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rtl8812au/os_dep/osdep_service.c
Tuomo Untinen 1c8945ba92 Adds definite sizes for MTUs. 
This will add minimum mtu size, default and maximum mtu sizes.
For monitor interface and netdevice default MTU will be set to
WLAN_DATA_MAXLEN.
For ethernet devices default MTU size will be WLAN_MAX_ETHFRM_LEN.
2019-09-19 08:50:13 +03:00

2624 lines
52 KiB
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/******************************************************************************
*
* Copyright(c) 2007 - 2017 Realtek Corporation.
*
* This program is free software; you can redistribute it and/or modify it
* under the terms of version 2 of the GNU General Public License as
* published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for
* more details.
*
*****************************************************************************/
#define _OSDEP_SERVICE_C_
#include <drv_types.h>
#define RT_TAG '1178'
#ifdef DBG_MEMORY_LEAK
#ifdef PLATFORM_LINUX
atomic_t _malloc_cnt = ATOMIC_INIT(0);
atomic_t _malloc_size = ATOMIC_INIT(0);
#endif
#endif /* DBG_MEMORY_LEAK */
#if defined(PLATFORM_LINUX)
/*
* Translate the OS dependent @param error_code to OS independent RTW_STATUS_CODE
* @return: one of RTW_STATUS_CODE
*/
inline int RTW_STATUS_CODE(int error_code)
{
if (error_code >= 0)
return _SUCCESS;
switch (error_code) {
/* case -ETIMEDOUT: */
/* return RTW_STATUS_TIMEDOUT; */
default:
return _FAIL;
}
}
#else
inline int RTW_STATUS_CODE(int error_code)
{
return error_code;
}
#endif
u32 rtw_atoi(u8 *s)
{
int num = 0, flag = 0;
int i;
for (i = 0; i <= strlen(s); i++) {
if (s[i] >= '0' && s[i] <= '9')
num = num * 10 + s[i] - '0';
else if (s[0] == '-' && i == 0)
flag = 1;
else
break;
}
if (flag == 1)
num = num * -1;
return num;
}
inline u8 *_rtw_vmalloc(u32 sz)
{
u8 *pbuf;
#ifdef PLATFORM_LINUX
pbuf = vmalloc(sz);
#endif
#ifdef PLATFORM_FREEBSD
pbuf = malloc(sz, M_DEVBUF, M_NOWAIT);
#endif
#ifdef PLATFORM_WINDOWS
NdisAllocateMemoryWithTag(&pbuf, sz, RT_TAG);
#endif
#ifdef DBG_MEMORY_LEAK
#ifdef PLATFORM_LINUX
if (pbuf != NULL) {
atomic_inc(&_malloc_cnt);
atomic_add(sz, &_malloc_size);
}
#endif
#endif /* DBG_MEMORY_LEAK */
return pbuf;
}
inline u8 *_rtw_zvmalloc(u32 sz)
{
u8 *pbuf;
#ifdef PLATFORM_LINUX
pbuf = _rtw_vmalloc(sz);
if (pbuf != NULL)
memset(pbuf, 0, sz);
#endif
#ifdef PLATFORM_FREEBSD
pbuf = malloc(sz, M_DEVBUF, M_ZERO | M_NOWAIT);
#endif
#ifdef PLATFORM_WINDOWS
NdisAllocateMemoryWithTag(&pbuf, sz, RT_TAG);
if (pbuf != NULL)
NdisFillMemory(pbuf, sz, 0);
#endif
return pbuf;
}
inline void _rtw_vmfree(u8 *pbuf, u32 sz)
{
#ifdef PLATFORM_LINUX
vfree(pbuf);
#endif
#ifdef PLATFORM_FREEBSD
free(pbuf, M_DEVBUF);
#endif
#ifdef PLATFORM_WINDOWS
NdisFreeMemory(pbuf, sz, 0);
#endif
#ifdef DBG_MEMORY_LEAK
#ifdef PLATFORM_LINUX
atomic_dec(&_malloc_cnt);
atomic_sub(sz, &_malloc_size);
#endif
#endif /* DBG_MEMORY_LEAK */
}
u8 *_rtw_malloc(u32 sz)
{
u8 *pbuf = NULL;
#ifdef PLATFORM_LINUX
#ifdef RTK_DMP_PLATFORM
if (sz > 0x4000)
pbuf = (u8 *)dvr_malloc(sz);
else
#endif
pbuf = kmalloc(sz, in_interrupt() ? GFP_ATOMIC : GFP_KERNEL);
#endif
#ifdef PLATFORM_FREEBSD
pbuf = malloc(sz, M_DEVBUF, M_NOWAIT);
#endif
#ifdef PLATFORM_WINDOWS
NdisAllocateMemoryWithTag(&pbuf, sz, RT_TAG);
#endif
#ifdef DBG_MEMORY_LEAK
#ifdef PLATFORM_LINUX
if (pbuf != NULL) {
atomic_inc(&_malloc_cnt);
atomic_add(sz, &_malloc_size);
}
#endif
#endif /* DBG_MEMORY_LEAK */
return pbuf;
}
u8 *_rtw_zmalloc(u32 sz)
{
#ifdef PLATFORM_FREEBSD
return malloc(sz, M_DEVBUF, M_ZERO | M_NOWAIT);
#else /* PLATFORM_FREEBSD */
u8 *pbuf = _rtw_malloc(sz);
if (pbuf != NULL) {
#ifdef PLATFORM_LINUX
memset(pbuf, 0, sz);
#endif
#ifdef PLATFORM_WINDOWS
NdisFillMemory(pbuf, sz, 0);
#endif
}
return pbuf;
#endif /* PLATFORM_FREEBSD */
}
void _rtw_mfree(u8 *pbuf, u32 sz)
{
#ifdef PLATFORM_LINUX
#ifdef RTK_DMP_PLATFORM
if (sz > 0x4000)
dvr_free(pbuf);
else
#endif
kfree(pbuf);
#endif
#ifdef PLATFORM_FREEBSD
free(pbuf, M_DEVBUF);
#endif
#ifdef PLATFORM_WINDOWS
NdisFreeMemory(pbuf, sz, 0);
#endif
#ifdef DBG_MEMORY_LEAK
#ifdef PLATFORM_LINUX
atomic_dec(&_malloc_cnt);
atomic_sub(sz, &_malloc_size);
#endif
#endif /* DBG_MEMORY_LEAK */
}
#ifdef PLATFORM_FREEBSD
/* review again */
struct sk_buff *dev_alloc_skb(unsigned int size)
{
struct sk_buff *skb = NULL;
u8 *data = NULL;
/* skb = (struct sk_buff *)_rtw_zmalloc(sizeof(struct sk_buff)); */ /* for skb->len, etc. */
skb = (struct sk_buff *)_rtw_malloc(sizeof(struct sk_buff));
if (!skb)
goto out;
data = _rtw_malloc(size);
if (!data)
goto nodata;
skb->head = (unsigned char *)data;
skb->data = (unsigned char *)data;
skb->tail = (unsigned char *)data;
skb->end = (unsigned char *)data + size;
skb->len = 0;
/* printf("%s()-%d: skb=%p, skb->head = %p\n", __FUNCTION__, __LINE__, skb, skb->head); */
out:
return skb;
nodata:
_rtw_mfree((u8 *)skb, sizeof(struct sk_buff));
skb = NULL;
goto out;
}
void dev_kfree_skb_any(struct sk_buff *skb)
{
/* printf("%s()-%d: skb->head = %p\n", __FUNCTION__, __LINE__, skb->head); */
if (skb->head)
_rtw_mfree(skb->head, 0);
/* printf("%s()-%d: skb = %p\n", __FUNCTION__, __LINE__, skb); */
if (skb)
_rtw_mfree((u8 *)skb, 0);
}
struct sk_buff *skb_clone(const struct sk_buff *skb)
{
return NULL;
}
#endif /* PLATFORM_FREEBSD */
inline struct sk_buff *_rtw_skb_alloc(u32 sz)
{
#ifdef PLATFORM_LINUX
return __dev_alloc_skb(sz, in_interrupt() ? GFP_ATOMIC : GFP_KERNEL);
#endif /* PLATFORM_LINUX */
#ifdef PLATFORM_FREEBSD
return dev_alloc_skb(sz);
#endif /* PLATFORM_FREEBSD */
}
inline void _rtw_skb_free(struct sk_buff *skb)
{
dev_kfree_skb_any(skb);
}
inline struct sk_buff *_rtw_skb_copy(const struct sk_buff *skb)
{
#ifdef PLATFORM_LINUX
return skb_copy(skb, in_interrupt() ? GFP_ATOMIC : GFP_KERNEL);
#endif /* PLATFORM_LINUX */
#ifdef PLATFORM_FREEBSD
return NULL;
#endif /* PLATFORM_FREEBSD */
}
inline struct sk_buff *_rtw_skb_clone(struct sk_buff *skb)
{
#ifdef PLATFORM_LINUX
return skb_clone(skb, in_interrupt() ? GFP_ATOMIC : GFP_KERNEL);
#endif /* PLATFORM_LINUX */
#ifdef PLATFORM_FREEBSD
return skb_clone(skb);
#endif /* PLATFORM_FREEBSD */
}
inline struct sk_buff *_rtw_pskb_copy(struct sk_buff *skb)
{
#ifdef PLATFORM_LINUX
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 36))
return pskb_copy(skb, in_interrupt() ? GFP_ATOMIC : GFP_KERNEL);
#else
return skb_clone(skb, in_interrupt() ? GFP_ATOMIC : GFP_KERNEL);
#endif
#endif /* PLATFORM_LINUX */
#ifdef PLATFORM_FREEBSD
return NULL;
#endif /* PLATFORM_FREEBSD */
}
inline int _rtw_netif_rx(_nic_hdl ndev, struct sk_buff *skb)
{
#if defined(PLATFORM_LINUX)
skb->dev = ndev;
return netif_rx(skb);
#elif defined(PLATFORM_FREEBSD)
return (*ndev->if_input)(ndev, skb);
#else
rtw_warn_on(1);
return -1;
#endif
}
#ifdef CONFIG_RTW_NAPI
inline int _rtw_netif_receive_skb(_nic_hdl ndev, struct sk_buff *skb)
{
#if defined(PLATFORM_LINUX)
skb->dev = ndev;
return netif_receive_skb(skb);
#else
rtw_warn_on(1);
return -1;
#endif
}
#ifdef CONFIG_RTW_GRO
inline gro_result_t _rtw_napi_gro_receive(struct napi_struct *napi, struct sk_buff *skb)
{
#if defined(PLATFORM_LINUX)
return napi_gro_receive(napi, skb);
#else
rtw_warn_on(1);
return -1;
#endif
}
#endif /* CONFIG_RTW_GRO */
#endif /* CONFIG_RTW_NAPI */
void _rtw_skb_queue_purge(struct sk_buff_head *list)
{
struct sk_buff *skb;
while ((skb = skb_dequeue(list)) != NULL)
_rtw_skb_free(skb);
}
#ifdef CONFIG_USB_HCI
inline void *_rtw_usb_buffer_alloc(struct usb_device *dev, size_t size, dma_addr_t *dma)
{
#ifdef PLATFORM_LINUX
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 35))
return usb_alloc_coherent(dev, size, (in_interrupt() ? GFP_ATOMIC : GFP_KERNEL), dma);
#else
return usb_buffer_alloc(dev, size, (in_interrupt() ? GFP_ATOMIC : GFP_KERNEL), dma);
#endif
#endif /* PLATFORM_LINUX */
#ifdef PLATFORM_FREEBSD
return malloc(size, M_USBDEV, M_NOWAIT | M_ZERO);
#endif /* PLATFORM_FREEBSD */
}
inline void _rtw_usb_buffer_free(struct usb_device *dev, size_t size, void *addr, dma_addr_t dma)
{
#ifdef PLATFORM_LINUX
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 35))
usb_free_coherent(dev, size, addr, dma);
#else
usb_buffer_free(dev, size, addr, dma);
#endif
#endif /* PLATFORM_LINUX */
#ifdef PLATFORM_FREEBSD
free(addr, M_USBDEV);
#endif /* PLATFORM_FREEBSD */
}
#endif /* CONFIG_USB_HCI */
#if defined(DBG_MEM_ALLOC)
struct rtw_mem_stat {
ATOMIC_T alloc; /* the memory bytes we allocate currently */
ATOMIC_T peak; /* the peak memory bytes we allocate */
ATOMIC_T alloc_cnt; /* the alloc count for alloc currently */
ATOMIC_T alloc_err_cnt; /* the error times we fail to allocate memory */
};
struct rtw_mem_stat rtw_mem_type_stat[mstat_tf_idx(MSTAT_TYPE_MAX)];
#ifdef RTW_MEM_FUNC_STAT
struct rtw_mem_stat rtw_mem_func_stat[mstat_ff_idx(MSTAT_FUNC_MAX)];
#endif
char *MSTAT_TYPE_str[] = {
"VIR",
"PHY",
"SKB",
"USB",
};
#ifdef RTW_MEM_FUNC_STAT
char *MSTAT_FUNC_str[] = {
"UNSP",
"IO",
"TXIO",
"RXIO",
"TX",
"RX",
};
#endif
void rtw_mstat_dump(void *sel)
{
int i;
int value_t[4][mstat_tf_idx(MSTAT_TYPE_MAX)];
#ifdef RTW_MEM_FUNC_STAT
int value_f[4][mstat_ff_idx(MSTAT_FUNC_MAX)];
#endif
int vir_alloc, vir_peak, vir_alloc_err, phy_alloc, phy_peak, phy_alloc_err;
int tx_alloc, tx_peak, tx_alloc_err, rx_alloc, rx_peak, rx_alloc_err;
for (i = 0; i < mstat_tf_idx(MSTAT_TYPE_MAX); i++) {
value_t[0][i] = ATOMIC_READ(&(rtw_mem_type_stat[i].alloc));
value_t[1][i] = ATOMIC_READ(&(rtw_mem_type_stat[i].peak));
value_t[2][i] = ATOMIC_READ(&(rtw_mem_type_stat[i].alloc_cnt));
value_t[3][i] = ATOMIC_READ(&(rtw_mem_type_stat[i].alloc_err_cnt));
}
#ifdef RTW_MEM_FUNC_STAT
for (i = 0; i < mstat_ff_idx(MSTAT_FUNC_MAX); i++) {
value_f[0][i] = ATOMIC_READ(&(rtw_mem_func_stat[i].alloc));
value_f[1][i] = ATOMIC_READ(&(rtw_mem_func_stat[i].peak));
value_f[2][i] = ATOMIC_READ(&(rtw_mem_func_stat[i].alloc_cnt));
value_f[3][i] = ATOMIC_READ(&(rtw_mem_func_stat[i].alloc_err_cnt));
}
#endif
RTW_PRINT_SEL(sel, "===================== MSTAT =====================\n");
RTW_PRINT_SEL(sel, "%4s %10s %10s %10s %10s\n", "TAG", "alloc", "peak", "aloc_cnt", "err_cnt");
RTW_PRINT_SEL(sel, "-------------------------------------------------\n");
for (i = 0; i < mstat_tf_idx(MSTAT_TYPE_MAX); i++)
RTW_PRINT_SEL(sel, "%4s %10d %10d %10d %10d\n", MSTAT_TYPE_str[i], value_t[0][i], value_t[1][i], value_t[2][i], value_t[3][i]);
#ifdef RTW_MEM_FUNC_STAT
RTW_PRINT_SEL(sel, "-------------------------------------------------\n");
for (i = 0; i < mstat_ff_idx(MSTAT_FUNC_MAX); i++)
RTW_PRINT_SEL(sel, "%4s %10d %10d %10d %10d\n", MSTAT_FUNC_str[i], value_f[0][i], value_f[1][i], value_f[2][i], value_f[3][i]);
#endif
}
void rtw_mstat_update(const enum mstat_f flags, const MSTAT_STATUS status, u32 sz)
{
static systime update_time = 0;
int peak, alloc;
int i;
/* initialization */
if (!update_time) {
for (i = 0; i < mstat_tf_idx(MSTAT_TYPE_MAX); i++) {
ATOMIC_SET(&(rtw_mem_type_stat[i].alloc), 0);
ATOMIC_SET(&(rtw_mem_type_stat[i].peak), 0);
ATOMIC_SET(&(rtw_mem_type_stat[i].alloc_cnt), 0);
ATOMIC_SET(&(rtw_mem_type_stat[i].alloc_err_cnt), 0);
}
#ifdef RTW_MEM_FUNC_STAT
for (i = 0; i < mstat_ff_idx(MSTAT_FUNC_MAX); i++) {
ATOMIC_SET(&(rtw_mem_func_stat[i].alloc), 0);
ATOMIC_SET(&(rtw_mem_func_stat[i].peak), 0);
ATOMIC_SET(&(rtw_mem_func_stat[i].alloc_cnt), 0);
ATOMIC_SET(&(rtw_mem_func_stat[i].alloc_err_cnt), 0);
}
#endif
}
switch (status) {
case MSTAT_ALLOC_SUCCESS:
ATOMIC_INC(&(rtw_mem_type_stat[mstat_tf_idx(flags)].alloc_cnt));
alloc = ATOMIC_ADD_RETURN(&(rtw_mem_type_stat[mstat_tf_idx(flags)].alloc), sz);
peak = ATOMIC_READ(&(rtw_mem_type_stat[mstat_tf_idx(flags)].peak));
if (peak < alloc)
ATOMIC_SET(&(rtw_mem_type_stat[mstat_tf_idx(flags)].peak), alloc);
#ifdef RTW_MEM_FUNC_STAT
ATOMIC_INC(&(rtw_mem_func_stat[mstat_ff_idx(flags)].alloc_cnt));
alloc = ATOMIC_ADD_RETURN(&(rtw_mem_func_stat[mstat_ff_idx(flags)].alloc), sz);
peak = ATOMIC_READ(&(rtw_mem_func_stat[mstat_ff_idx(flags)].peak));
if (peak < alloc)
ATOMIC_SET(&(rtw_mem_func_stat[mstat_ff_idx(flags)].peak), alloc);
#endif
break;
case MSTAT_ALLOC_FAIL:
ATOMIC_INC(&(rtw_mem_type_stat[mstat_tf_idx(flags)].alloc_err_cnt));
#ifdef RTW_MEM_FUNC_STAT
ATOMIC_INC(&(rtw_mem_func_stat[mstat_ff_idx(flags)].alloc_err_cnt));
#endif
break;
case MSTAT_FREE:
ATOMIC_DEC(&(rtw_mem_type_stat[mstat_tf_idx(flags)].alloc_cnt));
ATOMIC_SUB(&(rtw_mem_type_stat[mstat_tf_idx(flags)].alloc), sz);
#ifdef RTW_MEM_FUNC_STAT
ATOMIC_DEC(&(rtw_mem_func_stat[mstat_ff_idx(flags)].alloc_cnt));
ATOMIC_SUB(&(rtw_mem_func_stat[mstat_ff_idx(flags)].alloc), sz);
#endif
break;
};
/* if (rtw_get_passing_time_ms(update_time) > 5000) { */
/* rtw_mstat_dump(RTW_DBGDUMP); */
update_time = rtw_get_current_time();
/* } */
}
#ifndef SIZE_MAX
#define SIZE_MAX (~(size_t)0)
#endif
struct mstat_sniff_rule {
enum mstat_f flags;
size_t lb;
size_t hb;
};
struct mstat_sniff_rule mstat_sniff_rules[] = {
{MSTAT_TYPE_PHY, 4097, SIZE_MAX},
};
int mstat_sniff_rule_num = sizeof(mstat_sniff_rules) / sizeof(struct mstat_sniff_rule);
bool match_mstat_sniff_rules(const enum mstat_f flags, const size_t size)
{
int i;
for (i = 0; i < mstat_sniff_rule_num; i++) {
if (mstat_sniff_rules[i].flags == flags
&& mstat_sniff_rules[i].lb <= size
&& mstat_sniff_rules[i].hb >= size)
return _TRUE;
}
return _FALSE;
}
inline u8 *dbg_rtw_vmalloc(u32 sz, const enum mstat_f flags, const char *func, const int line)
{
u8 *p;
if (match_mstat_sniff_rules(flags, sz))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%d)\n", func, line, __FUNCTION__, (sz));
p = _rtw_vmalloc((sz));
rtw_mstat_update(
flags
, p ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, sz
);
return p;
}
inline u8 *dbg_rtw_zvmalloc(u32 sz, const enum mstat_f flags, const char *func, const int line)
{
u8 *p;
if (match_mstat_sniff_rules(flags, sz))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%d)\n", func, line, __FUNCTION__, (sz));
p = _rtw_zvmalloc((sz));
rtw_mstat_update(
flags
, p ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, sz
);
return p;
}
inline void dbg_rtw_vmfree(u8 *pbuf, u32 sz, const enum mstat_f flags, const char *func, const int line)
{
if (match_mstat_sniff_rules(flags, sz))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%d)\n", func, line, __FUNCTION__, (sz));
_rtw_vmfree((pbuf), (sz));
rtw_mstat_update(
flags
, MSTAT_FREE
, sz
);
}
inline u8 *dbg_rtw_malloc(u32 sz, const enum mstat_f flags, const char *func, const int line)
{
u8 *p;
if (match_mstat_sniff_rules(flags, sz))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%d)\n", func, line, __FUNCTION__, (sz));
p = _rtw_malloc((sz));
rtw_mstat_update(
flags
, p ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, sz
);
return p;
}
inline u8 *dbg_rtw_zmalloc(u32 sz, const enum mstat_f flags, const char *func, const int line)
{
u8 *p;
if (match_mstat_sniff_rules(flags, sz))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%d)\n", func, line, __FUNCTION__, (sz));
p = _rtw_zmalloc((sz));
rtw_mstat_update(
flags
, p ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, sz
);
return p;
}
inline void dbg_rtw_mfree(u8 *pbuf, u32 sz, const enum mstat_f flags, const char *func, const int line)
{
if (match_mstat_sniff_rules(flags, sz))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%d)\n", func, line, __FUNCTION__, (sz));
_rtw_mfree((pbuf), (sz));
rtw_mstat_update(
flags
, MSTAT_FREE
, sz
);
}
inline struct sk_buff *dbg_rtw_skb_alloc(unsigned int size, const enum mstat_f flags, const char *func, int line)
{
struct sk_buff *skb;
unsigned int truesize = 0;
skb = _rtw_skb_alloc(size);
if (skb)
truesize = skb->truesize;
if (!skb || truesize < size || match_mstat_sniff_rules(flags, truesize))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%d), skb:%p, truesize=%u\n", func, line, __FUNCTION__, size, skb, truesize);
rtw_mstat_update(
flags
, skb ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, truesize
);
return skb;
}
inline void dbg_rtw_skb_free(struct sk_buff *skb, const enum mstat_f flags, const char *func, int line)
{
unsigned int truesize = skb->truesize;
if (match_mstat_sniff_rules(flags, truesize))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s, truesize=%u\n", func, line, __FUNCTION__, truesize);
_rtw_skb_free(skb);
rtw_mstat_update(
flags
, MSTAT_FREE
, truesize
);
}
inline struct sk_buff *dbg_rtw_skb_copy(const struct sk_buff *skb, const enum mstat_f flags, const char *func, const int line)
{
struct sk_buff *skb_cp;
unsigned int truesize = skb->truesize;
unsigned int cp_truesize = 0;
skb_cp = _rtw_skb_copy(skb);
if (skb_cp)
cp_truesize = skb_cp->truesize;
if (!skb_cp || cp_truesize < truesize || match_mstat_sniff_rules(flags, cp_truesize))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%u), skb_cp:%p, cp_truesize=%u\n", func, line, __FUNCTION__, truesize, skb_cp, cp_truesize);
rtw_mstat_update(
flags
, skb_cp ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, cp_truesize
);
return skb_cp;
}
inline struct sk_buff *dbg_rtw_skb_clone(struct sk_buff *skb, const enum mstat_f flags, const char *func, const int line)
{
struct sk_buff *skb_cl;
unsigned int truesize = skb->truesize;
unsigned int cl_truesize = 0;
skb_cl = _rtw_skb_clone(skb);
if (skb_cl)
cl_truesize = skb_cl->truesize;
if (!skb_cl || cl_truesize < truesize || match_mstat_sniff_rules(flags, cl_truesize))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%u), skb_cl:%p, cl_truesize=%u\n", func, line, __FUNCTION__, truesize, skb_cl, cl_truesize);
rtw_mstat_update(
flags
, skb_cl ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, cl_truesize
);
return skb_cl;
}
inline int dbg_rtw_netif_rx(_nic_hdl ndev, struct sk_buff *skb, const enum mstat_f flags, const char *func, int line)
{
int ret;
unsigned int truesize = skb->truesize;
if (match_mstat_sniff_rules(flags, truesize))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s, truesize=%u\n", func, line, __FUNCTION__, truesize);
ret = _rtw_netif_rx(ndev, skb);
rtw_mstat_update(
flags
, MSTAT_FREE
, truesize
);
return ret;
}
#ifdef CONFIG_RTW_NAPI
inline int dbg_rtw_netif_receive_skb(_nic_hdl ndev, struct sk_buff *skb, const enum mstat_f flags, const char *func, int line)
{
int ret;
unsigned int truesize = skb->truesize;
if (match_mstat_sniff_rules(flags, truesize))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s, truesize=%u\n", func, line, __FUNCTION__, truesize);
ret = _rtw_netif_receive_skb(ndev, skb);
rtw_mstat_update(
flags
, MSTAT_FREE
, truesize
);
return ret;
}
#ifdef CONFIG_RTW_GRO
inline gro_result_t dbg_rtw_napi_gro_receive(struct napi_struct *napi, struct sk_buff *skb, const enum mstat_f flags, const char *func, int line)
{
int ret;
unsigned int truesize = skb->truesize;
if (match_mstat_sniff_rules(flags, truesize))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s, truesize=%u\n", func, line, __FUNCTION__, truesize);
ret = _rtw_napi_gro_receive(napi, skb);
rtw_mstat_update(
flags
, MSTAT_FREE
, truesize
);
return ret;
}
#endif /* CONFIG_RTW_GRO */
#endif /* CONFIG_RTW_NAPI */
inline void dbg_rtw_skb_queue_purge(struct sk_buff_head *list, enum mstat_f flags, const char *func, int line)
{
struct sk_buff *skb;
while ((skb = skb_dequeue(list)) != NULL)
dbg_rtw_skb_free(skb, flags, func, line);
}
#ifdef CONFIG_USB_HCI
inline void *dbg_rtw_usb_buffer_alloc(struct usb_device *dev, size_t size, dma_addr_t *dma, const enum mstat_f flags, const char *func, int line)
{
void *p;
if (match_mstat_sniff_rules(flags, size))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%zu)\n", func, line, __FUNCTION__, size);
p = _rtw_usb_buffer_alloc(dev, size, dma);
rtw_mstat_update(
flags
, p ? MSTAT_ALLOC_SUCCESS : MSTAT_ALLOC_FAIL
, size
);
return p;
}
inline void dbg_rtw_usb_buffer_free(struct usb_device *dev, size_t size, void *addr, dma_addr_t dma, const enum mstat_f flags, const char *func, int line)
{
if (match_mstat_sniff_rules(flags, size))
RTW_INFO("DBG_MEM_ALLOC %s:%d %s(%zu)\n", func, line, __FUNCTION__, size);
_rtw_usb_buffer_free(dev, size, addr, dma);
rtw_mstat_update(
flags
, MSTAT_FREE
, size
);
}
#endif /* CONFIG_USB_HCI */
#endif /* defined(DBG_MEM_ALLOC) */
void *rtw_malloc2d(int h, int w, size_t size)
{
int j;
void **a = (void **) rtw_zmalloc(h * sizeof(void *) + h * w * size);
if (a == NULL) {
RTW_INFO("%s: alloc memory fail!\n", __FUNCTION__);
return NULL;
}
for (j = 0; j < h; j++)
a[j] = ((char *)(a + h)) + j * w * size;
return a;
}
void rtw_mfree2d(void *pbuf, int h, int w, int size)
{
rtw_mfree((u8 *)pbuf, h * sizeof(void *) + w * h * size);
}
inline void rtw_os_pkt_free(_pkt *pkt)
{
#if defined(PLATFORM_LINUX)
rtw_skb_free(pkt);
#elif defined(PLATFORM_FREEBSD)
m_freem(pkt);
#else
#error "TBD\n"
#endif
}
inline void *rtw_os_pkt_data(_pkt *pkt)
{
#if defined(PLATFORM_LINUX)
return pkt->data;
#elif defined(PLATFORM_FREEBSD)
return pkt->m_data;
#else
#error "TBD\n"
#endif
}
inline u32 rtw_os_pkt_len(_pkt *pkt)
{
#if defined(PLATFORM_LINUX)
return pkt->len;
#elif defined(PLATFORM_FREEBSD)
return pkt->m_pkthdr.len;
#else
#error "TBD\n"
#endif
}
void _rtw_memcpy(void *dst, const void *src, u32 sz)
{
#if defined(PLATFORM_LINUX) || defined (PLATFORM_FREEBSD)
memcpy(dst, src, sz);
#endif
#ifdef PLATFORM_WINDOWS
NdisMoveMemory(dst, src, sz);
#endif
}
inline void _rtw_memmove(void *dst, const void *src, u32 sz)
{
#if defined(PLATFORM_LINUX)
memmove(dst, src, sz);
#else
#warning "no implementation\n"
#endif
}
int _rtw_memcmp(const void *dst, const void *src, u32 sz)
{
#if defined(PLATFORM_LINUX) || defined (PLATFORM_FREEBSD)
/* under Linux/GNU/GLibc, the return value of memcmp for two same mem. chunk is 0 */
if (!(memcmp(dst, src, sz)))
return _TRUE;
else
return _FALSE;
#endif
#ifdef PLATFORM_WINDOWS
/* under Windows, the return value of NdisEqualMemory for two same mem. chunk is 1 */
if (NdisEqualMemory(dst, src, sz))
return _TRUE;
else
return _FALSE;
#endif
}
void _rtw_memset(void *pbuf, int c, u32 sz)
{
#if defined(PLATFORM_LINUX) || defined (PLATFORM_FREEBSD)
memset(pbuf, c, sz);
#endif
#ifdef PLATFORM_WINDOWS
#if 0
NdisZeroMemory(pbuf, sz);
if (c != 0)
memset(pbuf, c, sz);
#else
NdisFillMemory(pbuf, sz, c);
#endif
#endif
}
#ifdef PLATFORM_FREEBSD
static inline void __list_add(_list *pnew, _list *pprev, _list *pnext)
{
pnext->prev = pnew;
pnew->next = pnext;
pnew->prev = pprev;
pprev->next = pnew;
}
#endif /* PLATFORM_FREEBSD */
void _rtw_init_listhead(_list *list)
{
#ifdef PLATFORM_LINUX
INIT_LIST_HEAD(list);
#endif
#ifdef PLATFORM_FREEBSD
list->next = list;
list->prev = list;
#endif
#ifdef PLATFORM_WINDOWS
NdisInitializeListHead(list);
#endif
}
/*
For the following list_xxx operations,
caller must guarantee the atomic context.
Otherwise, there will be racing condition.
*/
u32 rtw_is_list_empty(_list *phead)
{
#ifdef PLATFORM_LINUX
if (list_empty(phead))
return _TRUE;
else
return _FALSE;
#endif
#ifdef PLATFORM_FREEBSD
if (phead->next == phead)
return _TRUE;
else
return _FALSE;
#endif
#ifdef PLATFORM_WINDOWS
if (IsListEmpty(phead))
return _TRUE;
else
return _FALSE;
#endif
}
void rtw_list_insert_head(_list *plist, _list *phead)
{
#ifdef PLATFORM_LINUX
list_add(plist, phead);
#endif
#ifdef PLATFORM_FREEBSD
__list_add(plist, phead, phead->next);
#endif
#ifdef PLATFORM_WINDOWS
InsertHeadList(phead, plist);
#endif
}
void rtw_list_insert_tail(_list *plist, _list *phead)
{
#ifdef PLATFORM_LINUX
list_add_tail(plist, phead);
#endif
#ifdef PLATFORM_FREEBSD
__list_add(plist, phead->prev, phead);
#endif
#ifdef PLATFORM_WINDOWS
InsertTailList(phead, plist);
#endif
}
void rtw_init_timer(_timer *ptimer, void *padapter, void *pfunc, void *ctx)
{
_adapter *adapter = (_adapter *)padapter;
#ifdef PLATFORM_LINUX
_init_timer(ptimer, adapter->pnetdev, pfunc, ctx);
#endif
#ifdef PLATFORM_FREEBSD
_init_timer(ptimer, adapter->pifp, pfunc, ctx);
#endif
#ifdef PLATFORM_WINDOWS
_init_timer(ptimer, adapter->hndis_adapter, pfunc, ctx);
#endif
}
/*
Caller must check if the list is empty before calling rtw_list_delete
*/
void _rtw_init_sema(_sema *sema, int init_val)
{
#ifdef PLATFORM_LINUX
sema_init(sema, init_val);
#endif
#ifdef PLATFORM_FREEBSD
sema_init(sema, init_val, "rtw_drv");
#endif
#ifdef PLATFORM_OS_XP
KeInitializeSemaphore(sema, init_val, SEMA_UPBND); /* count=0; */
#endif
#ifdef PLATFORM_OS_CE
if (*sema == NULL)
*sema = CreateSemaphore(NULL, init_val, SEMA_UPBND, NULL);
#endif
}
void _rtw_free_sema(_sema *sema)
{
#ifdef PLATFORM_FREEBSD
sema_destroy(sema);
#endif
#ifdef PLATFORM_OS_CE
CloseHandle(*sema);
#endif
}
void _rtw_up_sema(_sema *sema)
{
#ifdef PLATFORM_LINUX
up(sema);
#endif
#ifdef PLATFORM_FREEBSD
sema_post(sema);
#endif
#ifdef PLATFORM_OS_XP
KeReleaseSemaphore(sema, IO_NETWORK_INCREMENT, 1, FALSE);
#endif
#ifdef PLATFORM_OS_CE
ReleaseSemaphore(*sema, 1, NULL);
#endif
}
u32 _rtw_down_sema(_sema *sema)
{
#ifdef PLATFORM_LINUX
if (down_interruptible(sema))
return _FAIL;
else
return _SUCCESS;
#endif
#ifdef PLATFORM_FREEBSD
sema_wait(sema);
return _SUCCESS;
#endif
#ifdef PLATFORM_OS_XP
if (STATUS_SUCCESS == KeWaitForSingleObject(sema, Executive, KernelMode, TRUE, NULL))
return _SUCCESS;
else
return _FAIL;
#endif
#ifdef PLATFORM_OS_CE
if (WAIT_OBJECT_0 == WaitForSingleObject(*sema, INFINITE))
return _SUCCESS;
else
return _FAIL;
#endif
}
inline void thread_exit(_completion *comp)
{
#ifdef PLATFORM_LINUX
complete_and_exit(comp, 0);
#endif
#ifdef PLATFORM_FREEBSD
printf("%s", "RTKTHREAD_exit");
#endif
#ifdef PLATFORM_OS_CE
ExitThread(STATUS_SUCCESS);
#endif
#ifdef PLATFORM_OS_XP
PsTerminateSystemThread(STATUS_SUCCESS);
#endif
}
inline void _rtw_init_completion(_completion *comp)
{
#ifdef PLATFORM_LINUX
init_completion(comp);
#endif
}
inline void _rtw_wait_for_comp_timeout(_completion *comp)
{
#ifdef PLATFORM_LINUX
wait_for_completion_timeout(comp, msecs_to_jiffies(3000));
#endif
}
inline void _rtw_wait_for_comp(_completion *comp)
{
#ifdef PLATFORM_LINUX
wait_for_completion(comp);
#endif
}
void _rtw_mutex_init(_mutex *pmutex)
{
#ifdef PLATFORM_LINUX
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 37))
mutex_init(pmutex);
#else
init_MUTEX(pmutex);
#endif
#endif
#ifdef PLATFORM_FREEBSD
mtx_init(pmutex, "", NULL, MTX_DEF | MTX_RECURSE);
#endif
#ifdef PLATFORM_OS_XP
KeInitializeMutex(pmutex, 0);
#endif
#ifdef PLATFORM_OS_CE
*pmutex = CreateMutex(NULL, _FALSE, NULL);
#endif
}
void _rtw_mutex_free(_mutex *pmutex);
void _rtw_mutex_free(_mutex *pmutex)
{
#ifdef PLATFORM_LINUX
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 37))
mutex_destroy(pmutex);
#else
#endif
#ifdef PLATFORM_FREEBSD
sema_destroy(pmutex);
#endif
#endif
#ifdef PLATFORM_OS_XP
#endif
#ifdef PLATFORM_OS_CE
#endif
}
void _rtw_spinlock_init(_lock *plock)
{
#ifdef PLATFORM_LINUX
spin_lock_init(plock);
#endif
#ifdef PLATFORM_FREEBSD
mtx_init(plock, "", NULL, MTX_DEF | MTX_RECURSE);
#endif
#ifdef PLATFORM_WINDOWS
NdisAllocateSpinLock(plock);
#endif
}
void _rtw_spinlock_free(_lock *plock)
{
#ifdef PLATFORM_FREEBSD
mtx_destroy(plock);
#endif
#ifdef PLATFORM_WINDOWS
NdisFreeSpinLock(plock);
#endif
}
#ifdef PLATFORM_FREEBSD
extern PADAPTER prtw_lock;
void rtw_mtx_lock(_lock *plock)
{
if (prtw_lock)
mtx_lock(&prtw_lock->glock);
else
printf("%s prtw_lock==NULL", __FUNCTION__);
}
void rtw_mtx_unlock(_lock *plock)
{
if (prtw_lock)
mtx_unlock(&prtw_lock->glock);
else
printf("%s prtw_lock==NULL", __FUNCTION__);
}
#endif /* PLATFORM_FREEBSD */
void _rtw_spinlock(_lock *plock)
{
#ifdef PLATFORM_LINUX
spin_lock(plock);
#endif
#ifdef PLATFORM_FREEBSD
mtx_lock(plock);
#endif
#ifdef PLATFORM_WINDOWS
NdisAcquireSpinLock(plock);
#endif
}
void _rtw_spinunlock(_lock *plock)
{
#ifdef PLATFORM_LINUX
spin_unlock(plock);
#endif
#ifdef PLATFORM_FREEBSD
mtx_unlock(plock);
#endif
#ifdef PLATFORM_WINDOWS
NdisReleaseSpinLock(plock);
#endif
}
void _rtw_spinlock_ex(_lock *plock)
{
#ifdef PLATFORM_LINUX
spin_lock(plock);
#endif
#ifdef PLATFORM_FREEBSD
mtx_lock(plock);
#endif
#ifdef PLATFORM_WINDOWS
NdisDprAcquireSpinLock(plock);
#endif
}
void _rtw_spinunlock_ex(_lock *plock)
{
#ifdef PLATFORM_LINUX
spin_unlock(plock);
#endif
#ifdef PLATFORM_FREEBSD
mtx_unlock(plock);
#endif
#ifdef PLATFORM_WINDOWS
NdisDprReleaseSpinLock(plock);
#endif
}
void _rtw_init_queue(_queue *pqueue)
{
_rtw_init_listhead(&(pqueue->queue));
_rtw_spinlock_init(&(pqueue->lock));
}
void _rtw_deinit_queue(_queue *pqueue)
{
_rtw_spinlock_free(&(pqueue->lock));
}
u32 _rtw_queue_empty(_queue *pqueue)
{
return rtw_is_list_empty(&(pqueue->queue));
}
u32 rtw_end_of_queue_search(_list *head, _list *plist)
{
if (head == plist)
return _TRUE;
else
return _FALSE;
}
systime _rtw_get_current_time(void)
{
#ifdef PLATFORM_LINUX
return jiffies;
#endif
#ifdef PLATFORM_FREEBSD
struct timeval tvp;
getmicrotime(&tvp);
return tvp.tv_sec;
#endif
#ifdef PLATFORM_WINDOWS
LARGE_INTEGER SystemTime;
NdisGetCurrentSystemTime(&SystemTime);
return SystemTime.LowPart;/* count of 100-nanosecond intervals */
#endif
}
inline u32 _rtw_systime_to_ms(systime stime)
{
#ifdef PLATFORM_LINUX
return jiffies_to_msecs(stime);
#endif
#ifdef PLATFORM_FREEBSD
return stime * 1000;
#endif
#ifdef PLATFORM_WINDOWS
return stime / 10000 ;
#endif
}
inline systime _rtw_ms_to_systime(u32 ms)
{
#ifdef PLATFORM_LINUX
return msecs_to_jiffies(ms);
#endif
#ifdef PLATFORM_FREEBSD
return ms / 1000;
#endif
#ifdef PLATFORM_WINDOWS
return ms * 10000 ;
#endif
}
/* the input parameter start use the same unit as returned by rtw_get_current_time */
inline s32 _rtw_get_passing_time_ms(systime start)
{
return _rtw_systime_to_ms(_rtw_get_current_time() - start);
}
inline s32 _rtw_get_time_interval_ms(systime start, systime end)
{
return _rtw_systime_to_ms(end - start);
}
void rtw_sleep_schedulable(int ms)
{
#ifdef PLATFORM_LINUX
u32 delta;
delta = (ms * HZ) / 1000; /* (ms) */
if (delta == 0) {
delta = 1;/* 1 ms */
}
set_current_state(TASK_INTERRUPTIBLE);
if (schedule_timeout(delta) != 0)
return ;
return;
#endif
#ifdef PLATFORM_FREEBSD
DELAY(ms * 1000);
return ;
#endif
#ifdef PLATFORM_WINDOWS
NdisMSleep(ms * 1000); /* (us)*1000=(ms) */
#endif
}
void rtw_msleep_os(int ms)
{
#ifdef PLATFORM_LINUX
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 36))
if (ms < 20) {
unsigned long us = ms * 1000UL;
usleep_range(us, us + 1000UL);
} else
#endif
msleep((unsigned int)ms);
#endif
#ifdef PLATFORM_FREEBSD
/* Delay for delay microseconds */
DELAY(ms * 1000);
return ;
#endif
#ifdef PLATFORM_WINDOWS
NdisMSleep(ms * 1000); /* (us)*1000=(ms) */
#endif
}
void rtw_usleep_os(int us)
{
#ifdef PLATFORM_LINUX
/* msleep((unsigned int)us); */
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 36))
usleep_range(us, us + 1);
#else
if (1 < (us / 1000))
msleep(1);
else
msleep((us / 1000) + 1);
#endif
#endif
#ifdef PLATFORM_FREEBSD
/* Delay for delay microseconds */
DELAY(us);
return ;
#endif
#ifdef PLATFORM_WINDOWS
NdisMSleep(us); /* (us) */
#endif
}
#ifdef DBG_DELAY_OS
void _rtw_mdelay_os(int ms, const char *func, const int line)
{
#if 0
if (ms > 10)
RTW_INFO("%s:%d %s(%d)\n", func, line, __FUNCTION__, ms);
rtw_msleep_os(ms);
return;
#endif
RTW_INFO("%s:%d %s(%d)\n", func, line, __FUNCTION__, ms);
#if defined(PLATFORM_LINUX)
mdelay((unsigned long)ms);
#elif defined(PLATFORM_WINDOWS)
NdisStallExecution(ms * 1000); /* (us)*1000=(ms) */
#endif
}
void _rtw_udelay_os(int us, const char *func, const int line)
{
#if 0
if (us > 1000) {
RTW_INFO("%s:%d %s(%d)\n", func, line, __FUNCTION__, us);
rtw_usleep_os(us);
return;
}
#endif
RTW_INFO("%s:%d %s(%d)\n", func, line, __FUNCTION__, us);
#if defined(PLATFORM_LINUX)
udelay((unsigned long)us);
#elif defined(PLATFORM_WINDOWS)
NdisStallExecution(us); /* (us) */
#endif
}
#else
void rtw_mdelay_os(int ms)
{
#ifdef PLATFORM_LINUX
mdelay((unsigned long)ms);
#endif
#ifdef PLATFORM_FREEBSD
DELAY(ms * 1000);
return ;
#endif
#ifdef PLATFORM_WINDOWS
NdisStallExecution(ms * 1000); /* (us)*1000=(ms) */
#endif
}
void rtw_udelay_os(int us)
{
#ifdef PLATFORM_LINUX
udelay((unsigned long)us);
#endif
#ifdef PLATFORM_FREEBSD
/* Delay for delay microseconds */
DELAY(us);
return ;
#endif
#ifdef PLATFORM_WINDOWS
NdisStallExecution(us); /* (us) */
#endif
}
#endif
void rtw_yield_os(void)
{
#ifdef PLATFORM_LINUX
yield();
#endif
#ifdef PLATFORM_FREEBSD
yield();
#endif
#ifdef PLATFORM_WINDOWS
SwitchToThread();
#endif
}
#define RTW_SUSPEND_LOCK_NAME "rtw_wifi"
#define RTW_SUSPEND_EXT_LOCK_NAME "rtw_wifi_ext"
#define RTW_SUSPEND_RX_LOCK_NAME "rtw_wifi_rx"
#define RTW_SUSPEND_TRAFFIC_LOCK_NAME "rtw_wifi_traffic"
#define RTW_SUSPEND_RESUME_LOCK_NAME "rtw_wifi_resume"
#define RTW_RESUME_SCAN_LOCK_NAME "rtw_wifi_scan"
#ifdef CONFIG_WAKELOCK
static struct wake_lock rtw_suspend_lock;
static struct wake_lock rtw_suspend_ext_lock;
static struct wake_lock rtw_suspend_rx_lock;
static struct wake_lock rtw_suspend_traffic_lock;
static struct wake_lock rtw_suspend_resume_lock;
static struct wake_lock rtw_resume_scan_lock;
#elif defined(CONFIG_ANDROID_POWER)
static android_suspend_lock_t rtw_suspend_lock = {
.name = RTW_SUSPEND_LOCK_NAME
};
static android_suspend_lock_t rtw_suspend_ext_lock = {
.name = RTW_SUSPEND_EXT_LOCK_NAME
};
static android_suspend_lock_t rtw_suspend_rx_lock = {
.name = RTW_SUSPEND_RX_LOCK_NAME
};
static android_suspend_lock_t rtw_suspend_traffic_lock = {
.name = RTW_SUSPEND_TRAFFIC_LOCK_NAME
};
static android_suspend_lock_t rtw_suspend_resume_lock = {
.name = RTW_SUSPEND_RESUME_LOCK_NAME
};
static android_suspend_lock_t rtw_resume_scan_lock = {
.name = RTW_RESUME_SCAN_LOCK_NAME
};
#endif
inline void rtw_suspend_lock_init(void)
{
#ifdef CONFIG_WAKELOCK
wake_lock_init(&rtw_suspend_lock, WAKE_LOCK_SUSPEND, RTW_SUSPEND_LOCK_NAME);
wake_lock_init(&rtw_suspend_ext_lock, WAKE_LOCK_SUSPEND, RTW_SUSPEND_EXT_LOCK_NAME);
wake_lock_init(&rtw_suspend_rx_lock, WAKE_LOCK_SUSPEND, RTW_SUSPEND_RX_LOCK_NAME);
wake_lock_init(&rtw_suspend_traffic_lock, WAKE_LOCK_SUSPEND, RTW_SUSPEND_TRAFFIC_LOCK_NAME);
wake_lock_init(&rtw_suspend_resume_lock, WAKE_LOCK_SUSPEND, RTW_SUSPEND_RESUME_LOCK_NAME);
wake_lock_init(&rtw_resume_scan_lock, WAKE_LOCK_SUSPEND, RTW_RESUME_SCAN_LOCK_NAME);
#elif defined(CONFIG_ANDROID_POWER)
android_init_suspend_lock(&rtw_suspend_lock);
android_init_suspend_lock(&rtw_suspend_ext_lock);
android_init_suspend_lock(&rtw_suspend_rx_lock);
android_init_suspend_lock(&rtw_suspend_traffic_lock);
android_init_suspend_lock(&rtw_suspend_resume_lock);
android_init_suspend_lock(&rtw_resume_scan_lock);
#endif
}
inline void rtw_suspend_lock_uninit(void)
{
#ifdef CONFIG_WAKELOCK
wake_lock_destroy(&rtw_suspend_lock);
wake_lock_destroy(&rtw_suspend_ext_lock);
wake_lock_destroy(&rtw_suspend_rx_lock);
wake_lock_destroy(&rtw_suspend_traffic_lock);
wake_lock_destroy(&rtw_suspend_resume_lock);
wake_lock_destroy(&rtw_resume_scan_lock);
#elif defined(CONFIG_ANDROID_POWER)
android_uninit_suspend_lock(&rtw_suspend_lock);
android_uninit_suspend_lock(&rtw_suspend_ext_lock);
android_uninit_suspend_lock(&rtw_suspend_rx_lock);
android_uninit_suspend_lock(&rtw_suspend_traffic_lock);
android_uninit_suspend_lock(&rtw_suspend_resume_lock);
android_uninit_suspend_lock(&rtw_resume_scan_lock);
#endif
}
inline void rtw_lock_suspend(void)
{
#ifdef CONFIG_WAKELOCK
wake_lock(&rtw_suspend_lock);
#elif defined(CONFIG_ANDROID_POWER)
android_lock_suspend(&rtw_suspend_lock);
#endif
#if defined(CONFIG_WAKELOCK) || defined(CONFIG_ANDROID_POWER)
/* RTW_INFO("####%s: suspend_lock_count:%d####\n", __FUNCTION__, rtw_suspend_lock.stat.count); */
#endif
}
inline void rtw_unlock_suspend(void)
{
#ifdef CONFIG_WAKELOCK
wake_unlock(&rtw_suspend_lock);
#elif defined(CONFIG_ANDROID_POWER)
android_unlock_suspend(&rtw_suspend_lock);
#endif
#if defined(CONFIG_WAKELOCK) || defined(CONFIG_ANDROID_POWER)
/* RTW_INFO("####%s: suspend_lock_count:%d####\n", __FUNCTION__, rtw_suspend_lock.stat.count); */
#endif
}
inline void rtw_resume_lock_suspend(void)
{
#ifdef CONFIG_WAKELOCK
wake_lock(&rtw_suspend_resume_lock);
#elif defined(CONFIG_ANDROID_POWER)
android_lock_suspend(&rtw_suspend_resume_lock);
#endif
#if defined(CONFIG_WAKELOCK) || defined(CONFIG_ANDROID_POWER)
/* RTW_INFO("####%s: suspend_lock_count:%d####\n", __FUNCTION__, rtw_suspend_lock.stat.count); */
#endif
}
inline void rtw_resume_unlock_suspend(void)
{
#ifdef CONFIG_WAKELOCK
wake_unlock(&rtw_suspend_resume_lock);
#elif defined(CONFIG_ANDROID_POWER)
android_unlock_suspend(&rtw_suspend_resume_lock);
#endif
#if defined(CONFIG_WAKELOCK) || defined(CONFIG_ANDROID_POWER)
/* RTW_INFO("####%s: suspend_lock_count:%d####\n", __FUNCTION__, rtw_suspend_lock.stat.count); */
#endif
}
inline void rtw_lock_suspend_timeout(u32 timeout_ms)
{
#ifdef CONFIG_WAKELOCK
wake_lock_timeout(&rtw_suspend_lock, rtw_ms_to_systime(timeout_ms));
#elif defined(CONFIG_ANDROID_POWER)
android_lock_suspend_auto_expire(&rtw_suspend_lock, rtw_ms_to_systime(timeout_ms));
#endif
}
inline void rtw_lock_ext_suspend_timeout(u32 timeout_ms)
{
#ifdef CONFIG_WAKELOCK
wake_lock_timeout(&rtw_suspend_ext_lock, rtw_ms_to_systime(timeout_ms));
#elif defined(CONFIG_ANDROID_POWER)
android_lock_suspend_auto_expire(&rtw_suspend_ext_lock, rtw_ms_to_systime(timeout_ms));
#endif
/* RTW_INFO("EXT lock timeout:%d\n", timeout_ms); */
}
inline void rtw_lock_rx_suspend_timeout(u32 timeout_ms)
{
#ifdef CONFIG_WAKELOCK
wake_lock_timeout(&rtw_suspend_rx_lock, rtw_ms_to_systime(timeout_ms));
#elif defined(CONFIG_ANDROID_POWER)
android_lock_suspend_auto_expire(&rtw_suspend_rx_lock, rtw_ms_to_systime(timeout_ms));
#endif
/* RTW_INFO("RX lock timeout:%d\n", timeout_ms); */
}
inline void rtw_lock_traffic_suspend_timeout(u32 timeout_ms)
{
#ifdef CONFIG_WAKELOCK
wake_lock_timeout(&rtw_suspend_traffic_lock, rtw_ms_to_systime(timeout_ms));
#elif defined(CONFIG_ANDROID_POWER)
android_lock_suspend_auto_expire(&rtw_suspend_traffic_lock, rtw_ms_to_systime(timeout_ms));
#endif
/* RTW_INFO("traffic lock timeout:%d\n", timeout_ms); */
}
inline void rtw_lock_resume_scan_timeout(u32 timeout_ms)
{
#ifdef CONFIG_WAKELOCK
wake_lock_timeout(&rtw_resume_scan_lock, rtw_ms_to_systime(timeout_ms));
#elif defined(CONFIG_ANDROID_POWER)
android_lock_suspend_auto_expire(&rtw_resume_scan_lock, rtw_ms_to_systime(timeout_ms));
#endif
/* RTW_INFO("resume scan lock:%d\n", timeout_ms); */
}
inline void ATOMIC_SET(ATOMIC_T *v, int i)
{
#ifdef PLATFORM_LINUX
atomic_set(v, i);
#elif defined(PLATFORM_WINDOWS)
*v = i; /* other choice???? */
#elif defined(PLATFORM_FREEBSD)
atomic_set_int(v, i);
#endif
}
inline int ATOMIC_READ(ATOMIC_T *v)
{
#ifdef PLATFORM_LINUX
return atomic_read(v);
#elif defined(PLATFORM_WINDOWS)
return *v; /* other choice???? */
#elif defined(PLATFORM_FREEBSD)
return atomic_load_acq_32(v);
#endif
}
inline void ATOMIC_ADD(ATOMIC_T *v, int i)
{
#ifdef PLATFORM_LINUX
atomic_add(i, v);
#elif defined(PLATFORM_WINDOWS)
InterlockedAdd(v, i);
#elif defined(PLATFORM_FREEBSD)
atomic_add_int(v, i);
#endif
}
inline void ATOMIC_SUB(ATOMIC_T *v, int i)
{
#ifdef PLATFORM_LINUX
atomic_sub(i, v);
#elif defined(PLATFORM_WINDOWS)
InterlockedAdd(v, -i);
#elif defined(PLATFORM_FREEBSD)
atomic_subtract_int(v, i);
#endif
}
inline void ATOMIC_INC(ATOMIC_T *v)
{
#ifdef PLATFORM_LINUX
atomic_inc(v);
#elif defined(PLATFORM_WINDOWS)
InterlockedIncrement(v);
#elif defined(PLATFORM_FREEBSD)
atomic_add_int(v, 1);
#endif
}
inline void ATOMIC_DEC(ATOMIC_T *v)
{
#ifdef PLATFORM_LINUX
atomic_dec(v);
#elif defined(PLATFORM_WINDOWS)
InterlockedDecrement(v);
#elif defined(PLATFORM_FREEBSD)
atomic_subtract_int(v, 1);
#endif
}
inline int ATOMIC_ADD_RETURN(ATOMIC_T *v, int i)
{
#ifdef PLATFORM_LINUX
return atomic_add_return(i, v);
#elif defined(PLATFORM_WINDOWS)
return InterlockedAdd(v, i);
#elif defined(PLATFORM_FREEBSD)
atomic_add_int(v, i);
return atomic_load_acq_32(v);
#endif
}
inline int ATOMIC_SUB_RETURN(ATOMIC_T *v, int i)
{
#ifdef PLATFORM_LINUX
return atomic_sub_return(i, v);
#elif defined(PLATFORM_WINDOWS)
return InterlockedAdd(v, -i);
#elif defined(PLATFORM_FREEBSD)
atomic_subtract_int(v, i);
return atomic_load_acq_32(v);
#endif
}
inline int ATOMIC_INC_RETURN(ATOMIC_T *v)
{
#ifdef PLATFORM_LINUX
return atomic_inc_return(v);
#elif defined(PLATFORM_WINDOWS)
return InterlockedIncrement(v);
#elif defined(PLATFORM_FREEBSD)
atomic_add_int(v, 1);
return atomic_load_acq_32(v);
#endif
}
inline int ATOMIC_DEC_RETURN(ATOMIC_T *v)
{
#ifdef PLATFORM_LINUX
return atomic_dec_return(v);
#elif defined(PLATFORM_WINDOWS)
return InterlockedDecrement(v);
#elif defined(PLATFORM_FREEBSD)
atomic_subtract_int(v, 1);
return atomic_load_acq_32(v);
#endif
}
/*
* Open the file with @param path and wirte @param sz byte of data starting from @param buf into the file
* @param path the path of the file to open and write
*/
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(5, 1, 0))
#define get_ds() (KERNEL_DS)
#endif
/*
* Test if the specifi @param path is a file and readable
* @param path the path of the file to test
* @return _TRUE or _FALSE
*/
int rtw_is_file_readable(const char *path)
{
/* Todo... */
return _FALSE;
}
/*
* Test if the specifi @param path is a file and readable.
* If readable, @param sz is got
* @param path the path of the file to test
* @return _TRUE or _FALSE
*/
int rtw_is_file_readable_with_size(const char *path, u32 *sz)
{
/* Todo... */
return _FALSE;
}
/*
* Open the file with @param path and retrive the file content into memory starting from @param buf for @param sz at most
* @param path the path of the file to open and read
* @param buf the starting address of the buffer to store file content
* @param sz how many bytes to read at most
* @return the byte we've read
*/
int rtw_retrieve_from_file(const char *path, u8 *buf, u32 sz)
{
/* Todo... */
return 0;
}
/*
* Open the file with @param path and wirte @param sz byte of data starting from @param buf into the file
* @param path the path of the file to open and write
* @param buf the starting address of the data to write into file
* @param sz how many bytes to write at most
* @return the byte we've written
*/
int rtw_store_to_file(const char *path, u8 *buf, u32 sz)
{
/* Todo... */
return 0;
}
#ifdef PLATFORM_LINUX
struct net_device *rtw_alloc_etherdev_with_old_priv(int sizeof_priv, void *old_priv)
{
struct net_device *pnetdev;
struct rtw_netdev_priv_indicator *pnpi;
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 35))
pnetdev = alloc_etherdev_mq(sizeof(struct rtw_netdev_priv_indicator), 4);
#else
pnetdev = alloc_etherdev(sizeof(struct rtw_netdev_priv_indicator));
#endif
if (!pnetdev)
goto RETURN;
pnetdev->min_mtu = WLAN_MIN_ETHFRM_LEN;
pnetdev->mtu = WLAN_MAX_ETHFRM_LEN;
pnetdev->max_mtu = WLAN_DATA_MAXLEN;
pnpi = netdev_priv(pnetdev);
pnpi->priv = old_priv;
pnpi->sizeof_priv = sizeof_priv;
RETURN:
return pnetdev;
}
struct net_device *rtw_alloc_etherdev(int sizeof_priv)
{
struct net_device *pnetdev;
struct rtw_netdev_priv_indicator *pnpi;
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 35))
pnetdev = alloc_etherdev_mq(sizeof(struct rtw_netdev_priv_indicator), 4);
#else
pnetdev = alloc_etherdev(sizeof(struct rtw_netdev_priv_indicator));
#endif
if (!pnetdev)
goto RETURN;
pnetdev->min_mtu = WLAN_MIN_ETHFRM_LEN;
pnetdev->mtu = WLAN_MAX_ETHFRM_LEN;
pnetdev->max_mtu = WLAN_DATA_MAXLEN;
pnpi = netdev_priv(pnetdev);
pnpi->priv = rtw_zvmalloc(sizeof_priv);
if (!pnpi->priv) {
free_netdev(pnetdev);
pnetdev = NULL;
goto RETURN;
}
pnpi->sizeof_priv = sizeof_priv;
RETURN:
return pnetdev;
}
void rtw_free_netdev(struct net_device *netdev)
{
struct rtw_netdev_priv_indicator *pnpi;
if (!netdev)
goto RETURN;
pnpi = netdev_priv(netdev);
if (!pnpi->priv)
goto RETURN;
free_netdev(netdev);
RETURN:
return;
}
int rtw_change_ifname(_adapter *padapter, const char *ifname)
{
struct dvobj_priv *dvobj;
struct net_device *pnetdev;
struct net_device *cur_pnetdev;
struct rereg_nd_name_data *rereg_priv;
int ret;
u8 rtnl_lock_needed;
if (!padapter)
goto error;
dvobj = adapter_to_dvobj(padapter);
cur_pnetdev = padapter->pnetdev;
rereg_priv = &padapter->rereg_nd_name_priv;
/* free the old_pnetdev */
if (rereg_priv->old_pnetdev) {
free_netdev(rereg_priv->old_pnetdev);
rereg_priv->old_pnetdev = NULL;
}
rtnl_lock_needed = rtw_rtnl_lock_needed(dvobj);
if (rtnl_lock_needed)
unregister_netdev(cur_pnetdev);
else
unregister_netdevice(cur_pnetdev);
rereg_priv->old_pnetdev = cur_pnetdev;
pnetdev = rtw_init_netdev(padapter);
if (!pnetdev) {
ret = -1;
goto error;
}
SET_NETDEV_DEV(pnetdev, dvobj_to_dev(adapter_to_dvobj(padapter)));
rtw_init_netdev_name(pnetdev, ifname);
_rtw_memcpy(pnetdev->dev_addr, adapter_mac_addr(padapter), ETH_ALEN);
if (rtnl_lock_needed)
ret = register_netdev(pnetdev);
else
ret = register_netdevice(pnetdev);
if (ret != 0) {
goto error;
}
return 0;
error:
return -1;
}
#endif
#ifdef PLATFORM_FREEBSD
/*
* Copy a buffer from userspace and write into kernel address
* space.
*
* This emulation just calls the FreeBSD copyin function (to
* copy data from user space buffer into a kernel space buffer)
* and is designed to be used with the above io_write_wrapper.
*
* This function should return the number of bytes not copied.
* I.e. success results in a zero value.
* Negative error values are not returned.
*/
unsigned long
copy_from_user(void *to, const void *from, unsigned long n)
{
if (copyin(from, to, n) != 0) {
/* Any errors will be treated as a failure
to copy any of the requested bytes */
return n;
}
return 0;
}
unsigned long
copy_to_user(void *to, const void *from, unsigned long n)
{
if (copyout(from, to, n) != 0) {
/* Any errors will be treated as a failure
to copy any of the requested bytes */
return n;
}
return 0;
}
/*
* The usb_register and usb_deregister functions are used to register
* usb drivers with the usb subsystem. In this compatibility layer
* emulation a list of drivers (struct usb_driver) is maintained
* and is used for probing/attaching etc.
*
* usb_register and usb_deregister simply call these functions.
*/
int
usb_register(struct usb_driver *driver)
{
rtw_usb_linux_register(driver);
return 0;
}
int
usb_deregister(struct usb_driver *driver)
{
rtw_usb_linux_deregister(driver);
return 0;
}
void module_init_exit_wrapper(void *arg)
{
int (*func)(void) = arg;
func();
return;
}
#endif /* PLATFORM_FREEBSD */
#ifdef CONFIG_PLATFORM_SPRD
#ifdef do_div
#undef do_div
#endif
#include <asm-generic/div64.h>
#endif
u64 rtw_modular64(u64 x, u64 y)
{
#ifdef PLATFORM_LINUX
return do_div(x, y);
#elif defined(PLATFORM_WINDOWS)
return x % y;
#elif defined(PLATFORM_FREEBSD)
return x % y;
#endif
}
u64 rtw_division64(u64 x, u64 y)
{
#ifdef PLATFORM_LINUX
do_div(x, y);
return x;
#elif defined(PLATFORM_WINDOWS)
return x / y;
#elif defined(PLATFORM_FREEBSD)
return x / y;
#endif
}
inline u32 rtw_random32(void)
{
#ifdef PLATFORM_LINUX
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 8, 0))
return prandom_u32();
#elif (LINUX_VERSION_CODE <= KERNEL_VERSION(2, 6, 18))
u32 random_int;
get_random_bytes(&random_int , 4);
return random_int;
#else
return random32();
#endif
#elif defined(PLATFORM_WINDOWS)
#error "to be implemented\n"
#elif defined(PLATFORM_FREEBSD)
#error "to be implemented\n"
#endif
}
void rtw_buf_free(u8 **buf, u32 *buf_len)
{
u32 ori_len;
if (!buf || !buf_len)
return;
ori_len = *buf_len;
if (*buf) {
u32 tmp_buf_len = *buf_len;
*buf_len = 0;
rtw_mfree(*buf, tmp_buf_len);
*buf = NULL;
}
}
void rtw_buf_update(u8 **buf, u32 *buf_len, u8 *src, u32 src_len)
{
u32 ori_len = 0, dup_len = 0;
u8 *ori = NULL;
u8 *dup = NULL;
if (!buf || !buf_len)
return;
if (!src || !src_len)
goto keep_ori;
/* duplicate src */
dup = rtw_malloc(src_len);
if (dup) {
dup_len = src_len;
_rtw_memcpy(dup, src, dup_len);
}
keep_ori:
ori = *buf;
ori_len = *buf_len;
/* replace buf with dup */
*buf_len = 0;
*buf = dup;
*buf_len = dup_len;
/* free ori */
if (ori && ori_len > 0)
rtw_mfree(ori, ori_len);
}
/**
* rtw_cbuf_full - test if cbuf is full
* @cbuf: pointer of struct rtw_cbuf
*
* Returns: _TRUE if cbuf is full
*/
inline bool rtw_cbuf_full(struct rtw_cbuf *cbuf)
{
return (cbuf->write == cbuf->read - 1) ? _TRUE : _FALSE;
}
/**
* rtw_cbuf_empty - test if cbuf is empty
* @cbuf: pointer of struct rtw_cbuf
*
* Returns: _TRUE if cbuf is empty
*/
inline bool rtw_cbuf_empty(struct rtw_cbuf *cbuf)
{
return (cbuf->write == cbuf->read) ? _TRUE : _FALSE;
}
/**
* rtw_cbuf_push - push a pointer into cbuf
* @cbuf: pointer of struct rtw_cbuf
* @buf: pointer to push in
*
* Lock free operation, be careful of the use scheme
* Returns: _TRUE push success
*/
bool rtw_cbuf_push(struct rtw_cbuf *cbuf, void *buf)
{
if (rtw_cbuf_full(cbuf))
return _FAIL;
if (0)
RTW_INFO("%s on %u\n", __func__, cbuf->write);
cbuf->bufs[cbuf->write] = buf;
cbuf->write = (cbuf->write + 1) % cbuf->size;
return _SUCCESS;
}
/**
* rtw_cbuf_pop - pop a pointer from cbuf
* @cbuf: pointer of struct rtw_cbuf
*
* Lock free operation, be careful of the use scheme
* Returns: pointer popped out
*/
void *rtw_cbuf_pop(struct rtw_cbuf *cbuf)
{
void *buf;
if (rtw_cbuf_empty(cbuf))
return NULL;
if (0)
RTW_INFO("%s on %u\n", __func__, cbuf->read);
buf = cbuf->bufs[cbuf->read];
cbuf->read = (cbuf->read + 1) % cbuf->size;
return buf;
}
/**
* rtw_cbuf_alloc - allocte a rtw_cbuf with given size and do initialization
* @size: size of pointer
*
* Returns: pointer of srtuct rtw_cbuf, NULL for allocation failure
*/
struct rtw_cbuf *rtw_cbuf_alloc(u32 size)
{
struct rtw_cbuf *cbuf;
cbuf = (struct rtw_cbuf *)rtw_malloc(sizeof(*cbuf) + sizeof(void *) * size);
if (cbuf) {
cbuf->write = cbuf->read = 0;
cbuf->size = size;
}
return cbuf;
}
/**
* rtw_cbuf_free - free the given rtw_cbuf
* @cbuf: pointer of struct rtw_cbuf to free
*/
void rtw_cbuf_free(struct rtw_cbuf *cbuf)
{
rtw_mfree((u8 *)cbuf, sizeof(*cbuf) + sizeof(void *) * cbuf->size);
}
/**
* map_readN - read a range of map data
* @map: map to read
* @offset: start address to read
* @len: length to read
* @buf: pointer of buffer to store data read
*
* Returns: _SUCCESS or _FAIL
*/
int map_readN(const struct map_t *map, u16 offset, u16 len, u8 *buf)
{
const struct map_seg_t *seg;
int ret = _FAIL;
int i;
if (len == 0) {
rtw_warn_on(1);
goto exit;
}
if (offset + len > map->len) {
rtw_warn_on(1);
goto exit;
}
_rtw_memset(buf, map->init_value, len);
for (i = 0; i < map->seg_num; i++) {
u8 *c_dst, *c_src;
u16 c_len;
seg = map->segs + i;
if (seg->sa + seg->len <= offset || seg->sa >= offset + len)
continue;
if (seg->sa >= offset) {
c_dst = buf + (seg->sa - offset);
c_src = seg->c;
if (seg->sa + seg->len <= offset + len)
c_len = seg->len;
else
c_len = offset + len - seg->sa;
} else {
c_dst = buf;
c_src = seg->c + (offset - seg->sa);
if (seg->sa + seg->len >= offset + len)
c_len = len;
else
c_len = seg->sa + seg->len - offset;
}
_rtw_memcpy(c_dst, c_src, c_len);
}
exit:
return ret;
}
/**
* map_read8 - read 1 byte of map data
* @map: map to read
* @offset: address to read
*
* Returns: value of data of specified offset. map.init_value if offset is out of range
*/
u8 map_read8(const struct map_t *map, u16 offset)
{
const struct map_seg_t *seg;
u8 val = map->init_value;
int i;
if (offset + 1 > map->len) {
rtw_warn_on(1);
goto exit;
}
for (i = 0; i < map->seg_num; i++) {
seg = map->segs + i;
if (seg->sa + seg->len <= offset || seg->sa >= offset + 1)
continue;
val = *(seg->c + offset - seg->sa);
break;
}
exit:
return val;
}
/**
* is_null -
*
* Return TRUE if c is null character
* FALSE otherwise.
*/
inline BOOLEAN is_null(char c)
{
if (c == '\0')
return _TRUE;
else
return _FALSE;
}
inline BOOLEAN is_all_null(char *c, int len)
{
for (; len > 0; len--)
if (c[len - 1] != '\0')
return _FALSE;
return _TRUE;
}
/**
* is_eol -
*
* Return TRUE if c is represent for EOL (end of line)
* FALSE otherwise.
*/
inline BOOLEAN is_eol(char c)
{
if (c == '\r' || c == '\n')
return _TRUE;
else
return _FALSE;
}
/**
* is_space -
*
* Return TRUE if c is represent for space
* FALSE otherwise.
*/
inline BOOLEAN is_space(char c)
{
if (c == ' ' || c == '\t')
return _TRUE;
else
return _FALSE;
}
/**
* IsHexDigit -
*
* Return TRUE if chTmp is represent for hex digit
* FALSE otherwise.
*/
inline BOOLEAN IsHexDigit(char chTmp)
{
if ((chTmp >= '0' && chTmp <= '9') ||
(chTmp >= 'a' && chTmp <= 'f') ||
(chTmp >= 'A' && chTmp <= 'F'))
return _TRUE;
else
return _FALSE;
}
/**
* is_alpha -
*
* Return TRUE if chTmp is represent for alphabet
* FALSE otherwise.
*/
inline BOOLEAN is_alpha(char chTmp)
{
if ((chTmp >= 'a' && chTmp <= 'z') ||
(chTmp >= 'A' && chTmp <= 'Z'))
return _TRUE;
else
return _FALSE;
}
inline char alpha_to_upper(char c)
{
if ((c >= 'a' && c <= 'z'))
c = 'A' + (c - 'a');
return c;
}
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