "psk");
_nvram_set("wl_wpa_mode", "2");
}
else if (nvram_match("wl0_akm", "wpa")) {
_nvram_set("wl_auth_mode", "wpa");
_nvram_set("wl_wpa_mode", "3");
}
else if (nvram_match("wl0_akm", "wpa2")) {
_nvram_set("wl_auth_mode", "wpa2");
}
else
_nvram_set("wl_auth_mode", nvram_get("wl0_auth_mode"));
#endif
#endif /* WPS */
if ((ret = _nvram_set(name, value))) {
/* Consolidate space and try again */
if ((header = kmalloc(NVRAM_SPACE, GFP_ATOMIC))) {
if (_nvram_commit(header) == 0)
ret = _nvram_set(name, value);
kfree(header);
}
}
spin_unlock_irqrestore(&nvram_lock, flags);
return ret;
}
