Files
linux/drivers/net/wireless/realtek/rtw89/fw.c

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64 KiB
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// SPDX-License-Identifier: GPL-2.0 OR BSD-3-Clause
/* Copyright(c) 2019-2020 Realtek Corporation
*/
#include "cam.h"
#include "coex.h"
#include "debug.h"
#include "fw.h"
#include "mac.h"
#include "phy.h"
#include "reg.h"
static struct sk_buff *rtw89_fw_h2c_alloc_skb(struct rtw89_dev *rtwdev, u32 len,
bool header)
{
struct sk_buff *skb;
u32 header_len = 0;
u32 h2c_desc_size = rtwdev->chip->h2c_desc_size;
if (header)
header_len = H2C_HEADER_LEN;
skb = dev_alloc_skb(len + header_len + h2c_desc_size);
if (!skb)
return NULL;
skb_reserve(skb, header_len + h2c_desc_size);
memset(skb->data, 0, len);
return skb;
}
struct sk_buff *rtw89_fw_h2c_alloc_skb_with_hdr(struct rtw89_dev *rtwdev, u32 len)
{
return rtw89_fw_h2c_alloc_skb(rtwdev, len, true);
}
struct sk_buff *rtw89_fw_h2c_alloc_skb_no_hdr(struct rtw89_dev *rtwdev, u32 len)
{
return rtw89_fw_h2c_alloc_skb(rtwdev, len, false);
}
static u8 _fw_get_rdy(struct rtw89_dev *rtwdev)
{
u8 val = rtw89_read8(rtwdev, R_AX_WCPU_FW_CTRL);
return FIELD_GET(B_AX_WCPU_FWDL_STS_MASK, val);
}
#define FWDL_WAIT_CNT 400000
int rtw89_fw_check_rdy(struct rtw89_dev *rtwdev)
{
u8 val;
int ret;
ret = read_poll_timeout_atomic(_fw_get_rdy, val,
val == RTW89_FWDL_WCPU_FW_INIT_RDY,
1, FWDL_WAIT_CNT, false, rtwdev);
if (ret) {
switch (val) {
case RTW89_FWDL_CHECKSUM_FAIL:
rtw89_err(rtwdev, "fw checksum fail\n");
return -EINVAL;
case RTW89_FWDL_SECURITY_FAIL:
rtw89_err(rtwdev, "fw security fail\n");
return -EINVAL;
case RTW89_FWDL_CV_NOT_MATCH:
rtw89_err(rtwdev, "fw cv not match\n");
return -EINVAL;
default:
return -EBUSY;
}
}
set_bit(RTW89_FLAG_FW_RDY, rtwdev->flags);
return 0;
}
static int rtw89_fw_hdr_parser(struct rtw89_dev *rtwdev, const u8 *fw, u32 len,
struct rtw89_fw_bin_info *info)
{
struct rtw89_fw_hdr_section_info *section_info;
const u8 *fw_end = fw + len;
const u8 *bin;
u32 i;
if (!info)
return -EINVAL;
info->section_num = GET_FW_HDR_SEC_NUM(fw);
info->hdr_len = RTW89_FW_HDR_SIZE +
info->section_num * RTW89_FW_SECTION_HDR_SIZE;
bin = fw + info->hdr_len;
/* jump to section header */
fw += RTW89_FW_HDR_SIZE;
section_info = info->section_info;
for (i = 0; i < info->section_num; i++) {
section_info->len = GET_FWSECTION_HDR_SEC_SIZE(fw);
if (GET_FWSECTION_HDR_CHECKSUM(fw))
section_info->len += FWDL_SECTION_CHKSUM_LEN;
section_info->redl = GET_FWSECTION_HDR_REDL(fw);
section_info->dladdr =
GET_FWSECTION_HDR_DL_ADDR(fw) & 0x1fffffff;
section_info->addr = bin;
bin += section_info->len;
fw += RTW89_FW_SECTION_HDR_SIZE;
section_info++;
}
if (fw_end != bin) {
rtw89_err(rtwdev, "[ERR]fw bin size\n");
return -EINVAL;
}
return 0;
}
static
int rtw89_mfw_recognize(struct rtw89_dev *rtwdev, enum rtw89_fw_type type,
struct rtw89_fw_suit *fw_suit)
{
struct rtw89_fw_info *fw_info = &rtwdev->fw;
const u8 *mfw = fw_info->firmware->data;
u32 mfw_len = fw_info->firmware->size;
const struct rtw89_mfw_hdr *mfw_hdr = (const struct rtw89_mfw_hdr *)mfw;
const struct rtw89_mfw_info *mfw_info;
int i;
if (mfw_hdr->sig != RTW89_MFW_SIG) {
rtw89_debug(rtwdev, RTW89_DBG_FW, "use legacy firmware\n");
/* legacy firmware support normal type only */
if (type != RTW89_FW_NORMAL)
return -EINVAL;
fw_suit->data = mfw;
fw_suit->size = mfw_len;
return 0;
}
for (i = 0; i < mfw_hdr->fw_nr; i++) {
mfw_info = &mfw_hdr->info[i];
if (mfw_info->cv != rtwdev->hal.cv ||
mfw_info->type != type ||
mfw_info->mp)
continue;
fw_suit->data = mfw + le32_to_cpu(mfw_info->shift);
fw_suit->size = le32_to_cpu(mfw_info->size);
return 0;
}
rtw89_err(rtwdev, "no suitable firmware found\n");
return -ENOENT;
}
static void rtw89_fw_update_ver(struct rtw89_dev *rtwdev,
enum rtw89_fw_type type,
struct rtw89_fw_suit *fw_suit)
{
const u8 *hdr = fw_suit->data;
fw_suit->major_ver = GET_FW_HDR_MAJOR_VERSION(hdr);
fw_suit->minor_ver = GET_FW_HDR_MINOR_VERSION(hdr);
fw_suit->sub_ver = GET_FW_HDR_SUBVERSION(hdr);
fw_suit->sub_idex = GET_FW_HDR_SUBINDEX(hdr);
fw_suit->build_year = GET_FW_HDR_YEAR(hdr);
fw_suit->build_mon = GET_FW_HDR_MONTH(hdr);
fw_suit->build_date = GET_FW_HDR_DATE(hdr);
fw_suit->build_hour = GET_FW_HDR_HOUR(hdr);
fw_suit->build_min = GET_FW_HDR_MIN(hdr);
fw_suit->cmd_ver = GET_FW_HDR_CMD_VERSERION(hdr);
rtw89_info(rtwdev,
"Firmware version %u.%u.%u.%u, cmd version %u, type %u\n",
fw_suit->major_ver, fw_suit->minor_ver, fw_suit->sub_ver,
fw_suit->sub_idex, fw_suit->cmd_ver, type);
}
static
int __rtw89_fw_recognize(struct rtw89_dev *rtwdev, enum rtw89_fw_type type)
{
struct rtw89_fw_suit *fw_suit = rtw89_fw_suit_get(rtwdev, type);
int ret;
ret = rtw89_mfw_recognize(rtwdev, type, fw_suit);
if (ret)
return ret;
rtw89_fw_update_ver(rtwdev, type, fw_suit);
return 0;
}
#define __DEF_FW_FEAT_COND(__cond, __op) \
static bool __fw_feat_cond_ ## __cond(u32 suit_ver_code, u32 comp_ver_code) \
{ \
return suit_ver_code __op comp_ver_code; \
}
__DEF_FW_FEAT_COND(ge, >=); /* greater or equal */
__DEF_FW_FEAT_COND(le, <=); /* less or equal */
struct __fw_feat_cfg {
enum rtw89_core_chip_id chip_id;
enum rtw89_fw_feature feature;
u32 ver_code;
bool (*cond)(u32 suit_ver_code, u32 comp_ver_code);
};
#define __CFG_FW_FEAT(_chip, _cond, _maj, _min, _sub, _idx, _feat) \
{ \
.chip_id = _chip, \
.feature = RTW89_FW_FEATURE_ ## _feat, \
.ver_code = RTW89_FW_VER_CODE(_maj, _min, _sub, _idx), \
.cond = __fw_feat_cond_ ## _cond, \
}
static const struct __fw_feat_cfg fw_feat_tbl[] = {
__CFG_FW_FEAT(RTL8852A, le, 0, 13, 29, 0, OLD_HT_RA_FORMAT),
__CFG_FW_FEAT(RTL8852A, ge, 0, 13, 35, 0, SCAN_OFFLOAD),
__CFG_FW_FEAT(RTL8852A, ge, 0, 13, 35, 0, TX_WAKE),
__CFG_FW_FEAT(RTL8852A, ge, 0, 13, 36, 0, CRASH_TRIGGER),
};
static void rtw89_fw_recognize_features(struct rtw89_dev *rtwdev)
{
const struct rtw89_chip_info *chip = rtwdev->chip;
const struct __fw_feat_cfg *ent;
const struct rtw89_fw_suit *fw_suit;
u32 suit_ver_code;
int i;
fw_suit = rtw89_fw_suit_get(rtwdev, RTW89_FW_NORMAL);
suit_ver_code = RTW89_FW_SUIT_VER_CODE(fw_suit);
for (i = 0; i < ARRAY_SIZE(fw_feat_tbl); i++) {
ent = &fw_feat_tbl[i];
if (chip->chip_id != ent->chip_id)
continue;
if (ent->cond(suit_ver_code, ent->ver_code))
RTW89_SET_FW_FEATURE(ent->feature, &rtwdev->fw);
}
}
int rtw89_fw_recognize(struct rtw89_dev *rtwdev)
{
int ret;
ret = __rtw89_fw_recognize(rtwdev, RTW89_FW_NORMAL);
if (ret)
return ret;
/* It still works if wowlan firmware isn't existing. */
__rtw89_fw_recognize(rtwdev, RTW89_FW_WOWLAN);
rtw89_fw_recognize_features(rtwdev);
return 0;
}
void rtw89_h2c_pkt_set_hdr(struct rtw89_dev *rtwdev, struct sk_buff *skb,
u8 type, u8 cat, u8 class, u8 func,
bool rack, bool dack, u32 len)
{
struct fwcmd_hdr *hdr;
hdr = (struct fwcmd_hdr *)skb_push(skb, 8);
if (!(rtwdev->fw.h2c_seq % 4))
rack = true;
hdr->hdr0 = cpu_to_le32(FIELD_PREP(H2C_HDR_DEL_TYPE, type) |
FIELD_PREP(H2C_HDR_CAT, cat) |
FIELD_PREP(H2C_HDR_CLASS, class) |
FIELD_PREP(H2C_HDR_FUNC, func) |
FIELD_PREP(H2C_HDR_H2C_SEQ, rtwdev->fw.h2c_seq));
hdr->hdr1 = cpu_to_le32(FIELD_PREP(H2C_HDR_TOTAL_LEN,
len + H2C_HEADER_LEN) |
(rack ? H2C_HDR_REC_ACK : 0) |
(dack ? H2C_HDR_DONE_ACK : 0));
rtwdev->fw.h2c_seq++;
}
static void rtw89_h2c_pkt_set_hdr_fwdl(struct rtw89_dev *rtwdev,
struct sk_buff *skb,
u8 type, u8 cat, u8 class, u8 func,
u32 len)
{
struct fwcmd_hdr *hdr;
hdr = (struct fwcmd_hdr *)skb_push(skb, 8);
hdr->hdr0 = cpu_to_le32(FIELD_PREP(H2C_HDR_DEL_TYPE, type) |
FIELD_PREP(H2C_HDR_CAT, cat) |
FIELD_PREP(H2C_HDR_CLASS, class) |
FIELD_PREP(H2C_HDR_FUNC, func) |
FIELD_PREP(H2C_HDR_H2C_SEQ, rtwdev->fw.h2c_seq));
hdr->hdr1 = cpu_to_le32(FIELD_PREP(H2C_HDR_TOTAL_LEN,
len + H2C_HEADER_LEN));
}
static int __rtw89_fw_download_hdr(struct rtw89_dev *rtwdev, const u8 *fw, u32 len)
{
struct sk_buff *skb;
u32 ret = 0;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw hdr dl\n");
return -ENOMEM;
}
skb_put_data(skb, fw, len);
SET_FW_HDR_PART_SIZE(skb->data, FWDL_SECTION_PER_PKT_LEN);
rtw89_h2c_pkt_set_hdr_fwdl(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FWDL,
H2C_FUNC_MAC_FWHDR_DL, len);
ret = rtw89_h2c_tx(rtwdev, skb, false);
if (ret) {
rtw89_err(rtwdev, "failed to send h2c\n");
ret = -1;
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return ret;
}
static int rtw89_fw_download_hdr(struct rtw89_dev *rtwdev, const u8 *fw, u32 len)
{
u8 val;
int ret;
ret = __rtw89_fw_download_hdr(rtwdev, fw, len);
if (ret) {
rtw89_err(rtwdev, "[ERR]FW header download\n");
return ret;
}
ret = read_poll_timeout_atomic(rtw89_read8, val, val & B_AX_FWDL_PATH_RDY,
1, FWDL_WAIT_CNT, false,
rtwdev, R_AX_WCPU_FW_CTRL);
if (ret) {
rtw89_err(rtwdev, "[ERR]FWDL path ready\n");
return ret;
}
rtw89_write32(rtwdev, R_AX_HALT_H2C_CTRL, 0);
rtw89_write32(rtwdev, R_AX_HALT_C2H_CTRL, 0);
return 0;
}
static int __rtw89_fw_download_main(struct rtw89_dev *rtwdev,
struct rtw89_fw_hdr_section_info *info)
{
struct sk_buff *skb;
const u8 *section = info->addr;
u32 residue_len = info->len;
u32 pkt_len;
int ret;
while (residue_len) {
if (residue_len >= FWDL_SECTION_PER_PKT_LEN)
pkt_len = FWDL_SECTION_PER_PKT_LEN;
else
pkt_len = residue_len;
skb = rtw89_fw_h2c_alloc_skb_no_hdr(rtwdev, pkt_len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
return -ENOMEM;
}
skb_put_data(skb, section, pkt_len);
ret = rtw89_h2c_tx(rtwdev, skb, true);
if (ret) {
rtw89_err(rtwdev, "failed to send h2c\n");
ret = -1;
goto fail;
}
section += pkt_len;
residue_len -= pkt_len;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return ret;
}
static int rtw89_fw_download_main(struct rtw89_dev *rtwdev, const u8 *fw,
struct rtw89_fw_bin_info *info)
{
struct rtw89_fw_hdr_section_info *section_info = info->section_info;
u8 section_num = info->section_num;
int ret;
while (section_num--) {
ret = __rtw89_fw_download_main(rtwdev, section_info);
if (ret)
return ret;
section_info++;
}
mdelay(5);
ret = rtw89_fw_check_rdy(rtwdev);
if (ret) {
rtw89_warn(rtwdev, "download firmware fail\n");
return ret;
}
return 0;
}
static void rtw89_fw_prog_cnt_dump(struct rtw89_dev *rtwdev)
{
u32 val32;
u16 index;
rtw89_write32(rtwdev, R_AX_DBG_CTRL,
FIELD_PREP(B_AX_DBG_SEL0, FW_PROG_CNTR_DBG_SEL) |
FIELD_PREP(B_AX_DBG_SEL1, FW_PROG_CNTR_DBG_SEL));
rtw89_write32_mask(rtwdev, R_AX_SYS_STATUS1, B_AX_SEL_0XC0_MASK, MAC_DBG_SEL);
for (index = 0; index < 15; index++) {
val32 = rtw89_read32(rtwdev, R_AX_DBG_PORT_SEL);
rtw89_err(rtwdev, "[ERR]fw PC = 0x%x\n", val32);
fsleep(10);
}
}
static void rtw89_fw_dl_fail_dump(struct rtw89_dev *rtwdev)
{
u32 val32;
u16 val16;
val32 = rtw89_read32(rtwdev, R_AX_WCPU_FW_CTRL);
rtw89_err(rtwdev, "[ERR]fwdl 0x1E0 = 0x%x\n", val32);
val16 = rtw89_read16(rtwdev, R_AX_BOOT_DBG + 2);
rtw89_err(rtwdev, "[ERR]fwdl 0x83F2 = 0x%x\n", val16);
rtw89_fw_prog_cnt_dump(rtwdev);
}
int rtw89_fw_download(struct rtw89_dev *rtwdev, enum rtw89_fw_type type)
{
struct rtw89_fw_info *fw_info = &rtwdev->fw;
struct rtw89_fw_suit *fw_suit = rtw89_fw_suit_get(rtwdev, type);
struct rtw89_fw_bin_info info;
const u8 *fw = fw_suit->data;
u32 len = fw_suit->size;
u8 val;
int ret;
if (!fw || !len) {
rtw89_err(rtwdev, "fw type %d isn't recognized\n", type);
return -ENOENT;
}
ret = rtw89_fw_hdr_parser(rtwdev, fw, len, &info);
if (ret) {
rtw89_err(rtwdev, "parse fw header fail\n");
goto fwdl_err;
}
ret = read_poll_timeout_atomic(rtw89_read8, val, val & B_AX_H2C_PATH_RDY,
1, FWDL_WAIT_CNT, false,
rtwdev, R_AX_WCPU_FW_CTRL);
if (ret) {
rtw89_err(rtwdev, "[ERR]H2C path ready\n");
goto fwdl_err;
}
ret = rtw89_fw_download_hdr(rtwdev, fw, info.hdr_len);
if (ret) {
ret = -EBUSY;
goto fwdl_err;
}
ret = rtw89_fw_download_main(rtwdev, fw, &info);
if (ret) {
ret = -EBUSY;
goto fwdl_err;
}
fw_info->h2c_seq = 0;
fw_info->rec_seq = 0;
rtwdev->mac.rpwm_seq_num = RPWM_SEQ_NUM_MAX;
rtwdev->mac.cpwm_seq_num = CPWM_SEQ_NUM_MAX;
return ret;
fwdl_err:
rtw89_fw_dl_fail_dump(rtwdev);
return ret;
}
int rtw89_wait_firmware_completion(struct rtw89_dev *rtwdev)
{
struct rtw89_fw_info *fw = &rtwdev->fw;
wait_for_completion(&fw->completion);
if (!fw->firmware)
return -EINVAL;
return 0;
}
static void rtw89_load_firmware_cb(const struct firmware *firmware, void *context)
{
struct rtw89_fw_info *fw = context;
struct rtw89_dev *rtwdev = fw->rtwdev;
if (!firmware || !firmware->data) {
rtw89_err(rtwdev, "failed to request firmware\n");
complete_all(&fw->completion);
return;
}
fw->firmware = firmware;
complete_all(&fw->completion);
}
int rtw89_load_firmware(struct rtw89_dev *rtwdev)
{
struct rtw89_fw_info *fw = &rtwdev->fw;
const char *fw_name = rtwdev->chip->fw_name;
int ret;
fw->rtwdev = rtwdev;
init_completion(&fw->completion);
ret = request_firmware_nowait(THIS_MODULE, true, fw_name, rtwdev->dev,
GFP_KERNEL, fw, rtw89_load_firmware_cb);
if (ret) {
rtw89_err(rtwdev, "failed to async firmware request\n");
return ret;
}
return 0;
}
void rtw89_unload_firmware(struct rtw89_dev *rtwdev)
{
struct rtw89_fw_info *fw = &rtwdev->fw;
rtw89_wait_firmware_completion(rtwdev);
if (fw->firmware)
release_firmware(fw->firmware);
}
#define H2C_CAM_LEN 60
int rtw89_fw_h2c_cam(struct rtw89_dev *rtwdev, struct rtw89_vif *rtwvif,
struct rtw89_sta *rtwsta, const u8 *scan_mac_addr)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_CAM_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
return -ENOMEM;
}
skb_put(skb, H2C_CAM_LEN);
rtw89_cam_fill_addr_cam_info(rtwdev, rtwvif, rtwsta, scan_mac_addr, skb->data);
rtw89_cam_fill_bssid_cam_info(rtwdev, rtwvif, skb->data);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC,
H2C_CL_MAC_ADDR_CAM_UPDATE,
H2C_FUNC_MAC_ADDR_CAM_UPD, 0, 1,
H2C_CAM_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_DCTL_SEC_CAM_LEN 68
int rtw89_fw_h2c_dctl_sec_cam_v1(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif,
struct rtw89_sta *rtwsta)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_DCTL_SEC_CAM_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for dctl sec cam\n");
return -ENOMEM;
}
skb_put(skb, H2C_DCTL_SEC_CAM_LEN);
rtw89_cam_fill_dctl_sec_cam_info_v1(rtwdev, rtwvif, rtwsta, skb->data);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC,
H2C_CL_MAC_FR_EXCHG,
H2C_FUNC_MAC_DCTLINFO_UD_V1, 0, 0,
H2C_DCTL_SEC_CAM_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
EXPORT_SYMBOL(rtw89_fw_h2c_dctl_sec_cam_v1);
#define H2C_BA_CAM_LEN 8
int rtw89_fw_h2c_ba_cam(struct rtw89_dev *rtwdev, struct rtw89_sta *rtwsta,
bool valid, struct ieee80211_ampdu_params *params)
{
u8 macid = rtwsta->mac_id;
struct sk_buff *skb;
u8 entry_idx;
int ret;
ret = valid ?
rtw89_core_acquire_sta_ba_entry(rtwsta, params->tid, &entry_idx) :
rtw89_core_release_sta_ba_entry(rtwsta, params->tid, &entry_idx);
if (ret) {
/* it still works even if we don't have static BA CAM, because
* hardware can create dynamic BA CAM automatically.
*/
rtw89_debug(rtwdev, RTW89_DBG_TXRX,
"failed to %s entry tid=%d for h2c ba cam\n",
valid ? "alloc" : "free", params->tid);
return 0;
}
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_BA_CAM_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c ba cam\n");
return -ENOMEM;
}
skb_put(skb, H2C_BA_CAM_LEN);
SET_BA_CAM_MACID(skb->data, macid);
SET_BA_CAM_ENTRY_IDX(skb->data, entry_idx);
if (!valid)
goto end;
SET_BA_CAM_VALID(skb->data, valid);
SET_BA_CAM_TID(skb->data, params->tid);
if (params->buf_size > 64)
SET_BA_CAM_BMAP_SIZE(skb->data, 4);
else
SET_BA_CAM_BMAP_SIZE(skb->data, 0);
/* If init req is set, hw will set the ssn */
SET_BA_CAM_INIT_REQ(skb->data, 1);
SET_BA_CAM_SSN(skb->data, params->ssn);
end:
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC,
H2C_CL_BA_CAM,
H2C_FUNC_MAC_BA_CAM, 0, 1,
H2C_BA_CAM_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LOG_CFG_LEN 12
int rtw89_fw_h2c_fw_log(struct rtw89_dev *rtwdev, bool enable)
{
struct sk_buff *skb;
u32 comp = enable ? BIT(RTW89_FW_LOG_COMP_INIT) | BIT(RTW89_FW_LOG_COMP_TASK) |
BIT(RTW89_FW_LOG_COMP_PS) | BIT(RTW89_FW_LOG_COMP_ERROR) : 0;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LOG_CFG_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw log cfg\n");
return -ENOMEM;
}
skb_put(skb, H2C_LOG_CFG_LEN);
SET_LOG_CFG_LEVEL(skb->data, RTW89_FW_LOG_LEVEL_SER);
SET_LOG_CFG_PATH(skb->data, BIT(RTW89_FW_LOG_LEVEL_C2H));
SET_LOG_CFG_COMP(skb->data, comp);
SET_LOG_CFG_COMP_EXT(skb->data, 0);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC,
H2C_CL_FW_INFO,
H2C_FUNC_LOG_CFG, 0, 0,
H2C_LOG_CFG_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_GENERAL_PKT_LEN 6
#define H2C_GENERAL_PKT_ID_UND 0xff
int rtw89_fw_h2c_general_pkt(struct rtw89_dev *rtwdev, u8 macid)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_GENERAL_PKT_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
return -ENOMEM;
}
skb_put(skb, H2C_GENERAL_PKT_LEN);
SET_GENERAL_PKT_MACID(skb->data, macid);
SET_GENERAL_PKT_PROBRSP_ID(skb->data, H2C_GENERAL_PKT_ID_UND);
SET_GENERAL_PKT_PSPOLL_ID(skb->data, H2C_GENERAL_PKT_ID_UND);
SET_GENERAL_PKT_NULL_ID(skb->data, H2C_GENERAL_PKT_ID_UND);
SET_GENERAL_PKT_QOS_NULL_ID(skb->data, H2C_GENERAL_PKT_ID_UND);
SET_GENERAL_PKT_CTS2SELF_ID(skb->data, H2C_GENERAL_PKT_ID_UND);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC,
H2C_CL_FW_INFO,
H2C_FUNC_MAC_GENERAL_PKT, 0, 1,
H2C_GENERAL_PKT_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LPS_PARM_LEN 8
int rtw89_fw_h2c_lps_parm(struct rtw89_dev *rtwdev,
struct rtw89_lps_parm *lps_param)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LPS_PARM_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
return -ENOMEM;
}
skb_put(skb, H2C_LPS_PARM_LEN);
SET_LPS_PARM_MACID(skb->data, lps_param->macid);
SET_LPS_PARM_PSMODE(skb->data, lps_param->psmode);
SET_LPS_PARM_LASTRPWM(skb->data, lps_param->lastrpwm);
SET_LPS_PARM_RLBM(skb->data, 1);
SET_LPS_PARM_SMARTPS(skb->data, 1);
SET_LPS_PARM_AWAKEINTERVAL(skb->data, 1);
SET_LPS_PARM_VOUAPSD(skb->data, 0);
SET_LPS_PARM_VIUAPSD(skb->data, 0);
SET_LPS_PARM_BEUAPSD(skb->data, 0);
SET_LPS_PARM_BKUAPSD(skb->data, 0);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC,
H2C_CL_MAC_PS,
H2C_FUNC_MAC_LPS_PARM, 0, 1,
H2C_LPS_PARM_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_CMC_TBL_LEN 68
int rtw89_fw_h2c_default_cmac_tbl(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif)
{
const struct rtw89_chip_info *chip = rtwdev->chip;
struct rtw89_hal *hal = &rtwdev->hal;
struct sk_buff *skb;
u8 ntx_path = hal->antenna_tx ? hal->antenna_tx : RF_B;
u8 map_b = hal->antenna_tx == RF_AB ? 1 : 0;
u8 macid = rtwvif->mac_id;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_CMC_TBL_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
return -ENOMEM;
}
skb_put(skb, H2C_CMC_TBL_LEN);
SET_CTRL_INFO_MACID(skb->data, macid);
SET_CTRL_INFO_OPERATION(skb->data, 1);
if (chip->h2c_cctl_func_id == H2C_FUNC_MAC_CCTLINFO_UD) {
SET_CMC_TBL_TXPWR_MODE(skb->data, 0);
SET_CMC_TBL_NTX_PATH_EN(skb->data, ntx_path);
SET_CMC_TBL_PATH_MAP_A(skb->data, 0);
SET_CMC_TBL_PATH_MAP_B(skb->data, map_b);
SET_CMC_TBL_PATH_MAP_C(skb->data, 0);
SET_CMC_TBL_PATH_MAP_D(skb->data, 0);
SET_CMC_TBL_ANTSEL_A(skb->data, 0);
SET_CMC_TBL_ANTSEL_B(skb->data, 0);
SET_CMC_TBL_ANTSEL_C(skb->data, 0);
SET_CMC_TBL_ANTSEL_D(skb->data, 0);
}
SET_CMC_TBL_DOPPLER_CTRL(skb->data, 0);
SET_CMC_TBL_TXPWR_TOLERENCE(skb->data, 0);
if (rtwvif->net_type == RTW89_NET_TYPE_AP_MODE)
SET_CMC_TBL_DATA_DCM(skb->data, 0);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FR_EXCHG,
chip->h2c_cctl_func_id, 0, 1,
H2C_CMC_TBL_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
static void __get_sta_he_pkt_padding(struct rtw89_dev *rtwdev,
struct ieee80211_sta *sta, u8 *pads)
{
bool ppe_th;
u8 ppe16, ppe8;
mac80211: prepare sta handling for MLO support Currently in mac80211 each STA object is represented using sta_info datastructure with the associated STA specific information and drivers access ieee80211_sta part of it. With MLO (Multi Link Operation) support being added in 802.11be standard, though the association is logically with a single Multi Link capable STA, at the physical level communication can happen via different advertised links (uniquely identified by Channel, operating class, BSSID) and hence the need to handle multiple link STA parameters within a composite sta_info object called the MLD STA. The different link STA part of MLD STA are identified using the link address which can be same or different as the MLD STA address and unique link id based on the link vif. To support extension of such a model, the sta_info datastructure is modified to hold multiple link STA objects with link specific params currently within sta_info moved to this new structure. Similarly this is done for ieee80211_sta as well which will be accessed within mac80211 as well as by drivers, hence trivial driver changes are expected to support this. For current non MLO supported drivers, only one link STA is present and link information is accessed via 'deflink' member. For MLO drivers, we still need to define the APIs etc. to get the correct link ID and access the correct part of the station info. Currently in mac80211, all link STA info are accessed directly via deflink. These will be updated to access via link pointers indexed by link id with MLO support patches, with link id being 0 for non MLO supported cases. Except for couple of macro related changes, below spatch takes care of updating mac80211 and driver code to access to the link STA info via deflink. @ieee80211_sta@ struct ieee80211_sta *s; struct sta_info *si; identifier var = {supp_rates, ht_cap, vht_cap, he_cap, he_6ghz_capa, eht_cap, rx_nss, bandwidth, txpwr}; @@ ( s-> - var + deflink.var | si->sta. - var + deflink.var ) @sta_info@ struct sta_info *si; identifier var = {gtk, pcpu_rx_stats, rx_stats, rx_stats_avg, status_stats, tx_stats, cur_max_bandwidth}; @@ ( si-> - var + deflink.var ) Signed-off-by: Sriram R <quic_srirrama@quicinc.com> Link: https://lore.kernel.org/r/1649086883-13246-1-git-send-email-quic_srirrama@quicinc.com [remove MLO-drivers notes from commit message, not clear yet; run spatch] Signed-off-by: Johannes Berg <johannes.berg@intel.com>
2022-04-04 21:11:23 +05:30
u8 nss = min(sta->deflink.rx_nss, rtwdev->hal.tx_nss) - 1;
u8 ppe_thres_hdr = sta->deflink.he_cap.ppe_thres[0];
u8 ru_bitmap;
u8 n, idx, sh;
u16 ppe;
int i;
mac80211: prepare sta handling for MLO support Currently in mac80211 each STA object is represented using sta_info datastructure with the associated STA specific information and drivers access ieee80211_sta part of it. With MLO (Multi Link Operation) support being added in 802.11be standard, though the association is logically with a single Multi Link capable STA, at the physical level communication can happen via different advertised links (uniquely identified by Channel, operating class, BSSID) and hence the need to handle multiple link STA parameters within a composite sta_info object called the MLD STA. The different link STA part of MLD STA are identified using the link address which can be same or different as the MLD STA address and unique link id based on the link vif. To support extension of such a model, the sta_info datastructure is modified to hold multiple link STA objects with link specific params currently within sta_info moved to this new structure. Similarly this is done for ieee80211_sta as well which will be accessed within mac80211 as well as by drivers, hence trivial driver changes are expected to support this. For current non MLO supported drivers, only one link STA is present and link information is accessed via 'deflink' member. For MLO drivers, we still need to define the APIs etc. to get the correct link ID and access the correct part of the station info. Currently in mac80211, all link STA info are accessed directly via deflink. These will be updated to access via link pointers indexed by link id with MLO support patches, with link id being 0 for non MLO supported cases. Except for couple of macro related changes, below spatch takes care of updating mac80211 and driver code to access to the link STA info via deflink. @ieee80211_sta@ struct ieee80211_sta *s; struct sta_info *si; identifier var = {supp_rates, ht_cap, vht_cap, he_cap, he_6ghz_capa, eht_cap, rx_nss, bandwidth, txpwr}; @@ ( s-> - var + deflink.var | si->sta. - var + deflink.var ) @sta_info@ struct sta_info *si; identifier var = {gtk, pcpu_rx_stats, rx_stats, rx_stats_avg, status_stats, tx_stats, cur_max_bandwidth}; @@ ( si-> - var + deflink.var ) Signed-off-by: Sriram R <quic_srirrama@quicinc.com> Link: https://lore.kernel.org/r/1649086883-13246-1-git-send-email-quic_srirrama@quicinc.com [remove MLO-drivers notes from commit message, not clear yet; run spatch] Signed-off-by: Johannes Berg <johannes.berg@intel.com>
2022-04-04 21:11:23 +05:30
if (!sta->deflink.he_cap.has_he)
return;
ppe_th = FIELD_GET(IEEE80211_HE_PHY_CAP6_PPE_THRESHOLD_PRESENT,
mac80211: prepare sta handling for MLO support Currently in mac80211 each STA object is represented using sta_info datastructure with the associated STA specific information and drivers access ieee80211_sta part of it. With MLO (Multi Link Operation) support being added in 802.11be standard, though the association is logically with a single Multi Link capable STA, at the physical level communication can happen via different advertised links (uniquely identified by Channel, operating class, BSSID) and hence the need to handle multiple link STA parameters within a composite sta_info object called the MLD STA. The different link STA part of MLD STA are identified using the link address which can be same or different as the MLD STA address and unique link id based on the link vif. To support extension of such a model, the sta_info datastructure is modified to hold multiple link STA objects with link specific params currently within sta_info moved to this new structure. Similarly this is done for ieee80211_sta as well which will be accessed within mac80211 as well as by drivers, hence trivial driver changes are expected to support this. For current non MLO supported drivers, only one link STA is present and link information is accessed via 'deflink' member. For MLO drivers, we still need to define the APIs etc. to get the correct link ID and access the correct part of the station info. Currently in mac80211, all link STA info are accessed directly via deflink. These will be updated to access via link pointers indexed by link id with MLO support patches, with link id being 0 for non MLO supported cases. Except for couple of macro related changes, below spatch takes care of updating mac80211 and driver code to access to the link STA info via deflink. @ieee80211_sta@ struct ieee80211_sta *s; struct sta_info *si; identifier var = {supp_rates, ht_cap, vht_cap, he_cap, he_6ghz_capa, eht_cap, rx_nss, bandwidth, txpwr}; @@ ( s-> - var + deflink.var | si->sta. - var + deflink.var ) @sta_info@ struct sta_info *si; identifier var = {gtk, pcpu_rx_stats, rx_stats, rx_stats_avg, status_stats, tx_stats, cur_max_bandwidth}; @@ ( si-> - var + deflink.var ) Signed-off-by: Sriram R <quic_srirrama@quicinc.com> Link: https://lore.kernel.org/r/1649086883-13246-1-git-send-email-quic_srirrama@quicinc.com [remove MLO-drivers notes from commit message, not clear yet; run spatch] Signed-off-by: Johannes Berg <johannes.berg@intel.com>
2022-04-04 21:11:23 +05:30
sta->deflink.he_cap.he_cap_elem.phy_cap_info[6]);
if (!ppe_th) {
u8 pad;
pad = FIELD_GET(IEEE80211_HE_PHY_CAP9_NOMINAL_PKT_PADDING_MASK,
mac80211: prepare sta handling for MLO support Currently in mac80211 each STA object is represented using sta_info datastructure with the associated STA specific information and drivers access ieee80211_sta part of it. With MLO (Multi Link Operation) support being added in 802.11be standard, though the association is logically with a single Multi Link capable STA, at the physical level communication can happen via different advertised links (uniquely identified by Channel, operating class, BSSID) and hence the need to handle multiple link STA parameters within a composite sta_info object called the MLD STA. The different link STA part of MLD STA are identified using the link address which can be same or different as the MLD STA address and unique link id based on the link vif. To support extension of such a model, the sta_info datastructure is modified to hold multiple link STA objects with link specific params currently within sta_info moved to this new structure. Similarly this is done for ieee80211_sta as well which will be accessed within mac80211 as well as by drivers, hence trivial driver changes are expected to support this. For current non MLO supported drivers, only one link STA is present and link information is accessed via 'deflink' member. For MLO drivers, we still need to define the APIs etc. to get the correct link ID and access the correct part of the station info. Currently in mac80211, all link STA info are accessed directly via deflink. These will be updated to access via link pointers indexed by link id with MLO support patches, with link id being 0 for non MLO supported cases. Except for couple of macro related changes, below spatch takes care of updating mac80211 and driver code to access to the link STA info via deflink. @ieee80211_sta@ struct ieee80211_sta *s; struct sta_info *si; identifier var = {supp_rates, ht_cap, vht_cap, he_cap, he_6ghz_capa, eht_cap, rx_nss, bandwidth, txpwr}; @@ ( s-> - var + deflink.var | si->sta. - var + deflink.var ) @sta_info@ struct sta_info *si; identifier var = {gtk, pcpu_rx_stats, rx_stats, rx_stats_avg, status_stats, tx_stats, cur_max_bandwidth}; @@ ( si-> - var + deflink.var ) Signed-off-by: Sriram R <quic_srirrama@quicinc.com> Link: https://lore.kernel.org/r/1649086883-13246-1-git-send-email-quic_srirrama@quicinc.com [remove MLO-drivers notes from commit message, not clear yet; run spatch] Signed-off-by: Johannes Berg <johannes.berg@intel.com>
2022-04-04 21:11:23 +05:30
sta->deflink.he_cap.he_cap_elem.phy_cap_info[9]);
for (i = 0; i < RTW89_PPE_BW_NUM; i++)
pads[i] = pad;
return;
}
ru_bitmap = FIELD_GET(IEEE80211_PPE_THRES_RU_INDEX_BITMASK_MASK, ppe_thres_hdr);
n = hweight8(ru_bitmap);
n = 7 + (n * IEEE80211_PPE_THRES_INFO_PPET_SIZE * 2) * nss;
for (i = 0; i < RTW89_PPE_BW_NUM; i++) {
if (!(ru_bitmap & BIT(i))) {
pads[i] = 1;
continue;
}
idx = n >> 3;
sh = n & 7;
n += IEEE80211_PPE_THRES_INFO_PPET_SIZE * 2;
mac80211: prepare sta handling for MLO support Currently in mac80211 each STA object is represented using sta_info datastructure with the associated STA specific information and drivers access ieee80211_sta part of it. With MLO (Multi Link Operation) support being added in 802.11be standard, though the association is logically with a single Multi Link capable STA, at the physical level communication can happen via different advertised links (uniquely identified by Channel, operating class, BSSID) and hence the need to handle multiple link STA parameters within a composite sta_info object called the MLD STA. The different link STA part of MLD STA are identified using the link address which can be same or different as the MLD STA address and unique link id based on the link vif. To support extension of such a model, the sta_info datastructure is modified to hold multiple link STA objects with link specific params currently within sta_info moved to this new structure. Similarly this is done for ieee80211_sta as well which will be accessed within mac80211 as well as by drivers, hence trivial driver changes are expected to support this. For current non MLO supported drivers, only one link STA is present and link information is accessed via 'deflink' member. For MLO drivers, we still need to define the APIs etc. to get the correct link ID and access the correct part of the station info. Currently in mac80211, all link STA info are accessed directly via deflink. These will be updated to access via link pointers indexed by link id with MLO support patches, with link id being 0 for non MLO supported cases. Except for couple of macro related changes, below spatch takes care of updating mac80211 and driver code to access to the link STA info via deflink. @ieee80211_sta@ struct ieee80211_sta *s; struct sta_info *si; identifier var = {supp_rates, ht_cap, vht_cap, he_cap, he_6ghz_capa, eht_cap, rx_nss, bandwidth, txpwr}; @@ ( s-> - var + deflink.var | si->sta. - var + deflink.var ) @sta_info@ struct sta_info *si; identifier var = {gtk, pcpu_rx_stats, rx_stats, rx_stats_avg, status_stats, tx_stats, cur_max_bandwidth}; @@ ( si-> - var + deflink.var ) Signed-off-by: Sriram R <quic_srirrama@quicinc.com> Link: https://lore.kernel.org/r/1649086883-13246-1-git-send-email-quic_srirrama@quicinc.com [remove MLO-drivers notes from commit message, not clear yet; run spatch] Signed-off-by: Johannes Berg <johannes.berg@intel.com>
2022-04-04 21:11:23 +05:30
ppe = le16_to_cpu(*((__le16 *)&sta->deflink.he_cap.ppe_thres[idx]));
ppe16 = (ppe >> sh) & IEEE80211_PPE_THRES_NSS_MASK;
sh += IEEE80211_PPE_THRES_INFO_PPET_SIZE;
ppe8 = (ppe >> sh) & IEEE80211_PPE_THRES_NSS_MASK;
if (ppe16 != 7 && ppe8 == 7)
pads[i] = 2;
else if (ppe8 != 7)
pads[i] = 1;
else
pads[i] = 0;
}
}
int rtw89_fw_h2c_assoc_cmac_tbl(struct rtw89_dev *rtwdev,
struct ieee80211_vif *vif,
struct ieee80211_sta *sta)
{
const struct rtw89_chip_info *chip = rtwdev->chip;
struct rtw89_hal *hal = &rtwdev->hal;
struct rtw89_sta *rtwsta = sta_to_rtwsta_safe(sta);
struct rtw89_vif *rtwvif = (struct rtw89_vif *)vif->drv_priv;
struct sk_buff *skb;
u8 pads[RTW89_PPE_BW_NUM];
u8 mac_id = rtwsta ? rtwsta->mac_id : rtwvif->mac_id;
memset(pads, 0, sizeof(pads));
if (sta)
__get_sta_he_pkt_padding(rtwdev, sta, pads);
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_CMC_TBL_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
return -ENOMEM;
}
skb_put(skb, H2C_CMC_TBL_LEN);
SET_CTRL_INFO_MACID(skb->data, mac_id);
SET_CTRL_INFO_OPERATION(skb->data, 1);
SET_CMC_TBL_DISRTSFB(skb->data, 1);
SET_CMC_TBL_DISDATAFB(skb->data, 1);
if (hal->current_band_type == RTW89_BAND_2G)
SET_CMC_TBL_RTS_RTY_LOWEST_RATE(skb->data, RTW89_HW_RATE_CCK1);
else
SET_CMC_TBL_RTS_RTY_LOWEST_RATE(skb->data, RTW89_HW_RATE_OFDM6);
SET_CMC_TBL_RTS_TXCNT_LMT_SEL(skb->data, 0);
SET_CMC_TBL_DATA_TXCNT_LMT_SEL(skb->data, 0);
if (vif->type == NL80211_IFTYPE_STATION)
SET_CMC_TBL_ULDL(skb->data, 1);
else
SET_CMC_TBL_ULDL(skb->data, 0);
SET_CMC_TBL_MULTI_PORT_ID(skb->data, rtwvif->port);
if (chip->h2c_cctl_func_id == H2C_FUNC_MAC_CCTLINFO_UD_V1) {
SET_CMC_TBL_NOMINAL_PKT_PADDING_V1(skb->data, pads[RTW89_CHANNEL_WIDTH_20]);
SET_CMC_TBL_NOMINAL_PKT_PADDING40_V1(skb->data, pads[RTW89_CHANNEL_WIDTH_40]);
SET_CMC_TBL_NOMINAL_PKT_PADDING80_V1(skb->data, pads[RTW89_CHANNEL_WIDTH_80]);
SET_CMC_TBL_NOMINAL_PKT_PADDING160_V1(skb->data, pads[RTW89_CHANNEL_WIDTH_160]);
} else if (chip->h2c_cctl_func_id == H2C_FUNC_MAC_CCTLINFO_UD) {
SET_CMC_TBL_NOMINAL_PKT_PADDING(skb->data, pads[RTW89_CHANNEL_WIDTH_20]);
SET_CMC_TBL_NOMINAL_PKT_PADDING40(skb->data, pads[RTW89_CHANNEL_WIDTH_40]);
SET_CMC_TBL_NOMINAL_PKT_PADDING80(skb->data, pads[RTW89_CHANNEL_WIDTH_80]);
SET_CMC_TBL_NOMINAL_PKT_PADDING160(skb->data, pads[RTW89_CHANNEL_WIDTH_160]);
}
if (sta)
mac80211: prepare sta handling for MLO support Currently in mac80211 each STA object is represented using sta_info datastructure with the associated STA specific information and drivers access ieee80211_sta part of it. With MLO (Multi Link Operation) support being added in 802.11be standard, though the association is logically with a single Multi Link capable STA, at the physical level communication can happen via different advertised links (uniquely identified by Channel, operating class, BSSID) and hence the need to handle multiple link STA parameters within a composite sta_info object called the MLD STA. The different link STA part of MLD STA are identified using the link address which can be same or different as the MLD STA address and unique link id based on the link vif. To support extension of such a model, the sta_info datastructure is modified to hold multiple link STA objects with link specific params currently within sta_info moved to this new structure. Similarly this is done for ieee80211_sta as well which will be accessed within mac80211 as well as by drivers, hence trivial driver changes are expected to support this. For current non MLO supported drivers, only one link STA is present and link information is accessed via 'deflink' member. For MLO drivers, we still need to define the APIs etc. to get the correct link ID and access the correct part of the station info. Currently in mac80211, all link STA info are accessed directly via deflink. These will be updated to access via link pointers indexed by link id with MLO support patches, with link id being 0 for non MLO supported cases. Except for couple of macro related changes, below spatch takes care of updating mac80211 and driver code to access to the link STA info via deflink. @ieee80211_sta@ struct ieee80211_sta *s; struct sta_info *si; identifier var = {supp_rates, ht_cap, vht_cap, he_cap, he_6ghz_capa, eht_cap, rx_nss, bandwidth, txpwr}; @@ ( s-> - var + deflink.var | si->sta. - var + deflink.var ) @sta_info@ struct sta_info *si; identifier var = {gtk, pcpu_rx_stats, rx_stats, rx_stats_avg, status_stats, tx_stats, cur_max_bandwidth}; @@ ( si-> - var + deflink.var ) Signed-off-by: Sriram R <quic_srirrama@quicinc.com> Link: https://lore.kernel.org/r/1649086883-13246-1-git-send-email-quic_srirrama@quicinc.com [remove MLO-drivers notes from commit message, not clear yet; run spatch] Signed-off-by: Johannes Berg <johannes.berg@intel.com>
2022-04-04 21:11:23 +05:30
SET_CMC_TBL_BSR_QUEUE_SIZE_FORMAT(skb->data,
sta->deflink.he_cap.has_he);
if (rtwvif->net_type == RTW89_NET_TYPE_AP_MODE)
SET_CMC_TBL_DATA_DCM(skb->data, 0);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FR_EXCHG,
chip->h2c_cctl_func_id, 0, 1,
H2C_CMC_TBL_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
int rtw89_fw_h2c_txtime_cmac_tbl(struct rtw89_dev *rtwdev,
struct rtw89_sta *rtwsta)
{
const struct rtw89_chip_info *chip = rtwdev->chip;
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_CMC_TBL_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
return -ENOMEM;
}
skb_put(skb, H2C_CMC_TBL_LEN);
SET_CTRL_INFO_MACID(skb->data, rtwsta->mac_id);
SET_CTRL_INFO_OPERATION(skb->data, 1);
if (rtwsta->cctl_tx_time) {
SET_CMC_TBL_AMPDU_TIME_SEL(skb->data, 1);
SET_CMC_TBL_AMPDU_MAX_TIME(skb->data, rtwsta->ampdu_max_time);
}
if (rtwsta->cctl_tx_retry_limit) {
SET_CMC_TBL_DATA_TXCNT_LMT_SEL(skb->data, 1);
SET_CMC_TBL_DATA_TX_CNT_LMT(skb->data, rtwsta->data_tx_cnt_lmt);
}
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FR_EXCHG,
chip->h2c_cctl_func_id, 0, 1,
H2C_CMC_TBL_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_BCN_BASE_LEN 12
int rtw89_fw_h2c_update_beacon(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif)
{
struct rtw89_hal *hal = &rtwdev->hal;
struct ieee80211_vif *vif = rtwvif_to_vif(rtwvif);
struct sk_buff *skb;
struct sk_buff *skb_beacon;
u16 tim_offset;
int bcn_total_len;
skb_beacon = ieee80211_beacon_get_tim(rtwdev->hw, vif, &tim_offset, NULL);
if (!skb_beacon) {
rtw89_err(rtwdev, "failed to get beacon skb\n");
return -ENOMEM;
}
bcn_total_len = H2C_BCN_BASE_LEN + skb_beacon->len;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, bcn_total_len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for fw dl\n");
dev_kfree_skb_any(skb_beacon);
return -ENOMEM;
}
skb_put(skb, H2C_BCN_BASE_LEN);
SET_BCN_UPD_PORT(skb->data, rtwvif->port);
SET_BCN_UPD_MBSSID(skb->data, 0);
SET_BCN_UPD_BAND(skb->data, rtwvif->mac_idx);
SET_BCN_UPD_GRP_IE_OFST(skb->data, tim_offset);
SET_BCN_UPD_MACID(skb->data, rtwvif->mac_id);
SET_BCN_UPD_SSN_SEL(skb->data, RTW89_MGMT_HW_SSN_SEL);
SET_BCN_UPD_SSN_MODE(skb->data, RTW89_MGMT_HW_SEQ_MODE);
SET_BCN_UPD_RATE(skb->data, hal->current_band_type == RTW89_BAND_2G ?
RTW89_HW_RATE_CCK1 : RTW89_HW_RATE_OFDM6);
skb_put_data(skb, skb_beacon->data, skb_beacon->len);
dev_kfree_skb_any(skb_beacon);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FR_EXCHG,
H2C_FUNC_MAC_BCN_UPD, 0, 1,
bcn_total_len);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
dev_kfree_skb_any(skb);
return -EBUSY;
}
return 0;
}
#define H2C_ROLE_MAINTAIN_LEN 4
int rtw89_fw_h2c_role_maintain(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif,
struct rtw89_sta *rtwsta,
enum rtw89_upd_mode upd_mode)
{
struct sk_buff *skb;
u8 mac_id = rtwsta ? rtwsta->mac_id : rtwvif->mac_id;
u8 self_role;
if (rtwvif->net_type == RTW89_NET_TYPE_AP_MODE) {
if (rtwsta)
self_role = RTW89_SELF_ROLE_AP_CLIENT;
else
self_role = rtwvif->self_role;
} else {
self_role = rtwvif->self_role;
}
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_ROLE_MAINTAIN_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c join\n");
return -ENOMEM;
}
skb_put(skb, H2C_ROLE_MAINTAIN_LEN);
SET_FWROLE_MAINTAIN_MACID(skb->data, mac_id);
SET_FWROLE_MAINTAIN_SELF_ROLE(skb->data, self_role);
SET_FWROLE_MAINTAIN_UPD_MODE(skb->data, upd_mode);
SET_FWROLE_MAINTAIN_WIFI_ROLE(skb->data, rtwvif->wifi_role);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_MEDIA_RPT,
H2C_FUNC_MAC_FWROLE_MAINTAIN, 0, 1,
H2C_ROLE_MAINTAIN_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_JOIN_INFO_LEN 4
int rtw89_fw_h2c_join_info(struct rtw89_dev *rtwdev, struct rtw89_vif *rtwvif,
struct rtw89_sta *rtwsta, bool dis_conn)
{
struct sk_buff *skb;
u8 mac_id = rtwsta ? rtwsta->mac_id : rtwvif->mac_id;
u8 self_role = rtwvif->self_role;
u8 net_type = rtwvif->net_type;
if (net_type == RTW89_NET_TYPE_AP_MODE && rtwsta) {
self_role = RTW89_SELF_ROLE_AP_CLIENT;
net_type = dis_conn ? RTW89_NET_TYPE_NO_LINK : net_type;
}
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_JOIN_INFO_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c join\n");
return -ENOMEM;
}
skb_put(skb, H2C_JOIN_INFO_LEN);
SET_JOININFO_MACID(skb->data, mac_id);
SET_JOININFO_OP(skb->data, dis_conn);
SET_JOININFO_BAND(skb->data, rtwvif->mac_idx);
SET_JOININFO_WMM(skb->data, rtwvif->wmm);
SET_JOININFO_TGR(skb->data, rtwvif->trigger);
SET_JOININFO_ISHESTA(skb->data, 0);
SET_JOININFO_DLBW(skb->data, 0);
SET_JOININFO_TF_MAC_PAD(skb->data, 0);
SET_JOININFO_DL_T_PE(skb->data, 0);
SET_JOININFO_PORT_ID(skb->data, rtwvif->port);
SET_JOININFO_NET_TYPE(skb->data, net_type);
SET_JOININFO_WIFI_ROLE(skb->data, rtwvif->wifi_role);
SET_JOININFO_SELF_ROLE(skb->data, self_role);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_MEDIA_RPT,
H2C_FUNC_MAC_JOININFO, 0, 1,
H2C_JOIN_INFO_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
int rtw89_fw_h2c_macid_pause(struct rtw89_dev *rtwdev, u8 sh, u8 grp,
bool pause)
{
struct rtw89_fw_macid_pause_grp h2c = {{0}};
u8 len = sizeof(struct rtw89_fw_macid_pause_grp);
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_JOIN_INFO_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c join\n");
return -ENOMEM;
}
h2c.mask_grp[grp] = cpu_to_le32(BIT(sh));
if (pause)
h2c.pause_grp[grp] = cpu_to_le32(BIT(sh));
skb_put_data(skb, &h2c, len);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FW_OFLD,
H2C_FUNC_MAC_MACID_PAUSE, 1, 0,
len);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_EDCA_LEN 12
int rtw89_fw_h2c_set_edca(struct rtw89_dev *rtwdev, struct rtw89_vif *rtwvif,
u8 ac, u32 val)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_EDCA_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c edca\n");
return -ENOMEM;
}
skb_put(skb, H2C_EDCA_LEN);
RTW89_SET_EDCA_SEL(skb->data, 0);
RTW89_SET_EDCA_BAND(skb->data, rtwvif->mac_idx);
RTW89_SET_EDCA_WMM(skb->data, 0);
RTW89_SET_EDCA_AC(skb->data, ac);
RTW89_SET_EDCA_PARAM(skb->data, val);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FW_OFLD,
H2C_FUNC_USR_EDCA, 0, 1,
H2C_EDCA_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_OFLD_CFG_LEN 8
int rtw89_fw_h2c_set_ofld_cfg(struct rtw89_dev *rtwdev)
{
static const u8 cfg[] = {0x09, 0x00, 0x00, 0x00, 0x5e, 0x00, 0x00, 0x00};
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_OFLD_CFG_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c ofld\n");
return -ENOMEM;
}
skb_put_data(skb, cfg, H2C_OFLD_CFG_LEN);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FW_OFLD,
H2C_FUNC_OFLD_CFG, 0, 1,
H2C_OFLD_CFG_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_RA_LEN 16
int rtw89_fw_h2c_ra(struct rtw89_dev *rtwdev, struct rtw89_ra_info *ra, bool csi)
{
struct sk_buff *skb;
u8 *cmd;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_RA_LEN);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c join\n");
return -ENOMEM;
}
skb_put(skb, H2C_RA_LEN);
cmd = skb->data;
rtw89_debug(rtwdev, RTW89_DBG_RA,
"ra cmd msk: %llx ", ra->ra_mask);
RTW89_SET_FWCMD_RA_MODE(cmd, ra->mode_ctrl);
RTW89_SET_FWCMD_RA_BW_CAP(cmd, ra->bw_cap);
RTW89_SET_FWCMD_RA_MACID(cmd, ra->macid);
RTW89_SET_FWCMD_RA_DCM(cmd, ra->dcm_cap);
RTW89_SET_FWCMD_RA_ER(cmd, ra->er_cap);
RTW89_SET_FWCMD_RA_INIT_RATE_LV(cmd, ra->init_rate_lv);
RTW89_SET_FWCMD_RA_UPD_ALL(cmd, ra->upd_all);
RTW89_SET_FWCMD_RA_SGI(cmd, ra->en_sgi);
RTW89_SET_FWCMD_RA_LDPC(cmd, ra->ldpc_cap);
RTW89_SET_FWCMD_RA_STBC(cmd, ra->stbc_cap);
RTW89_SET_FWCMD_RA_SS_NUM(cmd, ra->ss_num);
RTW89_SET_FWCMD_RA_GILTF(cmd, ra->giltf);
RTW89_SET_FWCMD_RA_UPD_BW_NSS_MASK(cmd, ra->upd_bw_nss_mask);
RTW89_SET_FWCMD_RA_UPD_MASK(cmd, ra->upd_mask);
RTW89_SET_FWCMD_RA_MASK_0(cmd, FIELD_GET(MASKBYTE0, ra->ra_mask));
RTW89_SET_FWCMD_RA_MASK_1(cmd, FIELD_GET(MASKBYTE1, ra->ra_mask));
RTW89_SET_FWCMD_RA_MASK_2(cmd, FIELD_GET(MASKBYTE2, ra->ra_mask));
RTW89_SET_FWCMD_RA_MASK_3(cmd, FIELD_GET(MASKBYTE3, ra->ra_mask));
RTW89_SET_FWCMD_RA_MASK_4(cmd, FIELD_GET(MASKBYTE4, ra->ra_mask));
if (csi) {
RTW89_SET_FWCMD_RA_BFEE_CSI_CTL(cmd, 1);
RTW89_SET_FWCMD_RA_BAND_NUM(cmd, ra->band_num);
RTW89_SET_FWCMD_RA_CR_TBL_SEL(cmd, ra->cr_tbl_sel);
RTW89_SET_FWCMD_RA_FIXED_CSI_RATE_EN(cmd, ra->fixed_csi_rate_en);
RTW89_SET_FWCMD_RA_RA_CSI_RATE_EN(cmd, ra->ra_csi_rate_en);
RTW89_SET_FWCMD_RA_FIXED_CSI_MCS_SS_IDX(cmd, ra->csi_mcs_ss_idx);
RTW89_SET_FWCMD_RA_FIXED_CSI_MODE(cmd, ra->csi_mode);
RTW89_SET_FWCMD_RA_FIXED_CSI_GI_LTF(cmd, ra->csi_gi_ltf);
RTW89_SET_FWCMD_RA_FIXED_CSI_BW(cmd, ra->csi_bw);
}
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, H2C_CL_OUTSRC_RA,
H2C_FUNC_OUTSRC_RA_MACIDCFG, 0, 0,
H2C_RA_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LEN_CXDRVHDR 2
#define H2C_LEN_CXDRVINFO_INIT (12 + H2C_LEN_CXDRVHDR)
int rtw89_fw_h2c_cxdrv_init(struct rtw89_dev *rtwdev)
{
struct rtw89_btc *btc = &rtwdev->btc;
struct rtw89_btc_dm *dm = &btc->dm;
struct rtw89_btc_init_info *init_info = &dm->init_info;
struct rtw89_btc_module *module = &init_info->module;
struct rtw89_btc_ant_info *ant = &module->ant;
struct sk_buff *skb;
u8 *cmd;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LEN_CXDRVINFO_INIT);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c cxdrv_init\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_CXDRVINFO_INIT);
cmd = skb->data;
RTW89_SET_FWCMD_CXHDR_TYPE(cmd, CXDRVINFO_INIT);
RTW89_SET_FWCMD_CXHDR_LEN(cmd, H2C_LEN_CXDRVINFO_INIT - H2C_LEN_CXDRVHDR);
RTW89_SET_FWCMD_CXINIT_ANT_TYPE(cmd, ant->type);
RTW89_SET_FWCMD_CXINIT_ANT_NUM(cmd, ant->num);
RTW89_SET_FWCMD_CXINIT_ANT_ISO(cmd, ant->isolation);
RTW89_SET_FWCMD_CXINIT_ANT_POS(cmd, ant->single_pos);
RTW89_SET_FWCMD_CXINIT_ANT_DIVERSITY(cmd, ant->diversity);
RTW89_SET_FWCMD_CXINIT_MOD_RFE(cmd, module->rfe_type);
RTW89_SET_FWCMD_CXINIT_MOD_CV(cmd, module->cv);
RTW89_SET_FWCMD_CXINIT_MOD_BT_SOLO(cmd, module->bt_solo);
RTW89_SET_FWCMD_CXINIT_MOD_BT_POS(cmd, module->bt_pos);
RTW89_SET_FWCMD_CXINIT_MOD_SW_TYPE(cmd, module->switch_type);
RTW89_SET_FWCMD_CXINIT_WL_GCH(cmd, init_info->wl_guard_ch);
RTW89_SET_FWCMD_CXINIT_WL_ONLY(cmd, init_info->wl_only);
RTW89_SET_FWCMD_CXINIT_WL_INITOK(cmd, init_info->wl_init_ok);
RTW89_SET_FWCMD_CXINIT_DBCC_EN(cmd, init_info->dbcc_en);
RTW89_SET_FWCMD_CXINIT_CX_OTHER(cmd, init_info->cx_other);
RTW89_SET_FWCMD_CXINIT_BT_ONLY(cmd, init_info->bt_only);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, BTFC_SET,
SET_DRV_INFO, 0, 0,
H2C_LEN_CXDRVINFO_INIT);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LEN_CXDRVINFO_ROLE (4 + 12 * RTW89_PORT_NUM + H2C_LEN_CXDRVHDR)
int rtw89_fw_h2c_cxdrv_role(struct rtw89_dev *rtwdev)
{
struct rtw89_btc *btc = &rtwdev->btc;
struct rtw89_btc_wl_info *wl = &btc->cx.wl;
struct rtw89_btc_wl_role_info *role_info = &wl->role_info;
struct rtw89_btc_wl_role_info_bpos *bpos = &role_info->role_map.role;
struct rtw89_btc_wl_active_role *active = role_info->active_role;
struct sk_buff *skb;
u8 *cmd;
int i;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LEN_CXDRVINFO_ROLE);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c cxdrv_role\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_CXDRVINFO_ROLE);
cmd = skb->data;
RTW89_SET_FWCMD_CXHDR_TYPE(cmd, CXDRVINFO_ROLE);
RTW89_SET_FWCMD_CXHDR_LEN(cmd, H2C_LEN_CXDRVINFO_ROLE - H2C_LEN_CXDRVHDR);
RTW89_SET_FWCMD_CXROLE_CONNECT_CNT(cmd, role_info->connect_cnt);
RTW89_SET_FWCMD_CXROLE_LINK_MODE(cmd, role_info->link_mode);
RTW89_SET_FWCMD_CXROLE_ROLE_NONE(cmd, bpos->none);
RTW89_SET_FWCMD_CXROLE_ROLE_STA(cmd, bpos->station);
RTW89_SET_FWCMD_CXROLE_ROLE_AP(cmd, bpos->ap);
RTW89_SET_FWCMD_CXROLE_ROLE_VAP(cmd, bpos->vap);
RTW89_SET_FWCMD_CXROLE_ROLE_ADHOC(cmd, bpos->adhoc);
RTW89_SET_FWCMD_CXROLE_ROLE_ADHOC_MASTER(cmd, bpos->adhoc_master);
RTW89_SET_FWCMD_CXROLE_ROLE_MESH(cmd, bpos->mesh);
RTW89_SET_FWCMD_CXROLE_ROLE_MONITOR(cmd, bpos->moniter);
RTW89_SET_FWCMD_CXROLE_ROLE_P2P_DEV(cmd, bpos->p2p_device);
RTW89_SET_FWCMD_CXROLE_ROLE_P2P_GC(cmd, bpos->p2p_gc);
RTW89_SET_FWCMD_CXROLE_ROLE_P2P_GO(cmd, bpos->p2p_go);
RTW89_SET_FWCMD_CXROLE_ROLE_NAN(cmd, bpos->nan);
for (i = 0; i < RTW89_PORT_NUM; i++, active++) {
RTW89_SET_FWCMD_CXROLE_ACT_CONNECTED(cmd, active->connected, i);
RTW89_SET_FWCMD_CXROLE_ACT_PID(cmd, active->pid, i);
RTW89_SET_FWCMD_CXROLE_ACT_PHY(cmd, active->phy, i);
RTW89_SET_FWCMD_CXROLE_ACT_NOA(cmd, active->noa, i);
RTW89_SET_FWCMD_CXROLE_ACT_BAND(cmd, active->band, i);
RTW89_SET_FWCMD_CXROLE_ACT_CLIENT_PS(cmd, active->client_ps, i);
RTW89_SET_FWCMD_CXROLE_ACT_BW(cmd, active->bw, i);
RTW89_SET_FWCMD_CXROLE_ACT_ROLE(cmd, active->role, i);
RTW89_SET_FWCMD_CXROLE_ACT_CH(cmd, active->ch, i);
RTW89_SET_FWCMD_CXROLE_ACT_TX_LVL(cmd, active->tx_lvl, i);
RTW89_SET_FWCMD_CXROLE_ACT_RX_LVL(cmd, active->rx_lvl, i);
RTW89_SET_FWCMD_CXROLE_ACT_TX_RATE(cmd, active->tx_rate, i);
RTW89_SET_FWCMD_CXROLE_ACT_RX_RATE(cmd, active->rx_rate, i);
}
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, BTFC_SET,
SET_DRV_INFO, 0, 0,
H2C_LEN_CXDRVINFO_ROLE);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LEN_CXDRVINFO_CTRL (4 + H2C_LEN_CXDRVHDR)
int rtw89_fw_h2c_cxdrv_ctrl(struct rtw89_dev *rtwdev)
{
struct rtw89_btc *btc = &rtwdev->btc;
struct rtw89_btc_ctrl *ctrl = &btc->ctrl;
struct sk_buff *skb;
u8 *cmd;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LEN_CXDRVINFO_CTRL);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c cxdrv_ctrl\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_CXDRVINFO_CTRL);
cmd = skb->data;
RTW89_SET_FWCMD_CXHDR_TYPE(cmd, CXDRVINFO_CTRL);
RTW89_SET_FWCMD_CXHDR_LEN(cmd, H2C_LEN_CXDRVINFO_CTRL - H2C_LEN_CXDRVHDR);
RTW89_SET_FWCMD_CXCTRL_MANUAL(cmd, ctrl->manual);
RTW89_SET_FWCMD_CXCTRL_IGNORE_BT(cmd, ctrl->igno_bt);
RTW89_SET_FWCMD_CXCTRL_ALWAYS_FREERUN(cmd, ctrl->always_freerun);
RTW89_SET_FWCMD_CXCTRL_TRACE_STEP(cmd, ctrl->trace_step);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, BTFC_SET,
SET_DRV_INFO, 0, 0,
H2C_LEN_CXDRVINFO_CTRL);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LEN_CXDRVINFO_RFK (4 + H2C_LEN_CXDRVHDR)
int rtw89_fw_h2c_cxdrv_rfk(struct rtw89_dev *rtwdev)
{
struct rtw89_btc *btc = &rtwdev->btc;
struct rtw89_btc_wl_info *wl = &btc->cx.wl;
struct rtw89_btc_wl_rfk_info *rfk_info = &wl->rfk_info;
struct sk_buff *skb;
u8 *cmd;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LEN_CXDRVINFO_RFK);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c cxdrv_ctrl\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_CXDRVINFO_RFK);
cmd = skb->data;
RTW89_SET_FWCMD_CXHDR_TYPE(cmd, CXDRVINFO_RFK);
RTW89_SET_FWCMD_CXHDR_LEN(cmd, H2C_LEN_CXDRVINFO_RFK - H2C_LEN_CXDRVHDR);
RTW89_SET_FWCMD_CXRFK_STATE(cmd, rfk_info->state);
RTW89_SET_FWCMD_CXRFK_PATH_MAP(cmd, rfk_info->path_map);
RTW89_SET_FWCMD_CXRFK_PHY_MAP(cmd, rfk_info->phy_map);
RTW89_SET_FWCMD_CXRFK_BAND(cmd, rfk_info->band);
RTW89_SET_FWCMD_CXRFK_TYPE(cmd, rfk_info->type);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, BTFC_SET,
SET_DRV_INFO, 0, 0,
H2C_LEN_CXDRVINFO_RFK);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LEN_PKT_OFLD 4
int rtw89_fw_h2c_del_pkt_offload(struct rtw89_dev *rtwdev, u8 id)
{
struct sk_buff *skb;
u8 *cmd;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LEN_PKT_OFLD);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c pkt offload\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_PKT_OFLD);
cmd = skb->data;
RTW89_SET_FWCMD_PACKET_OFLD_PKT_IDX(cmd, id);
RTW89_SET_FWCMD_PACKET_OFLD_PKT_OP(cmd, RTW89_PKT_OFLD_OP_DEL);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FW_OFLD,
H2C_FUNC_PACKET_OFLD, 1, 1,
H2C_LEN_PKT_OFLD);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
int rtw89_fw_h2c_add_pkt_offload(struct rtw89_dev *rtwdev, u8 *id,
struct sk_buff *skb_ofld)
{
struct sk_buff *skb;
u8 *cmd;
u8 alloc_id;
alloc_id = rtw89_core_acquire_bit_map(rtwdev->pkt_offload,
RTW89_MAX_PKT_OFLD_NUM);
if (alloc_id == RTW89_MAX_PKT_OFLD_NUM)
return -ENOSPC;
*id = alloc_id;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LEN_PKT_OFLD + skb_ofld->len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c pkt offload\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_PKT_OFLD);
cmd = skb->data;
RTW89_SET_FWCMD_PACKET_OFLD_PKT_IDX(cmd, alloc_id);
RTW89_SET_FWCMD_PACKET_OFLD_PKT_OP(cmd, RTW89_PKT_OFLD_OP_ADD);
RTW89_SET_FWCMD_PACKET_OFLD_PKT_LENGTH(cmd, skb_ofld->len);
skb_put_data(skb, skb_ofld->data, skb_ofld->len);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FW_OFLD,
H2C_FUNC_PACKET_OFLD, 1, 1,
H2C_LEN_PKT_OFLD + skb_ofld->len);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LEN_SCAN_LIST_OFFLOAD 4
int rtw89_fw_h2c_scan_list_offload(struct rtw89_dev *rtwdev, int len,
struct list_head *chan_list)
{
struct rtw89_mac_chinfo *ch_info;
struct sk_buff *skb;
int skb_len = H2C_LEN_SCAN_LIST_OFFLOAD + len * RTW89_MAC_CHINFO_SIZE;
u8 *cmd;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, skb_len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c scan list\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_SCAN_LIST_OFFLOAD);
cmd = skb->data;
RTW89_SET_FWCMD_SCANOFLD_CH_NUM(cmd, len);
/* in unit of 4 bytes */
RTW89_SET_FWCMD_SCANOFLD_CH_SIZE(cmd, RTW89_MAC_CHINFO_SIZE / 4);
list_for_each_entry(ch_info, chan_list, list) {
cmd = skb_put(skb, RTW89_MAC_CHINFO_SIZE);
RTW89_SET_FWCMD_CHINFO_PERIOD(cmd, ch_info->period);
RTW89_SET_FWCMD_CHINFO_DWELL(cmd, ch_info->dwell_time);
RTW89_SET_FWCMD_CHINFO_CENTER_CH(cmd, ch_info->central_ch);
RTW89_SET_FWCMD_CHINFO_PRI_CH(cmd, ch_info->pri_ch);
RTW89_SET_FWCMD_CHINFO_BW(cmd, ch_info->bw);
RTW89_SET_FWCMD_CHINFO_ACTION(cmd, ch_info->notify_action);
RTW89_SET_FWCMD_CHINFO_NUM_PKT(cmd, ch_info->num_pkt);
RTW89_SET_FWCMD_CHINFO_TX(cmd, ch_info->tx_pkt);
RTW89_SET_FWCMD_CHINFO_PAUSE_DATA(cmd, ch_info->pause_data);
RTW89_SET_FWCMD_CHINFO_BAND(cmd, ch_info->ch_band);
RTW89_SET_FWCMD_CHINFO_PKT_ID(cmd, ch_info->probe_id);
RTW89_SET_FWCMD_CHINFO_DFS(cmd, ch_info->dfs_ch);
RTW89_SET_FWCMD_CHINFO_TX_NULL(cmd, ch_info->tx_null);
RTW89_SET_FWCMD_CHINFO_RANDOM(cmd, ch_info->rand_seq_num);
RTW89_SET_FWCMD_CHINFO_PKT0(cmd, ch_info->pkt_id[0]);
RTW89_SET_FWCMD_CHINFO_PKT1(cmd, ch_info->pkt_id[1]);
RTW89_SET_FWCMD_CHINFO_PKT2(cmd, ch_info->pkt_id[2]);
RTW89_SET_FWCMD_CHINFO_PKT3(cmd, ch_info->pkt_id[3]);
RTW89_SET_FWCMD_CHINFO_PKT4(cmd, ch_info->pkt_id[4]);
RTW89_SET_FWCMD_CHINFO_PKT5(cmd, ch_info->pkt_id[5]);
RTW89_SET_FWCMD_CHINFO_PKT6(cmd, ch_info->pkt_id[6]);
RTW89_SET_FWCMD_CHINFO_PKT7(cmd, ch_info->pkt_id[7]);
}
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FW_OFLD,
H2C_FUNC_ADD_SCANOFLD_CH, 1, 1, skb_len);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
#define H2C_LEN_SCAN_OFFLOAD 20
int rtw89_fw_h2c_scan_offload(struct rtw89_dev *rtwdev,
struct rtw89_scan_option *option,
struct rtw89_vif *rtwvif)
{
struct rtw89_hw_scan_info *scan_info = &rtwdev->scan_info;
struct sk_buff *skb;
u8 *cmd;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_LEN_SCAN_OFFLOAD);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c scan offload\n");
return -ENOMEM;
}
skb_put(skb, H2C_LEN_SCAN_OFFLOAD);
cmd = skb->data;
RTW89_SET_FWCMD_SCANOFLD_MACID(cmd, rtwvif->mac_id);
RTW89_SET_FWCMD_SCANOFLD_PORT_ID(cmd, rtwvif->port);
RTW89_SET_FWCMD_SCANOFLD_BAND(cmd, RTW89_PHY_0);
RTW89_SET_FWCMD_SCANOFLD_OPERATION(cmd, option->enable);
RTW89_SET_FWCMD_SCANOFLD_NOTIFY_END(cmd, true);
RTW89_SET_FWCMD_SCANOFLD_TARGET_CH_MODE(cmd, option->target_ch_mode);
RTW89_SET_FWCMD_SCANOFLD_START_MODE(cmd, RTW89_SCAN_IMMEDIATE);
RTW89_SET_FWCMD_SCANOFLD_SCAN_TYPE(cmd, RTW89_SCAN_ONCE);
if (option->target_ch_mode) {
RTW89_SET_FWCMD_SCANOFLD_TARGET_CH_BW(cmd, scan_info->op_bw);
RTW89_SET_FWCMD_SCANOFLD_TARGET_PRI_CH(cmd,
scan_info->op_pri_ch);
RTW89_SET_FWCMD_SCANOFLD_TARGET_CENTRAL_CH(cmd,
scan_info->op_chan);
}
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_MAC, H2C_CL_MAC_FW_OFLD,
H2C_FUNC_SCANOFLD, 1, 1,
H2C_LEN_SCAN_OFFLOAD);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
int rtw89_fw_h2c_rf_reg(struct rtw89_dev *rtwdev,
struct rtw89_fw_h2c_rf_reg_info *info,
u16 len, u8 page)
{
struct sk_buff *skb;
u8 class = info->rf_path == RF_PATH_A ?
H2C_CL_OUTSRC_RF_REG_A : H2C_CL_OUTSRC_RF_REG_B;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c rf reg\n");
return -ENOMEM;
}
skb_put_data(skb, info->rtw89_phy_config_rf_h2c[page], len);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, class, page, 0, 0,
len);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
int rtw89_fw_h2c_rf_ntfy_mcc(struct rtw89_dev *rtwdev)
{
struct rtw89_mcc_info *mcc_info = &rtwdev->mcc;
struct rtw89_fw_h2c_rf_get_mccch *mccch;
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, sizeof(*mccch));
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c cxdrv_ctrl\n");
return -ENOMEM;
}
skb_put(skb, sizeof(*mccch));
mccch = (struct rtw89_fw_h2c_rf_get_mccch *)skb->data;
mccch->ch_0 = cpu_to_le32(mcc_info->ch[0]);
mccch->ch_1 = cpu_to_le32(mcc_info->ch[1]);
mccch->band_0 = cpu_to_le32(mcc_info->band[0]);
mccch->band_1 = cpu_to_le32(mcc_info->band[1]);
mccch->current_channel = cpu_to_le32(rtwdev->hal.current_channel);
mccch->current_band_type = cpu_to_le32(rtwdev->hal.current_band_type);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, H2C_CL_OUTSRC_RF_FW_NOTIFY,
H2C_FUNC_OUTSRC_RF_GET_MCCCH, 0, 0,
sizeof(*mccch));
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
EXPORT_SYMBOL(rtw89_fw_h2c_rf_ntfy_mcc);
int rtw89_fw_h2c_raw_with_hdr(struct rtw89_dev *rtwdev,
u8 h2c_class, u8 h2c_func, u8 *buf, u16 len,
bool rack, bool dack)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for raw with hdr\n");
return -ENOMEM;
}
skb_put_data(skb, buf, len);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_OUTSRC, h2c_class, h2c_func, rack, dack,
len);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
int rtw89_fw_h2c_raw(struct rtw89_dev *rtwdev, const u8 *buf, u16 len)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_no_hdr(rtwdev, len);
if (!skb) {
rtw89_err(rtwdev, "failed to alloc skb for h2c raw\n");
return -ENOMEM;
}
skb_put_data(skb, buf, len);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}
void rtw89_fw_send_all_early_h2c(struct rtw89_dev *rtwdev)
{
struct rtw89_early_h2c *early_h2c;
lockdep_assert_held(&rtwdev->mutex);
list_for_each_entry(early_h2c, &rtwdev->early_h2c_list, list) {
rtw89_fw_h2c_raw(rtwdev, early_h2c->h2c, early_h2c->h2c_len);
}
}
void rtw89_fw_free_all_early_h2c(struct rtw89_dev *rtwdev)
{
struct rtw89_early_h2c *early_h2c, *tmp;
mutex_lock(&rtwdev->mutex);
list_for_each_entry_safe(early_h2c, tmp, &rtwdev->early_h2c_list, list) {
list_del(&early_h2c->list);
kfree(early_h2c->h2c);
kfree(early_h2c);
}
mutex_unlock(&rtwdev->mutex);
}
void rtw89_fw_c2h_irqsafe(struct rtw89_dev *rtwdev, struct sk_buff *c2h)
{
skb_queue_tail(&rtwdev->c2h_queue, c2h);
ieee80211_queue_work(rtwdev->hw, &rtwdev->c2h_work);
}
static void rtw89_fw_c2h_cmd_handle(struct rtw89_dev *rtwdev,
struct sk_buff *skb)
{
u8 category = RTW89_GET_C2H_CATEGORY(skb->data);
u8 class = RTW89_GET_C2H_CLASS(skb->data);
u8 func = RTW89_GET_C2H_FUNC(skb->data);
u16 len = RTW89_GET_C2H_LEN(skb->data);
bool dump = true;
if (!test_bit(RTW89_FLAG_RUNNING, rtwdev->flags))
return;
switch (category) {
case RTW89_C2H_CAT_TEST:
break;
case RTW89_C2H_CAT_MAC:
rtw89_mac_c2h_handle(rtwdev, skb, len, class, func);
if (class == RTW89_MAC_C2H_CLASS_INFO &&
func == RTW89_MAC_C2H_FUNC_C2H_LOG)
dump = false;
break;
case RTW89_C2H_CAT_OUTSRC:
if (class >= RTW89_PHY_C2H_CLASS_BTC_MIN &&
class <= RTW89_PHY_C2H_CLASS_BTC_MAX)
rtw89_btc_c2h_handle(rtwdev, skb, len, class, func);
else
rtw89_phy_c2h_handle(rtwdev, skb, len, class, func);
break;
}
if (dump)
rtw89_hex_dump(rtwdev, RTW89_DBG_FW, "C2H: ", skb->data, skb->len);
}
void rtw89_fw_c2h_work(struct work_struct *work)
{
struct rtw89_dev *rtwdev = container_of(work, struct rtw89_dev,
c2h_work);
struct sk_buff *skb, *tmp;
skb_queue_walk_safe(&rtwdev->c2h_queue, skb, tmp) {
skb_unlink(skb, &rtwdev->c2h_queue);
mutex_lock(&rtwdev->mutex);
rtw89_fw_c2h_cmd_handle(rtwdev, skb);
mutex_unlock(&rtwdev->mutex);
dev_kfree_skb_any(skb);
}
}
static int rtw89_fw_write_h2c_reg(struct rtw89_dev *rtwdev,
struct rtw89_mac_h2c_info *info)
{
const struct rtw89_chip_info *chip = rtwdev->chip;
const u32 *h2c_reg = chip->h2c_regs;
u8 i, val, len;
int ret;
ret = read_poll_timeout(rtw89_read8, val, val == 0, 1000, 5000, false,
rtwdev, chip->h2c_ctrl_reg);
if (ret) {
rtw89_warn(rtwdev, "FW does not process h2c registers\n");
return ret;
}
len = DIV_ROUND_UP(info->content_len + RTW89_H2CREG_HDR_LEN,
sizeof(info->h2creg[0]));
RTW89_SET_H2CREG_HDR_FUNC(&info->h2creg[0], info->id);
RTW89_SET_H2CREG_HDR_LEN(&info->h2creg[0], len);
for (i = 0; i < RTW89_H2CREG_MAX; i++)
rtw89_write32(rtwdev, h2c_reg[i], info->h2creg[i]);
rtw89_write8(rtwdev, chip->h2c_ctrl_reg, B_AX_H2CREG_TRIGGER);
return 0;
}
static int rtw89_fw_read_c2h_reg(struct rtw89_dev *rtwdev,
struct rtw89_mac_c2h_info *info)
{
const struct rtw89_chip_info *chip = rtwdev->chip;
const u32 *c2h_reg = chip->c2h_regs;
u32 ret;
u8 i, val;
info->id = RTW89_FWCMD_C2HREG_FUNC_NULL;
ret = read_poll_timeout_atomic(rtw89_read8, val, val, 1,
RTW89_C2H_TIMEOUT, false, rtwdev,
chip->c2h_ctrl_reg);
if (ret) {
rtw89_warn(rtwdev, "c2h reg timeout\n");
return ret;
}
for (i = 0; i < RTW89_C2HREG_MAX; i++)
info->c2hreg[i] = rtw89_read32(rtwdev, c2h_reg[i]);
rtw89_write8(rtwdev, chip->c2h_ctrl_reg, 0);
info->id = RTW89_GET_C2H_HDR_FUNC(*info->c2hreg);
info->content_len = (RTW89_GET_C2H_HDR_LEN(*info->c2hreg) << 2) -
RTW89_C2HREG_HDR_LEN;
return 0;
}
int rtw89_fw_msg_reg(struct rtw89_dev *rtwdev,
struct rtw89_mac_h2c_info *h2c_info,
struct rtw89_mac_c2h_info *c2h_info)
{
u32 ret;
if (h2c_info && h2c_info->id != RTW89_FWCMD_H2CREG_FUNC_GET_FEATURE)
lockdep_assert_held(&rtwdev->mutex);
if (!h2c_info && !c2h_info)
return -EINVAL;
if (!h2c_info)
goto recv_c2h;
ret = rtw89_fw_write_h2c_reg(rtwdev, h2c_info);
if (ret)
return ret;
recv_c2h:
if (!c2h_info)
return 0;
ret = rtw89_fw_read_c2h_reg(rtwdev, c2h_info);
if (ret)
return ret;
return 0;
}
void rtw89_fw_st_dbg_dump(struct rtw89_dev *rtwdev)
{
if (!test_bit(RTW89_FLAG_POWERON, rtwdev->flags)) {
rtw89_err(rtwdev, "[ERR]pwr is off\n");
return;
}
rtw89_info(rtwdev, "FW status = 0x%x\n", rtw89_read32(rtwdev, R_AX_UDM0));
rtw89_info(rtwdev, "FW BADADDR = 0x%x\n", rtw89_read32(rtwdev, R_AX_UDM1));
rtw89_info(rtwdev, "FW EPC/RA = 0x%x\n", rtw89_read32(rtwdev, R_AX_UDM2));
rtw89_info(rtwdev, "FW MISC = 0x%x\n", rtw89_read32(rtwdev, R_AX_UDM3));
rtw89_info(rtwdev, "R_AX_HALT_C2H = 0x%x\n",
rtw89_read32(rtwdev, R_AX_HALT_C2H));
rtw89_info(rtwdev, "R_AX_SER_DBG_INFO = 0x%x\n",
rtw89_read32(rtwdev, R_AX_SER_DBG_INFO));
rtw89_fw_prog_cnt_dump(rtwdev);
}
static void rtw89_release_pkt_list(struct rtw89_dev *rtwdev)
{
struct list_head *pkt_list = rtwdev->scan_info.pkt_list;
struct rtw89_pktofld_info *info, *tmp;
u8 idx;
for (idx = NL80211_BAND_2GHZ; idx < NUM_NL80211_BANDS; idx++) {
if (!(rtwdev->chip->support_bands & BIT(idx)))
continue;
list_for_each_entry_safe(info, tmp, &pkt_list[idx], list) {
rtw89_fw_h2c_del_pkt_offload(rtwdev, info->id);
rtw89_core_release_bit_map(rtwdev->pkt_offload,
info->id);
list_del(&info->list);
kfree(info);
}
}
}
static int rtw89_append_probe_req_ie(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif,
struct sk_buff *skb)
{
struct rtw89_hw_scan_info *scan_info = &rtwdev->scan_info;
struct ieee80211_scan_ies *ies = rtwvif->scan_ies;
struct rtw89_pktofld_info *info;
struct sk_buff *new;
int ret = 0;
u8 band;
for (band = NL80211_BAND_2GHZ; band < NUM_NL80211_BANDS; band++) {
if (!(rtwdev->chip->support_bands & BIT(band)))
continue;
new = skb_copy(skb, GFP_KERNEL);
if (!new) {
ret = -ENOMEM;
goto out;
}
skb_put_data(new, ies->ies[band], ies->len[band]);
skb_put_data(new, ies->common_ies, ies->common_ie_len);
info = kzalloc(sizeof(*info), GFP_KERNEL);
if (!info) {
ret = -ENOMEM;
kfree_skb(new);
goto out;
}
list_add_tail(&info->list, &scan_info->pkt_list[band]);
ret = rtw89_fw_h2c_add_pkt_offload(rtwdev, &info->id, new);
if (ret)
goto out;
kfree_skb(new);
}
out:
return ret;
}
static int rtw89_hw_scan_update_probe_req(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif)
{
struct cfg80211_scan_request *req = rtwvif->scan_req;
struct sk_buff *skb;
u8 num = req->n_ssids, i;
int ret;
for (i = 0; i < num; i++) {
skb = ieee80211_probereq_get(rtwdev->hw, rtwvif->mac_addr,
req->ssids[i].ssid,
req->ssids[i].ssid_len,
req->ie_len);
if (!skb)
return -ENOMEM;
ret = rtw89_append_probe_req_ie(rtwdev, rtwvif, skb);
kfree_skb(skb);
if (ret)
return ret;
}
return 0;
}
static void rtw89_hw_scan_add_chan(struct rtw89_dev *rtwdev, int chan_type,
int ssid_num,
struct rtw89_mac_chinfo *ch_info)
{
struct rtw89_hw_scan_info *scan_info = &rtwdev->scan_info;
struct rtw89_pktofld_info *info;
u8 band, probe_count = 0;
ch_info->notify_action = RTW89_SCANOFLD_DEBUG_MASK;
ch_info->dfs_ch = chan_type == RTW89_CHAN_DFS;
ch_info->bw = RTW89_SCAN_WIDTH;
ch_info->tx_pkt = true;
ch_info->cfg_tx_pwr = false;
ch_info->tx_pwr_idx = 0;
ch_info->tx_null = false;
ch_info->pause_data = false;
if (ssid_num) {
ch_info->num_pkt = ssid_num;
band = ch_info->ch_band;
list_for_each_entry(info, &scan_info->pkt_list[band], list) {
ch_info->probe_id = info->id;
ch_info->pkt_id[probe_count] = info->id;
if (++probe_count >= ssid_num)
break;
}
if (probe_count != ssid_num)
rtw89_err(rtwdev, "SSID num differs from list len\n");
}
switch (chan_type) {
case RTW89_CHAN_OPERATE:
ch_info->probe_id = RTW89_SCANOFLD_PKT_NONE;
ch_info->central_ch = scan_info->op_chan;
ch_info->pri_ch = scan_info->op_pri_ch;
ch_info->ch_band = scan_info->op_band;
ch_info->bw = scan_info->op_bw;
ch_info->tx_null = true;
ch_info->num_pkt = 0;
break;
case RTW89_CHAN_DFS:
ch_info->period = max_t(u8, ch_info->period,
RTW89_DFS_CHAN_TIME);
ch_info->dwell_time = RTW89_DWELL_TIME;
break;
case RTW89_CHAN_ACTIVE:
break;
default:
rtw89_err(rtwdev, "Channel type out of bound\n");
}
}
static int rtw89_hw_scan_add_chan_list(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif)
{
struct cfg80211_scan_request *req = rtwvif->scan_req;
struct rtw89_mac_chinfo *ch_info, *tmp;
struct ieee80211_channel *channel;
struct list_head chan_list;
bool random_seq = req->flags & NL80211_SCAN_FLAG_RANDOM_SN;
int list_len = req->n_channels, off_chan_time = 0;
enum rtw89_chan_type type;
int ret = 0, i;
INIT_LIST_HEAD(&chan_list);
for (i = 0; i < req->n_channels; i++) {
channel = req->channels[i];
ch_info = kzalloc(sizeof(*ch_info), GFP_KERNEL);
if (!ch_info) {
ret = -ENOMEM;
goto out;
}
ch_info->period = req->duration_mandatory ?
req->duration : RTW89_CHANNEL_TIME;
ch_info->ch_band = channel->band;
ch_info->central_ch = channel->hw_value;
ch_info->pri_ch = channel->hw_value;
ch_info->rand_seq_num = random_seq;
if (channel->flags &
(IEEE80211_CHAN_RADAR | IEEE80211_CHAN_NO_IR))
type = RTW89_CHAN_DFS;
else
type = RTW89_CHAN_ACTIVE;
rtw89_hw_scan_add_chan(rtwdev, type, req->n_ssids, ch_info);
if (rtwvif->net_type != RTW89_NET_TYPE_NO_LINK &&
off_chan_time + ch_info->period > RTW89_OFF_CHAN_TIME) {
tmp = kzalloc(sizeof(*tmp), GFP_KERNEL);
if (!tmp) {
ret = -ENOMEM;
kfree(ch_info);
goto out;
}
type = RTW89_CHAN_OPERATE;
tmp->period = req->duration_mandatory ?
req->duration : RTW89_CHANNEL_TIME;
rtw89_hw_scan_add_chan(rtwdev, type, 0, tmp);
list_add_tail(&tmp->list, &chan_list);
off_chan_time = 0;
list_len++;
}
list_add_tail(&ch_info->list, &chan_list);
off_chan_time += ch_info->period;
}
rtw89_fw_h2c_scan_list_offload(rtwdev, list_len, &chan_list);
out:
list_for_each_entry_safe(ch_info, tmp, &chan_list, list) {
list_del(&ch_info->list);
kfree(ch_info);
}
return ret;
}
static int rtw89_hw_scan_prehandle(struct rtw89_dev *rtwdev,
struct rtw89_vif *rtwvif)
{
int ret;
ret = rtw89_hw_scan_update_probe_req(rtwdev, rtwvif);
if (ret) {
rtw89_err(rtwdev, "Update probe request failed\n");
goto out;
}
ret = rtw89_hw_scan_add_chan_list(rtwdev, rtwvif);
out:
return ret;
}
void rtw89_hw_scan_start(struct rtw89_dev *rtwdev, struct ieee80211_vif *vif,
struct ieee80211_scan_request *scan_req)
{
struct rtw89_vif *rtwvif = (struct rtw89_vif *)vif->drv_priv;
struct cfg80211_scan_request *req = &scan_req->req;
u8 mac_addr[ETH_ALEN];
rtwdev->scan_info.scanning_vif = vif;
rtwvif->scan_ies = &scan_req->ies;
rtwvif->scan_req = req;
ieee80211_stop_queues(rtwdev->hw);
if (req->flags & NL80211_SCAN_FLAG_RANDOM_ADDR)
get_random_mask_addr(mac_addr, req->mac_addr,
req->mac_addr_mask);
else
ether_addr_copy(mac_addr, vif->addr);
rtw89_core_scan_start(rtwdev, rtwvif, mac_addr, true);
rtwdev->hal.rx_fltr &= ~B_AX_A_BCN_CHK_EN;
rtwdev->hal.rx_fltr &= ~B_AX_A_BC;
rtwdev->hal.rx_fltr &= ~B_AX_A_A1_MATCH;
rtw89_write32_mask(rtwdev,
rtw89_mac_reg_by_idx(R_AX_RX_FLTR_OPT, RTW89_MAC_0),
B_AX_RX_FLTR_CFG_MASK,
rtwdev->hal.rx_fltr);
}
void rtw89_hw_scan_complete(struct rtw89_dev *rtwdev, struct ieee80211_vif *vif,
bool aborted)
{
struct cfg80211_scan_info info = {
.aborted = aborted,
};
struct rtw89_vif *rtwvif;
if (!vif)
return;
rtwdev->hal.rx_fltr |= B_AX_A_BCN_CHK_EN;
rtwdev->hal.rx_fltr |= B_AX_A_BC;
rtwdev->hal.rx_fltr |= B_AX_A_A1_MATCH;
rtw89_write32_mask(rtwdev,
rtw89_mac_reg_by_idx(R_AX_RX_FLTR_OPT, RTW89_MAC_0),
B_AX_RX_FLTR_CFG_MASK,
rtwdev->hal.rx_fltr);
rtw89_core_scan_complete(rtwdev, vif, true);
ieee80211_scan_completed(rtwdev->hw, &info);
ieee80211_wake_queues(rtwdev->hw);
rtw89_release_pkt_list(rtwdev);
rtwvif = (struct rtw89_vif *)vif->drv_priv;
rtwvif->scan_req = NULL;
rtwvif->scan_ies = NULL;
rtwdev->scan_info.scanning_vif = NULL;
}
void rtw89_hw_scan_abort(struct rtw89_dev *rtwdev, struct ieee80211_vif *vif)
{
rtw89_hw_scan_offload(rtwdev, vif, false);
rtw89_hw_scan_complete(rtwdev, vif, true);
}
int rtw89_hw_scan_offload(struct rtw89_dev *rtwdev, struct ieee80211_vif *vif,
bool enable)
{
struct rtw89_scan_option opt = {0};
struct rtw89_vif *rtwvif;
int ret = 0;
rtwvif = vif ? (struct rtw89_vif *)vif->drv_priv : NULL;
if (!rtwvif)
return -EINVAL;
opt.enable = enable;
opt.target_ch_mode = rtwvif->net_type != RTW89_NET_TYPE_NO_LINK;
if (enable) {
ret = rtw89_hw_scan_prehandle(rtwdev, rtwvif);
if (ret)
goto out;
}
rtw89_fw_h2c_scan_offload(rtwdev, &opt, rtwvif);
out:
return ret;
}
void rtw89_store_op_chan(struct rtw89_dev *rtwdev)
{
struct rtw89_hw_scan_info *scan_info = &rtwdev->scan_info;
struct rtw89_hal *hal = &rtwdev->hal;
scan_info->op_pri_ch = hal->current_primary_channel;
scan_info->op_chan = hal->current_channel;
scan_info->op_bw = hal->current_band_width;
scan_info->op_band = hal->current_band_type;
}
#define H2C_FW_CPU_EXCEPTION_LEN 4
#define H2C_FW_CPU_EXCEPTION_TYPE_DEF 0x5566
int rtw89_fw_h2c_trigger_cpu_exception(struct rtw89_dev *rtwdev)
{
struct sk_buff *skb;
skb = rtw89_fw_h2c_alloc_skb_with_hdr(rtwdev, H2C_FW_CPU_EXCEPTION_LEN);
if (!skb) {
rtw89_err(rtwdev,
"failed to alloc skb for fw cpu exception\n");
return -ENOMEM;
}
skb_put(skb, H2C_FW_CPU_EXCEPTION_LEN);
RTW89_SET_FWCMD_CPU_EXCEPTION_TYPE(skb->data,
H2C_FW_CPU_EXCEPTION_TYPE_DEF);
rtw89_h2c_pkt_set_hdr(rtwdev, skb, FWCMD_TYPE_H2C,
H2C_CAT_TEST,
H2C_CL_FW_STATUS_TEST,
H2C_FUNC_CPU_EXCEPTION, 0, 0,
H2C_FW_CPU_EXCEPTION_LEN);
if (rtw89_h2c_tx(rtwdev, skb, false)) {
rtw89_err(rtwdev, "failed to send h2c\n");
goto fail;
}
return 0;
fail:
dev_kfree_skb_any(skb);
return -EBUSY;
}