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gerrit-public.fairphone.software / platform / vendor / qcom-opensource / wlan / qcacld-3.0 / 7090c5fd8d2bc46a463549bf26505e67a32d1d0e / . / core / hdd / src / wlan_hdd_cfg80211.c
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/*
* Copyright (c) 2012-2015 The Linux Foundation. All rights reserved.
*
* Previously licensed under the ISC license by Qualcomm Atheros, Inc.
*
*
* Permission to use, copy, modify, and/or distribute this software for
* any purpose with or without fee is hereby granted, provided that the
* above copyright notice and this permission notice appear in all
* copies.
*
* THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL
* WARRANTIES WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED
* WARRANTIES OF MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE
* AUTHOR BE LIABLE FOR ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL
* DAMAGES OR ANY DAMAGES WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR
* PROFITS, WHETHER IN AN ACTION OF CONTRACT, NEGLIGENCE OR OTHER
* TORTIOUS ACTION, ARISING OUT OF OR IN CONNECTION WITH THE USE OR
* PERFORMANCE OF THIS SOFTWARE.
*/
/*
* This file was originally distributed by Qualcomm Atheros, Inc.
* under proprietary terms before Copyright ownership was assigned
* to the Linux Foundation.
*/
/**
* DOC: wlan_hdd_cfg80211.c
*
* WLAN Host Device Driver cfg80211 APIs implementation
*
*/
#include <linux/version.h>
#include <linux/module.h>
#include <linux/kernel.h>
#include <linux/init.h>
#include <linux/etherdevice.h>
#include <linux/wireless.h>
#include <wlan_hdd_includes.h>
#include <net/arp.h>
#include <net/cfg80211.h>
#include <cdf_trace.h>
#ifdef CONFIG_CNSS
#include <net/cnss.h>
#endif
#include <wlan_hdd_wowl.h>
#include <ani_global.h>
#include "sir_params.h"
#include "dot11f.h"
#include "wlan_hdd_assoc.h"
#include "wlan_hdd_wext.h"
#include "sme_api.h"
#include "wlan_hdd_p2p.h"
#include "wlan_hdd_cfg80211.h"
#include "wlan_hdd_hostapd.h"
#include "wlan_hdd_softap_tx_rx.h"
#include "wlan_hdd_main.h"
#include "wlan_hdd_power.h"
#include "wlan_hdd_trace.h"
#include "cdf_types.h"
#include "cdf_trace.h"
#include "cds_utils.h"
#include "cds_sched.h"
#include "wlan_hdd_scan.h"
#include <qc_sap_ioctl.h>
#include "wlan_hdd_tdls.h"
#include "wlan_hdd_wmm.h"
#include "wma_types.h"
#include "wlan_hdd_misc.h"
#include "wlan_hdd_nan.h"
#include <wlan_hdd_ipa.h>
#include "wlan_logging_sock_svc.h"
#ifdef FEATURE_WLAN_EXTSCAN
#include "wlan_hdd_ext_scan.h"
#endif
#ifdef WLAN_FEATURE_LINK_LAYER_STATS
#include "wlan_hdd_stats.h"
#endif
#include "cds_concurrency.h"
#include "qwlan_version.h"
#include "wlan_hdd_memdump.h"
#include "wlan_hdd_ocb.h"
#define g_mode_rates_size (12)
#define a_mode_rates_size (8)
#define FREQ_BASE_80211G (2407)
#define FREQ_BAND_DIFF_80211G (5)
#define GET_IE_LEN_IN_BSS_DESC(lenInBss) (lenInBss + sizeof(lenInBss) - \
((uintptr_t)OFFSET_OF(tSirBssDescription, ieFields)))
/*
* Android CTS verifier needs atleast this much wait time (in msec)
*/
#define MAX_REMAIN_ON_CHANNEL_DURATION (5000)
/*
* Refer @tCfgProtection structure for definition of the bit map.
* below value is obtained by setting the following bit-fields.
* enable obss, fromllb, overlapOBSS and overlapFromllb protection.
*/
#define IBSS_CFG_PROTECTION_ENABLE_MASK 0x8282
#define HDD2GHZCHAN(freq, chan, flag) { \
.band = IEEE80211_BAND_2GHZ, \
.center_freq = (freq), \
.hw_value = (chan), \
.flags = (flag), \
.max_antenna_gain = 0, \
.max_power = 30, \
}
#define HDD5GHZCHAN(freq, chan, flag) { \
.band = IEEE80211_BAND_5GHZ, \
.center_freq = (freq), \
.hw_value = (chan), \
.flags = (flag), \
.max_antenna_gain = 0, \
.max_power = 30, \
}
#define HDD_G_MODE_RATETAB(rate, rate_id, flag) \
{ \
.bitrate = rate, \
.hw_value = rate_id, \
.flags = flag, \
}
#ifdef WLAN_FEATURE_VOWIFI_11R
#define WLAN_AKM_SUITE_FT_8021X 0x000FAC03
#define WLAN_AKM_SUITE_FT_PSK 0x000FAC04
#endif
#define HDD_CHANNEL_14 14
#define CONNECTION_UPDATE_TIMEOUT 500
static const u32 hdd_cipher_suites[] = {
WLAN_CIPHER_SUITE_WEP40,
WLAN_CIPHER_SUITE_WEP104,
WLAN_CIPHER_SUITE_TKIP,
#ifdef FEATURE_WLAN_ESE
#define WLAN_CIPHER_SUITE_BTK 0x004096fe /* use for BTK */
#define WLAN_CIPHER_SUITE_KRK 0x004096ff /* use for KRK */
WLAN_CIPHER_SUITE_BTK,
WLAN_CIPHER_SUITE_KRK,
WLAN_CIPHER_SUITE_CCMP,
#else
WLAN_CIPHER_SUITE_CCMP,
#endif
#ifdef FEATURE_WLAN_WAPI
WLAN_CIPHER_SUITE_SMS4,
#endif
#ifdef WLAN_FEATURE_11W
WLAN_CIPHER_SUITE_AES_CMAC,
#endif
};
static struct ieee80211_channel hdd_channels_2_4_ghz[] = {
HDD2GHZCHAN(2412, 1, 0),
HDD2GHZCHAN(2417, 2, 0),
HDD2GHZCHAN(2422, 3, 0),
HDD2GHZCHAN(2427, 4, 0),
HDD2GHZCHAN(2432, 5, 0),
HDD2GHZCHAN(2437, 6, 0),
HDD2GHZCHAN(2442, 7, 0),
HDD2GHZCHAN(2447, 8, 0),
HDD2GHZCHAN(2452, 9, 0),
HDD2GHZCHAN(2457, 10, 0),
HDD2GHZCHAN(2462, 11, 0),
HDD2GHZCHAN(2467, 12, 0),
HDD2GHZCHAN(2472, 13, 0),
HDD2GHZCHAN(2484, 14, 0),
};
static struct ieee80211_channel hdd_social_channels_2_4_ghz[] = {
HDD2GHZCHAN(2412, 1, 0),
HDD2GHZCHAN(2437, 6, 0),
HDD2GHZCHAN(2462, 11, 0),
};
static struct ieee80211_channel hdd_channels_5_ghz[] = {
HDD5GHZCHAN(4920, 240, 0),
HDD5GHZCHAN(4940, 244, 0),
HDD5GHZCHAN(4960, 248, 0),
HDD5GHZCHAN(4980, 252, 0),
HDD5GHZCHAN(5040, 208, 0),
HDD5GHZCHAN(5060, 212, 0),
HDD5GHZCHAN(5080, 216, 0),
HDD5GHZCHAN(5180, 36, 0),
HDD5GHZCHAN(5200, 40, 0),
HDD5GHZCHAN(5220, 44, 0),
HDD5GHZCHAN(5240, 48, 0),
HDD5GHZCHAN(5260, 52, 0),
HDD5GHZCHAN(5280, 56, 0),
HDD5GHZCHAN(5300, 60, 0),
HDD5GHZCHAN(5320, 64, 0),
HDD5GHZCHAN(5500, 100, 0),
HDD5GHZCHAN(5520, 104, 0),
HDD5GHZCHAN(5540, 108, 0),
HDD5GHZCHAN(5560, 112, 0),
HDD5GHZCHAN(5580, 116, 0),
HDD5GHZCHAN(5600, 120, 0),
HDD5GHZCHAN(5620, 124, 0),
HDD5GHZCHAN(5640, 128, 0),
HDD5GHZCHAN(5660, 132, 0),
HDD5GHZCHAN(5680, 136, 0),
HDD5GHZCHAN(5700, 140, 0),
HDD5GHZCHAN(5720, 144, 0),
HDD5GHZCHAN(5745, 149, 0),
HDD5GHZCHAN(5765, 153, 0),
HDD5GHZCHAN(5785, 157, 0),
HDD5GHZCHAN(5805, 161, 0),
HDD5GHZCHAN(5825, 165, 0),
#ifndef FEATURE_STATICALLY_ADD_11P_CHANNELS
HDD5GHZCHAN(5852, 170, 0),
HDD5GHZCHAN(5855, 171, 0),
HDD5GHZCHAN(5860, 172, 0),
HDD5GHZCHAN(5865, 173, 0),
HDD5GHZCHAN(5870, 174, 0),
HDD5GHZCHAN(5875, 175, 0),
HDD5GHZCHAN(5880, 176, 0),
HDD5GHZCHAN(5885, 177, 0),
HDD5GHZCHAN(5890, 178, 0),
HDD5GHZCHAN(5895, 179, 0),
HDD5GHZCHAN(5900, 180, 0),
HDD5GHZCHAN(5905, 181, 0),
HDD5GHZCHAN(5910, 182, 0),
HDD5GHZCHAN(5915, 183, 0),
HDD5GHZCHAN(5920, 184, 0),
#endif
};
static struct ieee80211_rate g_mode_rates[] = {
HDD_G_MODE_RATETAB(10, 0x1, 0),
HDD_G_MODE_RATETAB(20, 0x2, 0),
HDD_G_MODE_RATETAB(55, 0x4, 0),
HDD_G_MODE_RATETAB(110, 0x8, 0),
HDD_G_MODE_RATETAB(60, 0x10, 0),
HDD_G_MODE_RATETAB(90, 0x20, 0),
HDD_G_MODE_RATETAB(120, 0x40, 0),
HDD_G_MODE_RATETAB(180, 0x80, 0),
HDD_G_MODE_RATETAB(240, 0x100, 0),
HDD_G_MODE_RATETAB(360, 0x200, 0),
HDD_G_MODE_RATETAB(480, 0x400, 0),
HDD_G_MODE_RATETAB(540, 0x800, 0),
};
static struct ieee80211_rate a_mode_rates[] = {
HDD_G_MODE_RATETAB(60, 0x10, 0),
HDD_G_MODE_RATETAB(90, 0x20, 0),
HDD_G_MODE_RATETAB(120, 0x40, 0),
HDD_G_MODE_RATETAB(180, 0x80, 0),
HDD_G_MODE_RATETAB(240, 0x100, 0),
HDD_G_MODE_RATETAB(360, 0x200, 0),
HDD_G_MODE_RATETAB(480, 0x400, 0),
HDD_G_MODE_RATETAB(540, 0x800, 0),
};
static struct ieee80211_supported_band wlan_hdd_band_2_4_ghz = {
.channels = hdd_channels_2_4_ghz,
.n_channels = ARRAY_SIZE(hdd_channels_2_4_ghz),
.band = IEEE80211_BAND_2GHZ,
.bitrates = g_mode_rates,
.n_bitrates = g_mode_rates_size,
.ht_cap.ht_supported = 1,
.ht_cap.cap = IEEE80211_HT_CAP_SGI_20
| IEEE80211_HT_CAP_GRN_FLD
| IEEE80211_HT_CAP_DSSSCCK40
| IEEE80211_HT_CAP_LSIG_TXOP_PROT
| IEEE80211_HT_CAP_SGI_40 | IEEE80211_HT_CAP_SUP_WIDTH_20_40,
.ht_cap.ampdu_factor = IEEE80211_HT_MAX_AMPDU_64K,
.ht_cap.ampdu_density = IEEE80211_HT_MPDU_DENSITY_16,
.ht_cap.mcs.rx_mask = {0xff, 0, 0, 0, 0, 0, 0, 0, 0, 0,},
.ht_cap.mcs.rx_highest = cpu_to_le16(72),
.ht_cap.mcs.tx_params = IEEE80211_HT_MCS_TX_DEFINED,
};
static struct ieee80211_supported_band wlan_hdd_band_p2p_2_4_ghz = {
.channels = hdd_social_channels_2_4_ghz,
.n_channels = ARRAY_SIZE(hdd_social_channels_2_4_ghz),
.band = IEEE80211_BAND_2GHZ,
.bitrates = g_mode_rates,
.n_bitrates = g_mode_rates_size,
.ht_cap.ht_supported = 1,
.ht_cap.cap = IEEE80211_HT_CAP_SGI_20
| IEEE80211_HT_CAP_GRN_FLD
| IEEE80211_HT_CAP_DSSSCCK40 | IEEE80211_HT_CAP_LSIG_TXOP_PROT,
.ht_cap.ampdu_factor = IEEE80211_HT_MAX_AMPDU_64K,
.ht_cap.ampdu_density = IEEE80211_HT_MPDU_DENSITY_16,
.ht_cap.mcs.rx_mask = {0xff, 0, 0, 0, 0, 0, 0, 0, 0, 0,},
.ht_cap.mcs.rx_highest = cpu_to_le16(72),
.ht_cap.mcs.tx_params = IEEE80211_HT_MCS_TX_DEFINED,
};
static struct ieee80211_supported_band wlan_hdd_band_5_ghz = {
.channels = hdd_channels_5_ghz,
.n_channels = ARRAY_SIZE(hdd_channels_5_ghz),
.band = IEEE80211_BAND_5GHZ,
.bitrates = a_mode_rates,
.n_bitrates = a_mode_rates_size,
.ht_cap.ht_supported = 1,
.ht_cap.cap = IEEE80211_HT_CAP_SGI_20
| IEEE80211_HT_CAP_GRN_FLD
| IEEE80211_HT_CAP_DSSSCCK40
| IEEE80211_HT_CAP_LSIG_TXOP_PROT
| IEEE80211_HT_CAP_SGI_40 | IEEE80211_HT_CAP_SUP_WIDTH_20_40,
.ht_cap.ampdu_factor = IEEE80211_HT_MAX_AMPDU_64K,
.ht_cap.ampdu_density = IEEE80211_HT_MPDU_DENSITY_16,
.ht_cap.mcs.rx_mask = {0xff, 0, 0, 0, 0, 0, 0, 0, 0, 0,},
.ht_cap.mcs.rx_highest = cpu_to_le16(72),
.ht_cap.mcs.tx_params = IEEE80211_HT_MCS_TX_DEFINED,
.vht_cap.vht_supported = 1,
};
/* This structure contain information what kind of frame are expected in
TX/RX direction for each kind of interface */
static const struct ieee80211_txrx_stypes
wlan_hdd_txrx_stypes[NUM_NL80211_IFTYPES] = {
[NL80211_IFTYPE_STATION] = {
.tx = 0xffff,
.rx = BIT(SIR_MAC_MGMT_ACTION) |
BIT(SIR_MAC_MGMT_PROBE_REQ),
},
[NL80211_IFTYPE_AP] = {
.tx = 0xffff,
.rx = BIT(SIR_MAC_MGMT_ASSOC_REQ) |
BIT(SIR_MAC_MGMT_REASSOC_REQ) |
BIT(SIR_MAC_MGMT_PROBE_REQ) |
BIT(SIR_MAC_MGMT_DISASSOC) |
BIT(SIR_MAC_MGMT_AUTH) |
BIT(SIR_MAC_MGMT_DEAUTH) |
BIT(SIR_MAC_MGMT_ACTION),
},
[NL80211_IFTYPE_ADHOC] = {
.tx = 0xffff,
.rx = BIT(SIR_MAC_MGMT_ASSOC_REQ) |
BIT(SIR_MAC_MGMT_REASSOC_REQ) |
BIT(SIR_MAC_MGMT_PROBE_REQ) |
BIT(SIR_MAC_MGMT_DISASSOC) |
BIT(SIR_MAC_MGMT_AUTH) |
BIT(SIR_MAC_MGMT_DEAUTH) |
BIT(SIR_MAC_MGMT_ACTION),
},
[NL80211_IFTYPE_P2P_CLIENT] = {
.tx = 0xffff,
.rx = BIT(SIR_MAC_MGMT_ACTION) |
BIT(SIR_MAC_MGMT_PROBE_REQ),
},
[NL80211_IFTYPE_P2P_GO] = {
/* This is also same as for SoftAP */
.tx = 0xffff,
.rx = BIT(SIR_MAC_MGMT_ASSOC_REQ) |
BIT(SIR_MAC_MGMT_REASSOC_REQ) |
BIT(SIR_MAC_MGMT_PROBE_REQ) |
BIT(SIR_MAC_MGMT_DISASSOC) |
BIT(SIR_MAC_MGMT_AUTH) |
BIT(SIR_MAC_MGMT_DEAUTH) |
BIT(SIR_MAC_MGMT_ACTION),
},
};
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 4, 0))
/* Interface limits and combinations registered by the driver */
/* STA ( + STA ) combination */
static const struct ieee80211_iface_limit
wlan_hdd_sta_iface_limit[] = {
{
.max = 3, /* p2p0 is a STA as well */
.types = BIT(NL80211_IFTYPE_STATION),
},
};
/* ADHOC (IBSS) limit */
static const struct ieee80211_iface_limit
wlan_hdd_adhoc_iface_limit[] = {
{
.max = 1,
.types = BIT(NL80211_IFTYPE_STATION),
},
{
.max = 1,
.types = BIT(NL80211_IFTYPE_ADHOC),
},
};
/* AP ( + AP ) combination */
static const struct ieee80211_iface_limit
wlan_hdd_ap_iface_limit[] = {
{
.max = (CDF_MAX_NO_OF_SAP_MODE + SAP_MAX_OBSS_STA_CNT),
.types = BIT(NL80211_IFTYPE_AP),
},
};
/* P2P limit */
static const struct ieee80211_iface_limit
wlan_hdd_p2p_iface_limit[] = {
{
.max = 1,
.types = BIT(NL80211_IFTYPE_P2P_CLIENT),
},
{
.max = 1,
.types = BIT(NL80211_IFTYPE_P2P_GO),
},
};
static const struct ieee80211_iface_limit
wlan_hdd_sta_ap_iface_limit[] = {
{
/* We need 1 extra STA interface for OBSS scan when SAP starts
* with HT40 in STA+SAP concurrency mode
*/
.max = (1 + SAP_MAX_OBSS_STA_CNT),
.types = BIT(NL80211_IFTYPE_STATION),
},
{
.max = CDF_MAX_NO_OF_SAP_MODE,
.types = BIT(NL80211_IFTYPE_AP),
},
};
/* STA + P2P combination */
static const struct ieee80211_iface_limit
wlan_hdd_sta_p2p_iface_limit[] = {
{
/* One reserved for dedicated P2PDEV usage */
.max = 2,
.types = BIT(NL80211_IFTYPE_STATION)
},
{
/* Support for two identical (GO + GO or CLI + CLI)
* or dissimilar (GO + CLI) P2P interfaces
*/
.max = 2,
.types = BIT(NL80211_IFTYPE_P2P_GO) | BIT(NL80211_IFTYPE_P2P_CLIENT),
},
};
/* STA + AP + P2PGO combination */
static const struct ieee80211_iface_limit
wlan_hdd_sta_ap_p2pgo_iface_limit[] = {
/* Support for AP+P2PGO interfaces */
{
.max = 2,
.types = BIT(NL80211_IFTYPE_STATION)
},
{
.max = 1,
.types = BIT(NL80211_IFTYPE_P2P_GO)
},
{
.max = 1,
.types = BIT(NL80211_IFTYPE_AP)
}
};
/* SAP + P2P combination */
static const struct ieee80211_iface_limit
wlan_hdd_sap_p2p_iface_limit[] = {
{
/* 1 dedicated for p2p0 which is a STA type */
.max = 1,
.types = BIT(NL80211_IFTYPE_STATION)
},
{
/* The p2p interface in SAP+P2P can be GO/CLI.
* The p2p connection can be formed on p2p0 or p2p-p2p0-x.
*/
.max = 1,
.types = BIT(NL80211_IFTYPE_P2P_GO) | BIT(NL80211_IFTYPE_P2P_CLIENT)
},
{
/* SAP+GO to support only one SAP interface */
.max = 1,
.types = BIT(NL80211_IFTYPE_AP)
}
};
/* P2P + P2P combination */
static const struct ieee80211_iface_limit
wlan_hdd_p2p_p2p_iface_limit[] = {
{
/* 1 dedicated for p2p0 which is a STA type */
.max = 1,
.types = BIT(NL80211_IFTYPE_STATION)
},
{
/* The p2p interface in P2P+P2P can be GO/CLI.
* For P2P+P2P, the new interfaces are formed on p2p-p2p0-x.
*/
.max = 2,
.types = BIT(NL80211_IFTYPE_P2P_GO) | BIT(NL80211_IFTYPE_P2P_CLIENT)
},
};
static struct ieee80211_iface_combination
wlan_hdd_iface_combination[] = {
/* STA */
{
.limits = wlan_hdd_sta_iface_limit,
.num_different_channels = 2,
.max_interfaces = 3,
.n_limits = ARRAY_SIZE(wlan_hdd_sta_iface_limit),
},
/* ADHOC */
{
.limits = wlan_hdd_adhoc_iface_limit,
.num_different_channels = 1,
.max_interfaces = 2,
.n_limits = ARRAY_SIZE(wlan_hdd_adhoc_iface_limit),
},
/* AP */
{
.limits = wlan_hdd_ap_iface_limit,
.num_different_channels = 2,
.max_interfaces = (SAP_MAX_OBSS_STA_CNT + CDF_MAX_NO_OF_SAP_MODE),
.n_limits = ARRAY_SIZE(wlan_hdd_ap_iface_limit),
},
/* P2P */
{
.limits = wlan_hdd_p2p_iface_limit,
.num_different_channels = 2,
.max_interfaces = 2,
.n_limits = ARRAY_SIZE(wlan_hdd_p2p_iface_limit),
},
/* STA + AP */
{
.limits = wlan_hdd_sta_ap_iface_limit,
.num_different_channels = 2,
.max_interfaces = (1 + SAP_MAX_OBSS_STA_CNT + CDF_MAX_NO_OF_SAP_MODE),
.n_limits = ARRAY_SIZE(wlan_hdd_sta_ap_iface_limit),
.beacon_int_infra_match = true,
},
/* STA + P2P */
{
.limits = wlan_hdd_sta_p2p_iface_limit,
.num_different_channels = 2,
/* one interface reserved for P2PDEV dedicated usage */
.max_interfaces = 4,
.n_limits = ARRAY_SIZE(wlan_hdd_sta_p2p_iface_limit),
.beacon_int_infra_match = true,
},
/* STA + P2P GO + SAP */
{
.limits = wlan_hdd_sta_ap_p2pgo_iface_limit,
/* we can allow 3 channels for three different persona
* but due to firmware limitation, allow max 2 concrnt channels.
*/
.num_different_channels = 2,
/* one interface reserved for P2PDEV dedicated usage */
.max_interfaces = 4,
.n_limits = ARRAY_SIZE(wlan_hdd_sta_ap_p2pgo_iface_limit),
.beacon_int_infra_match = true,
},
/* SAP + P2P */
{
.limits = wlan_hdd_sap_p2p_iface_limit,
.num_different_channels = 2,
/* 1-p2p0 + 1-SAP + 1-P2P (on p2p0 or p2p-p2p0-x) */
.max_interfaces = 3,
.n_limits = ARRAY_SIZE(wlan_hdd_sap_p2p_iface_limit),
.beacon_int_infra_match = true,
},
/* P2P + P2P */
{
.limits = wlan_hdd_p2p_p2p_iface_limit,
.num_different_channels = 2,
/* 1-p2p0 + 2-P2P (on p2p-p2p0-x) */
.max_interfaces = 3,
.n_limits = ARRAY_SIZE(wlan_hdd_p2p_p2p_iface_limit),
.beacon_int_infra_match = true,
},
};
#endif /* (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 4, 0)) */
static struct cfg80211_ops wlan_hdd_cfg80211_ops;
#ifdef WLAN_NL80211_TESTMODE
enum wlan_hdd_tm_attr {
WLAN_HDD_TM_ATTR_INVALID = 0,
WLAN_HDD_TM_ATTR_CMD = 1,
WLAN_HDD_TM_ATTR_DATA = 2,
WLAN_HDD_TM_ATTR_STREAM_ID = 3,
WLAN_HDD_TM_ATTR_TYPE = 4,
/* keep last */
WLAN_HDD_TM_ATTR_AFTER_LAST,
WLAN_HDD_TM_ATTR_MAX = WLAN_HDD_TM_ATTR_AFTER_LAST - 1,
};
enum wlan_hdd_tm_cmd {
WLAN_HDD_TM_CMD_WLAN_FTM = 0,
WLAN_HDD_TM_CMD_WLAN_HB = 1,
};
#define WLAN_HDD_TM_DATA_MAX_LEN 5000
static const struct nla_policy wlan_hdd_tm_policy[WLAN_HDD_TM_ATTR_MAX + 1] = {
[WLAN_HDD_TM_ATTR_CMD] = {.type = NLA_U32},
[WLAN_HDD_TM_ATTR_DATA] = {.type = NLA_BINARY,
.len = WLAN_HDD_TM_DATA_MAX_LEN},
};
#endif /* WLAN_NL80211_TESTMODE */
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 11, 0))
static const struct wiphy_wowlan_support wowlan_support_cfg80211_init = {
.flags = WIPHY_WOWLAN_MAGIC_PKT,
.n_patterns = WOWL_MAX_PTRNS_ALLOWED,
.pattern_min_len = 1,
.pattern_max_len = WOWL_PTRN_MAX_SIZE,
};
#endif
#ifdef FEATURE_WLAN_TDLS
/* TDLS capabilities params */
#define PARAM_MAX_TDLS_SESSION \
QCA_WLAN_VENDOR_ATTR_TDLS_GET_CAPS_MAX_CONC_SESSIONS
#define PARAM_TDLS_FEATURE_SUPPORT \
QCA_WLAN_VENDOR_ATTR_TDLS_GET_CAPS_FEATURES_SUPPORTED
/**
* __wlan_hdd_cfg80211_get_tdls_capabilities() - Provide TDLS Capabilites.
* @wiphy: WIPHY structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of the data received
*
* This function provides TDLS capabilities
*
* Return: 0 on success and errno on failure
*/
static int __wlan_hdd_cfg80211_get_tdls_capabilities(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int status;
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct sk_buff *skb;
uint32_t set = 0;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
status = wlan_hdd_validate_context(hdd_ctx);
if (status)
return status;
skb = cfg80211_vendor_cmd_alloc_reply_skb(wiphy, (2 * sizeof(u32)) +
NLMSG_HDRLEN);
if (!skb) {
hddLog(LOGE, FL("cfg80211_vendor_cmd_alloc_reply_skb failed"));
goto fail;
}
if (false == hdd_ctx->config->fEnableTDLSSupport) {
hddLog(LOGE,
FL("TDLS feature not Enabled or Not supported in FW"));
if (nla_put_u32(skb, PARAM_MAX_TDLS_SESSION, 0) ||
nla_put_u32(skb, PARAM_TDLS_FEATURE_SUPPORT, 0)) {
hddLog(LOGE, FL("nla put fail"));
goto fail;
}
} else {
set = set | WIFI_TDLS_SUPPORT;
set = set | (hdd_ctx->config->fTDLSExternalControl ?
WIFI_TDLS_EXTERNAL_CONTROL_SUPPORT : 0);
set = set | (hdd_ctx->config->fEnableTDLSOffChannel ?
WIIF_TDLS_OFFCHANNEL_SUPPORT : 0);
hddLog(LOG1, FL("TDLS Feature supported value %x"), set);
if (nla_put_u32(skb, PARAM_MAX_TDLS_SESSION,
hdd_ctx->max_num_tdls_sta) ||
nla_put_u32(skb, PARAM_TDLS_FEATURE_SUPPORT,
set)) {
hddLog(LOGE, FL("nla put fail"));
goto fail;
}
}
return cfg80211_vendor_cmd_reply(skb);
fail:
if (skb)
kfree_skb(skb);
return -EINVAL;
}
/**
* wlan_hdd_cfg80211_get_tdls_capabilities() - Provide TDLS Capabilites.
* @wiphy: WIPHY structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of the data received
*
* This function provides TDLS capabilities
*
* Return: 0 on success and errno on failure
*/
static int
wlan_hdd_cfg80211_get_tdls_capabilities(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_get_tdls_capabilities(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
#endif
#ifdef QCA_HT_2040_COEX
static void wlan_hdd_cfg80211_start_pending_acs(struct work_struct *work);
#endif
#if defined(FEATURE_WLAN_CH_AVOID) || defined(FEATURE_WLAN_FORCE_SAP_SCC)
/*
* FUNCTION: wlan_hdd_send_avoid_freq_event
* This is called when wlan driver needs to send vendor specific
* avoid frequency range event to userspace
*/
int wlan_hdd_send_avoid_freq_event(hdd_context_t *pHddCtx,
tHddAvoidFreqList *pAvoidFreqList)
{
struct sk_buff *vendor_event;
ENTER();
if (!pHddCtx) {
hddLog(LOGE, FL("HDD context is null"));
return -EINVAL;
}
if (!pAvoidFreqList) {
hddLog(LOGE, FL("pAvoidFreqList is null"));
return -EINVAL;
}
vendor_event = cfg80211_vendor_event_alloc(pHddCtx->wiphy,
NULL,
sizeof(tHddAvoidFreqList),
QCA_NL80211_VENDOR_SUBCMD_AVOID_FREQUENCY_INDEX,
GFP_KERNEL);
if (!vendor_event) {
hddLog(LOGE, FL("cfg80211_vendor_event_alloc failed"));
return -EINVAL;
}
memcpy(skb_put(vendor_event, sizeof(tHddAvoidFreqList)),
(void *)pAvoidFreqList, sizeof(tHddAvoidFreqList));
cfg80211_vendor_event(vendor_event, GFP_KERNEL);
EXIT();
return 0;
}
#endif /* FEATURE_WLAN_CH_AVOID || FEATURE_WLAN_FORCE_SAP_SCC */
/* vendor specific events */
static const struct nl80211_vendor_cmd_info wlan_hdd_cfg80211_vendor_events[] = {
#ifdef FEATURE_WLAN_CH_AVOID
[QCA_NL80211_VENDOR_SUBCMD_AVOID_FREQUENCY_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_AVOID_FREQUENCY
},
#endif /* FEATURE_WLAN_CH_AVOID */
#ifdef WLAN_FEATURE_NAN
[QCA_NL80211_VENDOR_SUBCMD_NAN_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_NAN
},
#endif
#ifdef WLAN_FEATURE_STATS_EXT
[QCA_NL80211_VENDOR_SUBCMD_STATS_EXT_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_STATS_EXT
},
#endif /* WLAN_FEATURE_STATS_EXT */
#ifdef FEATURE_WLAN_EXTSCAN
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_START_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_START
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_STOP_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_STOP
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_GET_CAPABILITIES_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_GET_CAPABILITIES
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_GET_CACHED_RESULTS_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.
subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_GET_CACHED_RESULTS
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SCAN_RESULTS_AVAILABLE_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.
subcmd
=
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SCAN_RESULTS_AVAILABLE
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_FULL_SCAN_RESULT_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_FULL_SCAN_RESULT
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SCAN_EVENT_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SCAN_EVENT
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_AP_FOUND_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_AP_FOUND
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_BSSID_HOTLIST_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_BSSID_HOTLIST
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_BSSID_HOTLIST_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.
subcmd
=
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_BSSID_HOTLIST
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SIGNIFICANT_CHANGE_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.
subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SIGNIFICANT_CHANGE
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_SIGNIFICANT_CHANGE_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.
subcmd
=
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_SIGNIFICANT_CHANGE
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_SIGNIFICANT_CHANGE_INDEX] = {
.
vendor_id
=
QCA_NL80211_VENDOR_ID,
.
subcmd
=
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_SIGNIFICANT_CHANGE
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_SSID_FOUND_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_SSID_FOUND
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_SSID_LOST_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_SSID_LOST
},
#endif /* FEATURE_WLAN_EXTSCAN */
#ifdef WLAN_FEATURE_LINK_LAYER_STATS
[QCA_NL80211_VENDOR_SUBCMD_LL_STATS_SET_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_LL_STATS_SET
},
[QCA_NL80211_VENDOR_SUBCMD_LL_STATS_GET_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_LL_STATS_GET
},
[QCA_NL80211_VENDOR_SUBCMD_LL_STATS_CLR_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_LL_STATS_CLR
},
[QCA_NL80211_VENDOR_SUBCMD_LL_RADIO_STATS_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_LL_STATS_RADIO_RESULTS
},
[QCA_NL80211_VENDOR_SUBCMD_LL_IFACE_STATS_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_LL_STATS_IFACE_RESULTS
},
[QCA_NL80211_VENDOR_SUBCMD_LL_PEER_INFO_STATS_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_LL_STATS_PEERS_RESULTS
},
#endif /* WLAN_FEATURE_LINK_LAYER_STATS */
[QCA_NL80211_VENDOR_SUBCMD_TDLS_STATE_CHANGE_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_TDLS_STATE
},
[QCA_NL80211_VENDOR_SUBCMD_DO_ACS_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_DO_ACS
},
#ifdef WLAN_FEATURE_ROAM_OFFLOAD
[QCA_NL80211_VENDOR_SUBCMD_KEY_MGMT_ROAM_AUTH_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_KEY_MGMT_ROAM_AUTH
},
#endif
[QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_STARTED_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_STARTED
},
[QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_FINISHED_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_FINISHED
},
[QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_ABORTED_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_ABORTED
},
[QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_NOP_FINISHED_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_CAC_NOP_FINISHED
},
[QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_RADAR_DETECTED_INDEX] = {
.vendor_id =
QCA_NL80211_VENDOR_ID,
.subcmd =
QCA_NL80211_VENDOR_SUBCMD_DFS_OFFLOAD_RADAR_DETECTED
},
#ifdef FEATURE_WLAN_EXTSCAN
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_PNO_NETWORK_FOUND_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_PNO_NETWORK_FOUND
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_PNO_PASSPOINT_NETWORK_FOUND_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_PNO_PASSPOINT_NETWORK_FOUND
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_SSID_HOTLIST_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_SSID_HOTLIST
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_SSID_HOTLIST_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_SSID_HOTLIST
},
[QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_AP_LOST_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_HOTLIST_AP_LOST
},
#endif /* FEATURE_WLAN_EXTSCAN */
[QCA_NL80211_VENDOR_SUBCMD_MONITOR_RSSI_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_MONITOR_RSSI
},
#ifdef WLAN_FEATURE_MEMDUMP
[QCA_NL80211_VENDOR_SUBCMD_WIFI_LOGGER_MEMORY_DUMP_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_WIFI_LOGGER_MEMORY_DUMP
},
#endif /* WLAN_FEATURE_MEMDUMP */
[QCA_NL80211_VENDOR_SUBCMD_SCAN_DONE_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_SCAN_DONE
},
[QCA_NL80211_VENDOR_SUBCMD_SCAN_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_TRIGGER_SCAN
},
/* OCB events */
[QCA_NL80211_VENDOR_SUBCMD_DCC_STATS_EVENT_INDEX] = {
.vendor_id = QCA_NL80211_VENDOR_ID,
.subcmd = QCA_NL80211_VENDOR_SUBCMD_DCC_STATS_EVENT
},
};
/**
* __is_driver_dfs_capable() - get driver DFS capability
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This function is called by userspace to indicate whether or not
* the driver supports DFS offload.
*
* Return: 0 on success, negative errno on failure
*/
static int __is_driver_dfs_capable(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
u32 dfs_capability = 0;
struct sk_buff *temp_skbuff;
int ret_val;
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
ENTER();
ret_val = wlan_hdd_validate_context(hdd_ctx);
if (ret_val)
return ret_val;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
#if (LINUX_VERSION_CODE > KERNEL_VERSION(3, 4, 0))
dfs_capability = !!(wiphy->flags & WIPHY_FLAG_DFS_OFFLOAD);
#endif
temp_skbuff = cfg80211_vendor_cmd_alloc_reply_skb(wiphy, sizeof(u32) +
NLMSG_HDRLEN);
if (temp_skbuff != NULL) {
ret_val = nla_put_u32(temp_skbuff, QCA_WLAN_VENDOR_ATTR_DFS,
dfs_capability);
if (ret_val) {
hddLog(LOGE, FL("QCA_WLAN_VENDOR_ATTR_DFS put fail"));
kfree_skb(temp_skbuff);
return ret_val;
}
return cfg80211_vendor_cmd_reply(temp_skbuff);
}
hddLog(LOGE, FL("dfs capability: buffer alloc fail"));
return -ENOMEM;
}
/**
* is_driver_dfs_capable() - get driver DFS capability
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This function is called by userspace to indicate whether or not
* the driver supports DFS offload. This is an SSR-protected
* wrapper function.
*
* Return: 0 on success, negative errno on failure
*/
static int is_driver_dfs_capable(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __is_driver_dfs_capable(wiphy, wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* wlan_hdd_sap_cfg_dfs_override() - DFS MCC restriction check
*
* @adapter: SAP adapter pointer
*
* DFS in MCC is not supported for Multi bssid SAP mode due to single physical
* radio. So in case of DFS MCC scenario override current SAP given config
* to follow concurrent SAP DFS config
*
* Return: 0 - No DFS issue, 1 - Override done and negative error codes
*/
#ifdef WLAN_FEATURE_MBSSID
int wlan_hdd_sap_cfg_dfs_override(hdd_adapter_t *adapter)
{
hdd_adapter_t *con_sap_adapter;
tsap_Config_t *sap_config, *con_sap_config;
int con_ch;
/*
* Check if AP+AP case, once primary AP chooses a DFS
* channel secondary AP should always follow primary APs channel
*/
if (!cds_concurrent_beaconing_sessions_running())
return 0;
con_sap_adapter = hdd_get_con_sap_adapter(adapter, true);
if (!con_sap_adapter)
return 0;
sap_config = &adapter->sessionCtx.ap.sapConfig;
con_sap_config = &con_sap_adapter->sessionCtx.ap.sapConfig;
con_ch = con_sap_adapter->sessionCtx.ap.operatingChannel;
if (!CDS_IS_DFS_CH(con_ch))
return 0;
hddLog(LOGE, FL("Only SCC AP-AP DFS Permitted (ch=%d, con_ch=%d)"),
sap_config->channel, con_ch);
hddLog(LOG1, FL("Overriding guest AP's channel"));
sap_config->channel = con_ch;
if (con_sap_config->acs_cfg.acs_mode == true) {
if (con_ch != con_sap_config->acs_cfg.pri_ch &&
con_ch != con_sap_config->acs_cfg.ht_sec_ch) {
hddLog(LOGE, FL("Primary AP channel config error"));
hddLog(LOGE, FL("Operating ch: %d ACS ch: %d %d"),
con_ch, con_sap_config->acs_cfg.pri_ch,
con_sap_config->acs_cfg.ht_sec_ch);
return -EINVAL;
}
/* Sec AP ACS info is overwritten with Pri AP due to DFS
* MCC restriction. So free ch list allocated in do_acs
* func for Sec AP and realloc for Pri AP ch list size
*/
if (sap_config->acs_cfg.ch_list)
cdf_mem_free(sap_config->acs_cfg.ch_list);
cdf_mem_copy(&sap_config->acs_cfg,
&con_sap_config->acs_cfg,
sizeof(struct sap_acs_cfg));
sap_config->acs_cfg.ch_list = cdf_mem_malloc(
sizeof(uint8_t) *
con_sap_config->acs_cfg.ch_list_count);
if (!sap_config->acs_cfg.ch_list) {
hddLog(LOGE, FL("ACS config alloc fail"));
return -ENOMEM;
}
cdf_mem_copy(sap_config->acs_cfg.ch_list,
con_sap_config->acs_cfg.ch_list,
con_sap_config->acs_cfg.ch_list_count);
} else {
sap_config->acs_cfg.pri_ch = con_ch;
if (sap_config->acs_cfg.ch_width > eHT_CHANNEL_WIDTH_20MHZ)
sap_config->acs_cfg.ht_sec_ch = con_sap_config->sec_ch;
}
return con_ch;
}
#else
int wlan_hdd_sap_cfg_dfs_override(hdd_adapter_t *adapter)
{
return 0;
}
#endif
/**
* wlan_hdd_set_acs_ch_range : Start ACS channel range values
* @sap_cfg: pointer to SAP config struct
*
* This function sets the default ACS start and end channel for the given band
* and also parses the given ACS channel list.
*
* Return: None
*/
static void wlan_hdd_set_acs_ch_range(tsap_Config_t *sap_cfg, bool ht_enabled,
bool vht_enabled)
{
int i;
if (sap_cfg->acs_cfg.hw_mode == QCA_ACS_MODE_IEEE80211B) {
sap_cfg->acs_cfg.hw_mode = eCSR_DOT11_MODE_11b;
sap_cfg->acs_cfg.start_ch = rf_channels[RF_CHAN_1].channelNum;
sap_cfg->acs_cfg.end_ch = rf_channels[RF_CHAN_14].channelNum;
} else if (sap_cfg->acs_cfg.hw_mode == QCA_ACS_MODE_IEEE80211G) {
sap_cfg->acs_cfg.hw_mode = eCSR_DOT11_MODE_11g;
sap_cfg->acs_cfg.start_ch = rf_channels[RF_CHAN_1].channelNum;
sap_cfg->acs_cfg.end_ch = rf_channels[RF_CHAN_13].channelNum;
} else if (sap_cfg->acs_cfg.hw_mode == QCA_ACS_MODE_IEEE80211A) {
sap_cfg->acs_cfg.hw_mode = eCSR_DOT11_MODE_11a;
sap_cfg->acs_cfg.start_ch = rf_channels[RF_CHAN_36].channelNum;
sap_cfg->acs_cfg.end_ch = rf_channels[RF_CHAN_165].channelNum;
} else if (sap_cfg->acs_cfg.hw_mode == QCA_ACS_MODE_IEEE80211ANY) {
sap_cfg->acs_cfg.hw_mode = eCSR_DOT11_MODE_abg;
sap_cfg->acs_cfg.start_ch = rf_channels[RF_CHAN_1].channelNum;
sap_cfg->acs_cfg.end_ch = rf_channels[RF_CHAN_165].channelNum;
}
if (ht_enabled)
sap_cfg->acs_cfg.hw_mode = eCSR_DOT11_MODE_11n;
if (vht_enabled)
sap_cfg->acs_cfg.hw_mode = eCSR_DOT11_MODE_11ac;
/* Parse ACS Chan list from hostapd */
if (!sap_cfg->acs_cfg.ch_list)
return;
sap_cfg->acs_cfg.start_ch = sap_cfg->acs_cfg.ch_list[0];
sap_cfg->acs_cfg.end_ch =
sap_cfg->acs_cfg.ch_list[sap_cfg->acs_cfg.ch_list_count - 1];
for (i = 0; i < sap_cfg->acs_cfg.ch_list_count; i++) {
if (sap_cfg->acs_cfg.start_ch > sap_cfg->acs_cfg.ch_list[i])
sap_cfg->acs_cfg.start_ch = sap_cfg->acs_cfg.ch_list[i];
if (sap_cfg->acs_cfg.end_ch < sap_cfg->acs_cfg.ch_list[i])
sap_cfg->acs_cfg.end_ch = sap_cfg->acs_cfg.ch_list[i];
}
}
static void wlan_hdd_cfg80211_start_pending_acs(struct work_struct *work);
/**
* wlan_hdd_cfg80211_start_acs : Start ACS Procedure for SAP
* @adapter: pointer to SAP adapter struct
*
* This function starts the ACS procedure if there are no
* constraints like MBSSID DFS restrictions.
*
* Return: Status of ACS Start procedure
*/
static int wlan_hdd_cfg80211_start_acs(hdd_adapter_t *adapter)
{
hdd_context_t *hdd_ctx = WLAN_HDD_GET_CTX(adapter);
tsap_Config_t *sap_config;
tpWLAN_SAPEventCB acs_event_callback;
int status;
sap_config = &adapter->sessionCtx.ap.sapConfig;
sap_config->channel = AUTO_CHANNEL_SELECT;
status = wlan_hdd_sap_cfg_dfs_override(adapter);
if (status < 0) {
return status;
} else {
if (status > 0) {
/*notify hostapd about channel override */
wlan_hdd_cfg80211_acs_ch_select_evt(adapter);
clear_bit(ACS_IN_PROGRESS, &hdd_ctx->g_event_flags);
return 0;
}
}
status = wlan_hdd_config_acs(hdd_ctx, adapter);
if (status) {
hddLog(LOGE, FL("ACS config failed"));
return -EINVAL;
}
acs_event_callback = hdd_hostapd_sap_event_cb;
cdf_mem_copy(sap_config->self_macaddr.bytes,
adapter->macAddressCurrent.bytes, sizeof(struct cdf_mac_addr));
hddLog(LOG1, FL("ACS Started for wlan%d"), adapter->dev->ifindex);
status = wlansap_acs_chselect(
#ifdef WLAN_FEATURE_MBSSID
WLAN_HDD_GET_SAP_CTX_PTR(adapter),
#else
hdd_ctx->pcds_context,
#endif
acs_event_callback, sap_config, adapter->dev);
if (status) {
hddLog(LOGE, FL("ACS channel select failed"));
return -EINVAL;
}
sap_config->acs_cfg.acs_mode = true;
set_bit(ACS_IN_PROGRESS, &hdd_ctx->g_event_flags);
return 0;
}
/**
* __wlan_hdd_cfg80211_do_acs : CFG80211 handler function for DO_ACS Vendor CMD
* @wiphy: Linux wiphy struct pointer
* @wdev: Linux wireless device struct pointer
* @data: ACS information from hostapd
* @data_len: ACS information length
*
* This function handle DO_ACS Vendor command from hostapd, parses ACS config
* and starts ACS procedure.
*
* Return: ACS procedure start status
*/
static int __wlan_hdd_cfg80211_do_acs(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
struct net_device *ndev = wdev->netdev;
hdd_adapter_t *adapter = WLAN_HDD_GET_PRIV_PTR(ndev);
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
tsap_Config_t *sap_config;
struct sk_buff *temp_skbuff;
int status = -EINVAL, i = 0;
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_ACS_MAX + 1];
bool ht_enabled, ht40_enabled, vht_enabled;
uint8_t ch_width;
/* ***Note*** Donot set SME config related to ACS operation here because
* ACS operation is not synchronouse and ACS for Second AP may come when
* ACS operation for first AP is going on. So only do_acs is split to
* seperate start_acs routine. Also SME-PMAC struct that is used to
* pass paremeters from HDD to SAP is global. Thus All ACS related SME
* config shall be set only from start_acs.
*/
/* nla_policy Policy template. Policy not applied as some attributes are
* optional and QCA_WLAN_VENDOR_ATTR_ACS_CH_LIST has variable length
*
* [QCA_WLAN_VENDOR_ATTR_ACS_HW_MODE] = { .type = NLA_U8 },
* [QCA_WLAN_VENDOR_ATTR_ACS_HT_ENABLED] = { .type = NLA_FLAG },
* [QCA_WLAN_VENDOR_ATTR_ACS_HT40_ENABLED] = { .type = NLA_FLAG },
* [QCA_WLAN_VENDOR_ATTR_ACS_VHT_ENABLED] = { .type = NLA_FLAG },
* [QCA_WLAN_VENDOR_ATTR_ACS_CHWIDTH] = { .type = NLA_U16 },
* [QCA_WLAN_VENDOR_ATTR_ACS_CH_LIST] = { .type = NLA_NESTED },
*/
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
if (hdd_ctx->config->force_sap_acs) {
hddLog(LOGE, FL("Hostapd ACS rejected as Driver ACS enabled"));
return -EPERM;
}
status = wlan_hdd_validate_context(hdd_ctx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
goto out;
}
sap_config = &adapter->sessionCtx.ap.sapConfig;
cdf_mem_zero(&sap_config->acs_cfg, sizeof(struct sap_acs_cfg));
status = nla_parse(tb, QCA_WLAN_VENDOR_ATTR_ACS_MAX, data, data_len,
NULL);
if (status) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("Invalid ATTR"));
goto out;
}
if (!tb[QCA_WLAN_VENDOR_ATTR_ACS_HW_MODE]) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("Attr hw_mode failed"));
goto out;
}
sap_config->acs_cfg.hw_mode = nla_get_u8(
tb[QCA_WLAN_VENDOR_ATTR_ACS_HW_MODE]);
if (tb[QCA_WLAN_VENDOR_ATTR_ACS_HT_ENABLED])
ht_enabled =
nla_get_flag(tb[QCA_WLAN_VENDOR_ATTR_ACS_HT_ENABLED]);
else
ht_enabled = 0;
if (tb[QCA_WLAN_VENDOR_ATTR_ACS_HT40_ENABLED])
ht40_enabled =
nla_get_flag(tb[QCA_WLAN_VENDOR_ATTR_ACS_HT40_ENABLED]);
else
ht40_enabled = 0;
if (tb[QCA_WLAN_VENDOR_ATTR_ACS_VHT_ENABLED])
vht_enabled =
nla_get_flag(tb[QCA_WLAN_VENDOR_ATTR_ACS_VHT_ENABLED]);
else
vht_enabled = 0;
if (tb[QCA_WLAN_VENDOR_ATTR_ACS_CHWIDTH]) {
ch_width = nla_get_u16(tb[QCA_WLAN_VENDOR_ATTR_ACS_CHWIDTH]);
} else {
if (ht_enabled && ht40_enabled)
ch_width = 40;
else
ch_width = 20;
}
if (ch_width == 80)
sap_config->acs_cfg.ch_width = CH_WIDTH_80MHZ;
else if (ch_width == 40)
sap_config->acs_cfg.ch_width = CH_WIDTH_40MHZ;
else
sap_config->acs_cfg.ch_width = CH_WIDTH_20MHZ;
/* hw_mode = a/b/g: QCA_WLAN_VENDOR_ATTR_ACS_CH_LIST and
* QCA_WLAN_VENDOR_ATTR_ACS_FREQ_LIST attrs are present, and
* QCA_WLAN_VENDOR_ATTR_ACS_CH_LIST is used for obtaining the
* channel list, QCA_WLAN_VENDOR_ATTR_ACS_FREQ_LIST is ignored
* since it contains the frequency values of the channels in
* the channel list.
* hw_mode = any: only QCA_WLAN_VENDOR_ATTR_ACS_FREQ_LIST attr
* is present
*/
if (tb[QCA_WLAN_VENDOR_ATTR_ACS_CH_LIST]) {
char *tmp = nla_data(tb[QCA_WLAN_VENDOR_ATTR_ACS_CH_LIST]);
sap_config->acs_cfg.ch_list_count = nla_len(
tb[QCA_WLAN_VENDOR_ATTR_ACS_CH_LIST]);
if (sap_config->acs_cfg.ch_list_count) {
sap_config->acs_cfg.ch_list = cdf_mem_malloc(
sizeof(uint8_t) *
sap_config->acs_cfg.ch_list_count);
if (sap_config->acs_cfg.ch_list == NULL)
goto out;
cdf_mem_copy(sap_config->acs_cfg.ch_list, tmp,
sap_config->acs_cfg.ch_list_count);
}
} else if (tb[QCA_WLAN_VENDOR_ATTR_ACS_FREQ_LIST]) {
uint32_t *freq =
nla_data(tb[QCA_WLAN_VENDOR_ATTR_ACS_FREQ_LIST]);
sap_config->acs_cfg.ch_list_count = nla_len(
tb[QCA_WLAN_VENDOR_ATTR_ACS_FREQ_LIST]) /
sizeof(uint32_t);
if (sap_config->acs_cfg.ch_list_count) {
sap_config->acs_cfg.ch_list = cdf_mem_malloc(
sap_config->acs_cfg.ch_list_count);
if (sap_config->acs_cfg.ch_list == NULL) {
hddLog(LOGE, FL("ACS config alloc fail"));
status = -ENOMEM;
goto out;
}
/* convert frequency to channel */
for (i = 0; i < sap_config->acs_cfg.ch_list_count; i++)
sap_config->acs_cfg.ch_list[i] =
ieee80211_frequency_to_channel(freq[i]);
}
}
hdd_debug("get pcl for DO_ACS vendor command");
/* consult policy manager to get PCL */
status = cds_get_pcl(hdd_ctx, CDS_SAP_MODE,
sap_config->acs_cfg.pcl_channels,
&sap_config->acs_cfg.pcl_ch_count);
if (CDF_STATUS_SUCCESS != status)
hddLog(LOGE, FL("Get PCL failed"));
wlan_hdd_set_acs_ch_range(sap_config, ht_enabled, vht_enabled);
/* ACS override for android */
if (hdd_ctx->config->sap_p2p_11ac_override && ht_enabled) {
hddLog(LOG1, FL("ACS Config override for 11AC"));
vht_enabled = 1;
sap_config->acs_cfg.hw_mode = eCSR_DOT11_MODE_11ac;
sap_config->acs_cfg.ch_width =
hdd_ctx->config->vhtChannelWidth;
/* No VHT80 in 2.4G so perform ACS accordingly */
if (sap_config->acs_cfg.end_ch <= 14 &&
sap_config->acs_cfg.ch_width == eHT_CHANNEL_WIDTH_80MHZ)
sap_config->acs_cfg.ch_width = eHT_CHANNEL_WIDTH_40MHZ;
}
hddLog(LOG1, FL("ACS Config for wlan%d: HW_MODE: %d ACS_BW: %d HT: %d VHT: %d START_CH: %d END_CH: %d"),
adapter->dev->ifindex, sap_config->acs_cfg.hw_mode,
ch_width, ht_enabled, vht_enabled,
sap_config->acs_cfg.start_ch, sap_config->acs_cfg.end_ch);
if (sap_config->acs_cfg.ch_list_count) {
hddLog(LOG1, FL("ACS channel list: len: %d"),
sap_config->acs_cfg.ch_list_count);
for (i = 0; i < sap_config->acs_cfg.ch_list_count; i++)
hddLog(LOG1, "%d ", sap_config->acs_cfg.ch_list[i]);
}
sap_config->acs_cfg.acs_mode = true;
if (test_bit(ACS_IN_PROGRESS, &hdd_ctx->g_event_flags)) {
/* ***Note*** Completion variable usage is not allowed here since
* ACS scan operation may take max 2.2 sec for 5G band.
* 9 Active channel X 40 ms active scan time +
* 16 Passive channel X 110ms passive scan time
* Since this CFG80211 call lock rtnl mutex, we cannot hold on
* for this long. So we split up the scanning part.
*/
set_bit(ACS_PENDING, &adapter->event_flags);
hddLog(LOG1, FL("ACS Pending for wlan%d"),
adapter->dev->ifindex);
status = 0;
} else {
status = wlan_hdd_cfg80211_start_acs(adapter);
}
out:
if (0 == status) {
temp_skbuff = cfg80211_vendor_cmd_alloc_reply_skb(wiphy,
NLMSG_HDRLEN);
if (temp_skbuff != NULL)
return cfg80211_vendor_cmd_reply(temp_skbuff);
}
clear_bit(ACS_IN_PROGRESS, &hdd_ctx->g_event_flags);
return status;
}
/**
* wlan_hdd_cfg80211_do_acs : CFG80211 handler function for DO_ACS Vendor CMD
* @wiphy: Linux wiphy struct pointer
* @wdev: Linux wireless device struct pointer
* @data: ACS information from hostapd
* @data_len: ACS information len
*
* This function handle DO_ACS Vendor command from hostapd, parses ACS config
* and starts ACS procedure.
*
* Return: ACS procedure start status
*/
static int wlan_hdd_cfg80211_do_acs(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_do_acs(wiphy, wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* wlan_hdd_cfg80211_start_pending_acs : Start pending ACS procedure for SAP
* @work: Linux workqueue struct pointer for ACS work
*
* This function starts the ACS procedure which was marked pending when an ACS
* procedure was in progress for a concurrent SAP interface.
*
* Return: None
*/
static void wlan_hdd_cfg80211_start_pending_acs(struct work_struct *work)
{
hdd_adapter_t *adapter = container_of(work, hdd_adapter_t,
acs_pending_work.work);
wlan_hdd_cfg80211_start_acs(adapter);
}
/**
* wlan_hdd_cfg80211_acs_ch_select_evt: Callback function for ACS evt
* @adapter: Pointer to SAP adapter struct
* @pri_channel: SAP ACS procedure selected Primary channel
* @sec_channel: SAP ACS procedure selected secondary channel
*
* This is a callback function from SAP module on ACS procedure is completed.
* This function send the ACS selected channel information to hostapd
*
* Return: None
*/
void wlan_hdd_cfg80211_acs_ch_select_evt(hdd_adapter_t *adapter)
{
hdd_context_t *hdd_ctx = WLAN_HDD_GET_CTX(adapter);
tsap_Config_t *sap_cfg = &(WLAN_HDD_GET_AP_CTX_PTR(adapter))->sapConfig;
struct sk_buff *vendor_event;
int ret_val;
hdd_adapter_t *con_sap_adapter;
uint16_t ch_width;
vendor_event = cfg80211_vendor_event_alloc(hdd_ctx->wiphy,
NULL,
4 * sizeof(u8) + 1 * sizeof(u16) + 4 + NLMSG_HDRLEN,
QCA_NL80211_VENDOR_SUBCMD_DO_ACS_INDEX,
GFP_KERNEL);
if (!vendor_event) {
hddLog(LOGE, FL("cfg80211_vendor_event_alloc failed"));
return;
}
ret_val = hdd_vendor_put_ifindex(vendor_event, adapter->dev->ifindex);
if (ret_val) {
hddLog(LOGE, FL("NL80211_ATTR_IFINDEX put fail"));
kfree_skb(vendor_event);
return;
}
ret_val = nla_put_u8(vendor_event,
QCA_WLAN_VENDOR_ATTR_ACS_PRIMARY_CHANNEL,
sap_cfg->acs_cfg.pri_ch);
if (ret_val) {
hddLog(LOGE,
FL("QCA_WLAN_VENDOR_ATTR_ACS_PRIMARY_CHANNEL put fail"));
kfree_skb(vendor_event);
return;
}
ret_val = nla_put_u8(vendor_event,
QCA_WLAN_VENDOR_ATTR_ACS_SECONDARY_CHANNEL,
sap_cfg->acs_cfg.ht_sec_ch);
if (ret_val) {
hddLog(LOGE,
FL(
"QCA_WLAN_VENDOR_ATTR_ACS_SECONDARY_CHANNEL put fail"));
kfree_skb(vendor_event);
return;
}
ret_val = nla_put_u8(vendor_event,
QCA_WLAN_VENDOR_ATTR_ACS_VHT_SEG0_CENTER_CHANNEL,
sap_cfg->acs_cfg.vht_seg0_center_ch);
if (ret_val) {
hddLog(LOGE,
FL(
"QCA_WLAN_VENDOR_ATTR_ACS_VHT_SEG0_CENTER_CHANNEL put fail"));
kfree_skb(vendor_event);
return;
}
ret_val = nla_put_u8(vendor_event,
QCA_WLAN_VENDOR_ATTR_ACS_VHT_SEG1_CENTER_CHANNEL,
sap_cfg->acs_cfg.vht_seg1_center_ch);
if (ret_val) {
hddLog(LOGE,
FL(
"QCA_WLAN_VENDOR_ATTR_ACS_VHT_SEG1_CENTER_CHANNEL put fail"));
kfree_skb(vendor_event);
return;
}
if (sap_cfg->acs_cfg.ch_width == CH_WIDTH_80MHZ)
ch_width = 80;
else if (sap_cfg->acs_cfg.ch_width == CH_WIDTH_40MHZ)
ch_width = 40;
else
ch_width = 20;
ret_val = nla_put_u16(vendor_event,
QCA_WLAN_VENDOR_ATTR_ACS_CHWIDTH,
ch_width);
if (ret_val) {
hddLog(LOGE,
FL(
"QCA_WLAN_VENDOR_ATTR_ACS_CHWIDTH put fail"));
kfree_skb(vendor_event);
return;
}
if (sap_cfg->acs_cfg.pri_ch > 14)
ret_val = nla_put_u8(vendor_event,
QCA_WLAN_VENDOR_ATTR_ACS_HW_MODE,
QCA_ACS_MODE_IEEE80211A);
else
ret_val = nla_put_u8(vendor_event,
QCA_WLAN_VENDOR_ATTR_ACS_HW_MODE,
QCA_ACS_MODE_IEEE80211G);
if (ret_val) {
hddLog(LOGE,
FL(
"QCA_WLAN_VENDOR_ATTR_ACS_HW_MODE put fail"));
kfree_skb(vendor_event);
return;
}
hddLog(LOG1,
FL("ACS result for wlan%d: PRI_CH: %d SEC_CH: %d VHT_SEG0: %d VHT_SEG1: %d ACS_BW: %d"),
adapter->dev->ifindex, sap_cfg->acs_cfg.pri_ch,
sap_cfg->acs_cfg.ht_sec_ch, sap_cfg->acs_cfg.vht_seg0_center_ch,
sap_cfg->acs_cfg.vht_seg1_center_ch, ch_width);
cfg80211_vendor_event(vendor_event, GFP_KERNEL);
/* ***Note*** As already mentioned Completion variable usage is not
* allowed here since ACS scan operation may take max 2.2 sec.
* Further in AP-AP mode pending ACS is resumed here to serailize ACS
* operation.
* TODO: Delayed operation is used since SME-PMAC strut is global. Thus
* when Primary AP ACS is complete and secondary AP ACS is started here
* immediately, Primary AP start_bss may come inbetween ACS operation
* and overwrite Sec AP ACS paramters. Thus Sec AP ACS is executed with
* delay. This path and below constraint will be removed on sessionizing
* SAP acs parameters and decoupling SAP from PMAC (WIP).
* As per design constraint user space control application must take
* care of serailizing hostapd start for each VIF in AP-AP mode to avoid
* this code path. Sec AP hostapd should be started after Primary AP
* start beaconing which can be confirmed by getchannel iwpriv command
*/
con_sap_adapter = hdd_get_con_sap_adapter(adapter, false);
if (con_sap_adapter &&
test_bit(ACS_PENDING, &con_sap_adapter->event_flags)) {
#ifdef CONFIG_CNSS
cnss_init_delayed_work(&con_sap_adapter->acs_pending_work,
wlan_hdd_cfg80211_start_pending_acs);
#else
INIT_DELAYED_WORK(&con_sap_adapter->acs_pending_work,
wlan_hdd_cfg80211_start_pending_acs);
#endif
/* Lets give 500ms for OBSS + START_BSS to complete */
schedule_delayed_work(&con_sap_adapter->acs_pending_work,
msecs_to_jiffies(500));
clear_bit(ACS_PENDING, &con_sap_adapter->event_flags);
}
return;
}
static int
__wlan_hdd_cfg80211_get_supported_features(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
struct sk_buff *skb = NULL;
uint32_t fset = 0;
int ret;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
ret = wlan_hdd_validate_context(pHddCtx);
if (0 != ret) {
hddLog(LOGE, FL("Hdd context not valid"));
return -EINVAL;
}
if (wiphy->interface_modes & BIT(NL80211_IFTYPE_STATION)) {
hddLog(LOG1, FL("Infra Station mode is supported by driver"));
fset |= WIFI_FEATURE_INFRA;
}
if (true == hdd_is_5g_supported(pHddCtx)) {
hddLog(LOG1, FL("INFRA_5G is supported by firmware"));
fset |= WIFI_FEATURE_INFRA_5G;
}
#ifdef WLAN_FEATURE_P2P
if ((wiphy->interface_modes & BIT(NL80211_IFTYPE_P2P_CLIENT)) &&
(wiphy->interface_modes & BIT(NL80211_IFTYPE_P2P_GO))) {
hddLog(LOG1, FL("WiFi-Direct is supported by driver"));
fset |= WIFI_FEATURE_P2P;
}
#endif
fset |= WIFI_FEATURE_SOFT_AP;
/* HOTSPOT is a supplicant feature, enable it by default */
fset |= WIFI_FEATURE_HOTSPOT;
#ifdef FEATURE_WLAN_EXTSCAN
if (sme_is_feature_supported_by_fw(EXTENDED_SCAN)) {
hddLog(LOG1, FL("EXTScan is supported by firmware"));
fset |= WIFI_FEATURE_EXTSCAN | WIFI_FEATURE_HAL_EPNO;
}
#endif
if (wlan_hdd_nan_is_supported()) {
hddLog(LOG1, FL("NAN is supported by firmware"));
fset |= WIFI_FEATURE_NAN;
}
if (sme_is_feature_supported_by_fw(RTT)) {
hddLog(LOG1, FL("RTT is supported by firmware"));
fset |= WIFI_FEATURE_D2D_RTT;
fset |= WIFI_FEATURE_D2AP_RTT;
}
#ifdef FEATURE_WLAN_SCAN_PNO
if (pHddCtx->config->configPNOScanSupport &&
sme_is_feature_supported_by_fw(PNO)) {
hddLog(LOG1, FL("PNO is supported by firmware"));
fset |= WIFI_FEATURE_PNO;
}
#endif
fset |= WIFI_FEATURE_ADDITIONAL_STA;
#ifdef FEATURE_WLAN_TDLS
if ((true == pHddCtx->config->fEnableTDLSSupport) &&
sme_is_feature_supported_by_fw(TDLS)) {
hddLog(LOG1, FL("TDLS is supported by firmware"));
fset |= WIFI_FEATURE_TDLS;
}
if (sme_is_feature_supported_by_fw(TDLS) &&
(true == pHddCtx->config->fEnableTDLSOffChannel) &&
sme_is_feature_supported_by_fw(TDLS_OFF_CHANNEL)) {
hddLog(LOG1, FL("TDLS off-channel is supported by firmware"));
fset |= WIFI_FEATURE_TDLS_OFFCHANNEL;
}
#endif
#ifdef WLAN_AP_STA_CONCURRENCY
fset |= WIFI_FEATURE_AP_STA;
#endif
fset |= WIFI_FEATURE_RSSI_MONITOR;
if (hdd_link_layer_stats_supported())
fset |= WIFI_FEATURE_LINK_LAYER_STATS;
skb = cfg80211_vendor_cmd_alloc_reply_skb(wiphy, sizeof(fset) +
NLMSG_HDRLEN);
if (!skb) {
hddLog(LOGE, FL("cfg80211_vendor_cmd_alloc_reply_skb failed"));
return -EINVAL;
}
hddLog(LOG1, FL("Supported Features : 0x%x"), fset);
if (nla_put_u32(skb, QCA_WLAN_VENDOR_ATTR_FEATURE_SET, fset)) {
hddLog(LOGE, FL("nla put fail"));
goto nla_put_failure;
}
return cfg80211_vendor_cmd_reply(skb);
nla_put_failure:
kfree_skb(skb);
return -EINVAL;
}
/**
* wlan_hdd_cfg80211_get_supported_features() - get supported features
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* Return: Return the Success or Failure code.
*/
static int
wlan_hdd_cfg80211_get_supported_features(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_get_supported_features(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_set_scanning_mac_oui() - set scan MAC
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* Set the MAC address that is to be used for scanning.
*
* Return: Return the Success or Failure code.
*/
static int
__wlan_hdd_cfg80211_set_scanning_mac_oui(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
tpSirScanMacOui pReqMsg = NULL;
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_SET_SCANNING_MAC_OUI_MAX + 1];
CDF_STATUS status;
int ret;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
ret = wlan_hdd_validate_context(pHddCtx);
if (0 != ret) {
hddLog(LOGE, FL("HDD context is not valid"));
return ret;
}
if (false == pHddCtx->config->enable_mac_spoofing) {
hddLog(LOGW, FL("MAC address spoofing is not enabled"));
return -ENOTSUPP;
}
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_SET_SCANNING_MAC_OUI_MAX,
data, data_len, NULL)) {
hddLog(LOGE, FL("Invalid ATTR"));
return -EINVAL;
}
pReqMsg = cdf_mem_malloc(sizeof(*pReqMsg));
if (!pReqMsg) {
hddLog(LOGE, FL("cdf_mem_malloc failed"));
return -ENOMEM;
}
if (!tb[QCA_WLAN_VENDOR_ATTR_SET_SCANNING_MAC_OUI]) {
hddLog(LOGE, FL("attr mac oui failed"));
goto fail;
}
nla_memcpy(&pReqMsg->oui[0],
tb[QCA_WLAN_VENDOR_ATTR_SET_SCANNING_MAC_OUI],
sizeof(pReqMsg->oui));
hddLog(LOG1, FL("Oui (%02x:%02x:%02x)"), pReqMsg->oui[0],
pReqMsg->oui[1], pReqMsg->oui[2]);
status = sme_set_scanning_mac_oui(pHddCtx->hHal, pReqMsg);
if (!CDF_IS_STATUS_SUCCESS(status)) {
hddLog(CDF_TRACE_LEVEL_ERROR,
FL("sme_set_scanning_mac_oui failed(err=%d)"), status);
goto fail;
}
return 0;
fail:
cdf_mem_free(pReqMsg);
return -EINVAL;
}
/**
* wlan_hdd_cfg80211_set_scanning_mac_oui() - set scan MAC
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* Set the MAC address that is to be used for scanning. This is an
* SSR-protecting wrapper function.
*
* Return: Return the Success or Failure code.
*/
static int
wlan_hdd_cfg80211_set_scanning_mac_oui(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_scanning_mac_oui(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* wlan_hdd_cfg80211_set_feature() - Set the bitmask for supported features
* @feature_flags: pointer to the byte array of features.
* @feature: Feature to be turned ON in the byte array.
*
* Return: None
*
* This is called to turn ON or SET the feature flag for the requested feature.
**/
#define NUM_BITS_IN_BYTE 8
void wlan_hdd_cfg80211_set_feature(uint8_t *feature_flags, uint8_t feature)
{
uint32_t index;
uint8_t bit_mask;
index = feature / NUM_BITS_IN_BYTE;
bit_mask = 1 << (feature % NUM_BITS_IN_BYTE);
feature_flags[index] |= bit_mask;
}
/**
* __wlan_hdd_cfg80211_get_features() - Get the Driver Supported features
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This is called when wlan driver needs to send supported feature set to
* supplicant upon a request/query from the supplicant.
*
* Return: Return the Success or Failure code.
**/
#define MAX_CONCURRENT_CHAN_ON_24G 2
#define MAX_CONCURRENT_CHAN_ON_5G 2
static int
__wlan_hdd_cfg80211_get_features(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
struct sk_buff *skb = NULL;
uint32_t dbs_capability = 0;
bool one_by_one_dbs, two_by_two_dbs;
CDF_STATUS ret = CDF_STATUS_E_FAILURE;
int ret_val;
uint8_t feature_flags[(NUM_QCA_WLAN_VENDOR_FEATURES + 7) / 8] = {0};
hdd_context_t *hdd_ctx_ptr = wiphy_priv(wiphy);
ret_val = wlan_hdd_validate_context(hdd_ctx_ptr);
if (ret_val)
return ret_val;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
if (hdd_ctx_ptr->config->isRoamOffloadEnabled) {
hddLog(LOG1, FL("Key Mgmt Offload is supported"));
wlan_hdd_cfg80211_set_feature(feature_flags,
QCA_WLAN_VENDOR_FEATURE_KEY_MGMT_OFFLOAD);
}
wlan_hdd_cfg80211_set_feature(feature_flags,
QCA_WLAN_VENDOR_FEATURE_SUPPORT_HW_MODE_ANY);
if (wma_is_scan_simultaneous_capable())
wlan_hdd_cfg80211_set_feature(feature_flags,
QCA_WLAN_VENDOR_FEATURE_OFFCHANNEL_SIMULTANEOUS);
skb = cfg80211_vendor_cmd_alloc_reply_skb(wiphy, sizeof(feature_flags) +
NLMSG_HDRLEN);
if (!skb) {
hddLog(LOGE, FL("cfg80211_vendor_cmd_alloc_reply_skb failed"));
return -ENOMEM;
}
if (nla_put(skb, QCA_WLAN_VENDOR_ATTR_FEATURE_FLAGS,
sizeof(feature_flags), feature_flags))
goto nla_put_failure;
ret = wma_get_dbs_hw_modes(&one_by_one_dbs, &two_by_two_dbs);
if (CDF_STATUS_SUCCESS == ret) {
if (one_by_one_dbs)
dbs_capability = DRV_DBS_CAPABILITY_1X1;
if (two_by_two_dbs)
dbs_capability = DRV_DBS_CAPABILITY_2X2;
if (!one_by_one_dbs && !two_by_two_dbs)
dbs_capability = DRV_DBS_CAPABILITY_DISABLED;
} else {
hdd_err("wma_get_dbs_hw_mode failed");
dbs_capability = DRV_DBS_CAPABILITY_DISABLED;
}
hdd_info("dbs_capability is %d", dbs_capability);
if (nla_put_u32(skb,
QCA_WLAN_VENDOR_ATTR_MAX_CONCURRENT_CHANNELS_2_4_BAND,
MAX_CONCURRENT_CHAN_ON_24G))
goto nla_put_failure;
if (nla_put_u32(skb,
QCA_WLAN_VENDOR_ATTR_MAX_CONCURRENT_CHANNELS_5_0_BAND,
MAX_CONCURRENT_CHAN_ON_5G))
goto nla_put_failure;
return cfg80211_vendor_cmd_reply(skb);
nla_put_failure:
kfree_skb(skb);
return -EINVAL;
}
/**
* wlan_hdd_cfg80211_get_features() - Get the Driver Supported features
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This is called when wlan driver needs to send supported feature set to
* supplicant upon a request/query from the supplicant.
*
* Return: Return the Success or Failure code.
*/
static int
wlan_hdd_cfg80211_get_features(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_get_features(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_set_ext_roam_params() - Settings for roaming parameters
* @wiphy: The wiphy structure
* @wdev: The wireless device
* @data: Data passed by framework
* @data_len: Parameters to be configured passed as data
*
* The roaming related parameters are configured by the framework
* using this interface.
*
* Return: Return either success or failure code.
*/
static int
__wlan_hdd_cfg80211_set_ext_roam_params(struct wiphy *wiphy,
struct wireless_dev *wdev, const void *data, int data_len)
{
struct net_device *dev = wdev->netdev;
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
uint8_t session_id;
struct roam_ext_params roam_params;
uint32_t cmd_type, req_id;
struct nlattr *curr_attr;
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_MAX + 1];
struct nlattr *tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_MAX + 1];
int rem, i;
uint32_t buf_len = 0;
int ret;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
ret = wlan_hdd_validate_context(pHddCtx);
if (0 != ret) {
hddLog(LOGE, FL("HDD context is not valid"));
return -EINVAL;
}
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_MAX,
data, data_len,
NULL)) {
hddLog(LOGE, FL("Invalid ATTR"));
return -EINVAL;
}
/* Parse and fetch Command Type*/
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_SUBCMD]) {
hddLog(LOGE, FL("roam cmd type failed"));
goto fail;
}
session_id = pAdapter->sessionId;
cdf_mem_set(&roam_params, sizeof(roam_params), 0);
cmd_type = nla_get_u32(tb[QCA_WLAN_VENDOR_ATTR_ROAMING_SUBCMD]);
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_REQ_ID]) {
hddLog(LOGE, FL("attr request id failed"));
goto fail;
}
req_id = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_REQ_ID]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Req Id (%d)"), req_id);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Cmd Type (%d)"), cmd_type);
switch (cmd_type) {
case QCA_WLAN_VENDOR_ATTR_ROAM_SUBCMD_SSID_WHITE_LIST:
i = 0;
nla_for_each_nested(curr_attr,
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_WHITE_LIST_SSID_LIST],
rem) {
if (nla_parse(tb2,
QCA_WLAN_VENDOR_ATTR_ROAM_SUBCMD_MAX,
nla_data(curr_attr), nla_len(curr_attr),
NULL)) {
hddLog(LOGE,
FL("nla_parse failed"));
goto fail;
}
/* Parse and Fetch allowed SSID list*/
if (!tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_WHITE_LIST_SSID]) {
hddLog(LOGE, FL("attr allowed ssid failed"));
goto fail;
}
buf_len = nla_len(tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_WHITE_LIST_SSID]);
/*
* Upper Layers include a null termination character.
* Check for the actual permissible length of SSID and
* also ensure not to copy the NULL termination
* character to the driver buffer.
*/
if (buf_len && (i < MAX_SSID_ALLOWED_LIST) &&
((buf_len - 1) <= SIR_MAC_MAX_SSID_LENGTH)) {
nla_memcpy(
roam_params.ssid_allowed_list[i].ssId,
tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_WHITE_LIST_SSID],
buf_len - 1);
roam_params.ssid_allowed_list[i].length =
buf_len - 1;
hddLog(CDF_TRACE_LEVEL_DEBUG,
FL("SSID[%d]: %.*s,length = %d"), i,
roam_params.ssid_allowed_list[i].length,
roam_params.ssid_allowed_list[i].ssId,
roam_params.ssid_allowed_list[i].length);
i++;
} else {
hddLog(LOGE, FL("Invalid buffer length"));
}
}
roam_params.num_ssid_allowed_list = i;
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Num of Allowed SSID %d"),
roam_params.num_ssid_allowed_list);
sme_update_roam_params(pHddCtx->hHal, session_id,
roam_params, REASON_ROAM_SET_SSID_ALLOWED);
break;
case QCA_WLAN_VENDOR_ATTR_ROAM_SUBCMD_SET_EXTSCAN_ROAM_PARAMS:
/* Parse and fetch 5G Boost Threshold */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_BOOST_THRESHOLD]) {
hddLog(LOGE, FL("5G boost threshold failed"));
goto fail;
}
roam_params.raise_rssi_thresh_5g = nla_get_s32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_BOOST_THRESHOLD]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("5G Boost Threshold (%d)"),
roam_params.raise_rssi_thresh_5g);
/* Parse and fetch 5G Penalty Threshold */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_PENALTY_THRESHOLD]) {
hddLog(LOGE, FL("5G penalty threshold failed"));
goto fail;
}
roam_params.drop_rssi_thresh_5g = nla_get_s32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_PENALTY_THRESHOLD]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("5G Penalty Threshold (%d)"),
roam_params.drop_rssi_thresh_5g);
/* Parse and fetch 5G Boost Factor */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_BOOST_FACTOR]) {
hddLog(LOGE, FL("5G boost Factor failed"));
goto fail;
}
roam_params.raise_factor_5g = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_BOOST_FACTOR]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("5G Boost Factor (%d)"),
roam_params.raise_factor_5g);
/* Parse and fetch 5G Penalty factor */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_PENALTY_FACTOR]) {
hddLog(LOGE, FL("5G Penalty Factor failed"));
goto fail;
}
roam_params.drop_factor_5g = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_PENALTY_FACTOR]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("5G Penalty factor (%d)"),
roam_params.drop_factor_5g);
/* Parse and fetch 5G Max Boost */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_MAX_BOOST]) {
hddLog(LOGE, FL("5G Max Boost failed"));
goto fail;
}
roam_params.max_raise_rssi_5g = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_A_BAND_MAX_BOOST]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("5G Max Boost (%d)"),
roam_params.max_raise_rssi_5g);
/* Parse and fetch Rssi Diff */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_LAZY_ROAM_HISTERESYS]) {
hddLog(LOGE, FL("Rssi Diff failed"));
goto fail;
}
roam_params.rssi_diff = nla_get_s32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_LAZY_ROAM_HISTERESYS]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("RSSI Diff (%d)"),
roam_params.rssi_diff);
/* Parse and fetch Alert Rssi Threshold */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_ALERT_ROAM_RSSI_TRIGGER]) {
hddLog(LOGE, FL("Alert Rssi Threshold failed"));
goto fail;
}
roam_params.alert_rssi_threshold = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_ALERT_ROAM_RSSI_TRIGGER]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Alert RSSI Threshold (%d)"),
roam_params.alert_rssi_threshold);
sme_update_roam_params(pHddCtx->hHal, session_id,
roam_params,
REASON_ROAM_EXT_SCAN_PARAMS_CHANGED);
break;
case QCA_WLAN_VENDOR_ATTR_ROAM_SUBCMD_SET_LAZY_ROAM:
/* Parse and fetch Activate Good Rssi Roam */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_ENABLE]) {
hddLog(LOGE, FL("Activate Good Rssi Roam failed"));
goto fail;
}
roam_params.good_rssi_roam = nla_get_s32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_ENABLE]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Activate Good Rssi Roam (%d)"),
roam_params.good_rssi_roam);
sme_update_roam_params(pHddCtx->hHal, session_id,
roam_params, REASON_ROAM_GOOD_RSSI_CHANGED);
break;
case QCA_WLAN_VENDOR_ATTR_ROAM_SUBCMD_SET_BSSID_PREFS:
/* Parse and fetch number of preferred BSSID */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_NUM_BSSID]) {
hddLog(LOGE, FL("attr num of preferred bssid failed"));
goto fail;
}
roam_params.num_bssid_favored = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_NUM_BSSID]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Num of Preferred BSSID (%d)"),
roam_params.num_bssid_favored);
i = 0;
nla_for_each_nested(curr_attr,
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_BSSID_PREFS],
rem) {
if (nla_parse(tb2,
QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_MAX,
nla_data(curr_attr), nla_len(curr_attr),
NULL)) {
hddLog(LOGE, FL("nla_parse failed"));
goto fail;
}
/* Parse and fetch MAC address */
if (!tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_BSSID]) {
hddLog(LOGE, FL("attr mac address failed"));
goto fail;
}
nla_memcpy(roam_params.bssid_favored[i],
tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_BSSID],
sizeof(tSirMacAddr));
hddLog(CDF_TRACE_LEVEL_DEBUG, MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(roam_params.bssid_favored[i]));
/* Parse and fetch preference factor*/
if (!tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_RSSI_MODIFIER]) {
hddLog(LOGE, FL("BSSID Preference score failed"));
goto fail;
}
roam_params.bssid_favored_factor[i] = nla_get_u32(
tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_LAZY_ROAM_RSSI_MODIFIER]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("BSSID Preference score (%d)"),
roam_params.bssid_favored_factor[i]);
i++;
}
sme_update_roam_params(pHddCtx->hHal, session_id,
roam_params, REASON_ROAM_SET_FAVORED_BSSID);
break;
case QCA_WLAN_VENDOR_ATTR_ROAM_SUBCMD_SET_BLACKLIST_BSSID:
/* Parse and fetch number of blacklist BSSID */
if (!tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_BSSID_PARAMS_NUM_BSSID]) {
hddLog(LOGE, FL("attr num of blacklist bssid failed"));
goto fail;
}
roam_params.num_bssid_avoid_list = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_BSSID_PARAMS_NUM_BSSID]);
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Num of blacklist BSSID (%d)"),
roam_params.num_bssid_avoid_list);
i = 0;
nla_for_each_nested(curr_attr,
tb[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_BSSID_PARAMS],
rem) {
if (nla_parse(tb2,
QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_MAX,
nla_data(curr_attr), nla_len(curr_attr),
NULL)) {
hddLog(LOGE, FL("nla_parse failed"));
goto fail;
}
/* Parse and fetch MAC address */
if (!tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_BSSID_PARAMS_BSSID]) {
hddLog(LOGE, FL("attr blacklist addr failed"));
goto fail;
}
nla_memcpy(roam_params.bssid_avoid_list[i],
tb2[QCA_WLAN_VENDOR_ATTR_ROAMING_PARAM_SET_BSSID_PARAMS_BSSID],
sizeof(tSirMacAddr));
hddLog(CDF_TRACE_LEVEL_DEBUG, MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(
roam_params.bssid_avoid_list[i]));
i++;
}
sme_update_roam_params(pHddCtx->hHal, session_id,
roam_params, REASON_ROAM_SET_BLACKLIST_BSSID);
break;
}
return 0;
fail:
return -EINVAL;
}
/**
* wlan_hdd_cfg80211_set_ext_roam_params() - set ext scan roam params
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* Return: Return the Success or Failure code.
*/
static int
wlan_hdd_cfg80211_set_ext_roam_params(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_ext_roam_params(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
static const struct nla_policy
wlan_hdd_set_no_dfs_flag_config_policy[QCA_WLAN_VENDOR_ATTR_SET_NO_DFS_FLAG_MAX
+1] = {
[QCA_WLAN_VENDOR_ATTR_SET_NO_DFS_FLAG] = {.type = NLA_U32 },
};
/**
* wlan_hdd_check_dfs_channel_for_adapter() - check dfs channel in adapter
* @hdd_ctx: HDD context
* @device_mode: device mode
* Return: bool
*/
static bool wlan_hdd_check_dfs_channel_for_adapter(hdd_context_t *hdd_ctx,
device_mode_t device_mode)
{
hdd_adapter_t *adapter;
hdd_adapter_list_node_t *adapter_node = NULL, *next = NULL;
hdd_ap_ctx_t *ap_ctx;
hdd_station_ctx_t *sta_ctx;
CDF_STATUS cdf_status;
cdf_status = hdd_get_front_adapter(hdd_ctx,
&adapter_node);
while ((NULL != adapter_node) &&
(CDF_STATUS_SUCCESS == cdf_status)) {
adapter = adapter_node->pAdapter;
if ((device_mode == adapter->device_mode) &&
(device_mode == WLAN_HDD_SOFTAP)) {
ap_ctx =
WLAN_HDD_GET_AP_CTX_PTR(adapter);
/*
* if there is SAP already running on DFS channel,
* do not disable scan on dfs channels. Note that
* with SAP on DFS, there cannot be conurrency on
* single radio. But then we can have multiple
* radios !!
*/
if (CHANNEL_STATE_DFS ==
cds_get_channel_state(
ap_ctx->operatingChannel)) {
hddLog(CDF_TRACE_LEVEL_ERROR,
FL("SAP running on DFS channel"));
return true;
}
}
if ((device_mode == adapter->device_mode) &&
(device_mode == WLAN_HDD_INFRA_STATION)) {
sta_ctx =
WLAN_HDD_GET_STATION_CTX_PTR(adapter);
/*
* if STA is already connected on DFS channel,
* do not disable scan on dfs channels
*/
if (hdd_conn_is_connected(sta_ctx) &&
(CHANNEL_STATE_DFS ==
cds_get_channel_state(
sta_ctx->conn_info.operationChannel))) {
hddLog(LOGE,
FL("client connected on DFS channel"));
return true;
}
}
cdf_status = hdd_get_next_adapter(hdd_ctx,
adapter_node,
&next);
adapter_node = next;
}
return false;
}
/**
* __wlan_hdd_cfg80211_disable_dfs_chan_scan() - DFS channel configuration
* @wiphy: corestack handler
* @wdev: wireless device
* @data: data
* @data_len: data length
* Return: success(0) or reason code for failure
*/
static int __wlan_hdd_cfg80211_disable_dfs_chan_scan(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
struct net_device *dev = wdev->netdev;
hdd_adapter_t *adapter = WLAN_HDD_GET_PRIV_PTR(dev);
tHalHandle h_hal = WLAN_HDD_GET_HAL_CTX(adapter);
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_SET_NO_DFS_FLAG_MAX + 1];
CDF_STATUS status;
int ret_val = -EPERM;
uint32_t no_dfs_flag = 0;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
if (wlan_hdd_validate_context(hdd_ctx)) {
hddLog(CDF_TRACE_LEVEL_ERROR,
FL("HDD context is not valid"));
return -EINVAL;
}
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_SET_NO_DFS_FLAG_MAX,
data, data_len,
wlan_hdd_set_no_dfs_flag_config_policy)) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("invalid attr"));
return -EINVAL;
}
if (!tb[QCA_WLAN_VENDOR_ATTR_SET_NO_DFS_FLAG]) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("attr dfs flag failed"));
return -EINVAL;
}
no_dfs_flag = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_SET_NO_DFS_FLAG]);
hddLog(CDF_TRACE_LEVEL_INFO, FL(" DFS flag = %d"),
no_dfs_flag);
if (no_dfs_flag > 1) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("invalid value of dfs flag"));
return -EINVAL;
}
if (no_dfs_flag == hdd_ctx->config->enableDFSChnlScan) {
if (no_dfs_flag) {
status = wlan_hdd_check_dfs_channel_for_adapter(
hdd_ctx, WLAN_HDD_INFRA_STATION);
if (true == status)
return -EOPNOTSUPP;
status = wlan_hdd_check_dfs_channel_for_adapter(
hdd_ctx, WLAN_HDD_SOFTAP);
if (true == status)
return -EOPNOTSUPP;
}
hdd_ctx->config->enableDFSChnlScan = !no_dfs_flag;
hdd_abort_mac_scan_all_adapters(hdd_ctx);
/*
* call the SME API to tunnel down the new channel list
* to the firmware
*/
status = sme_handle_dfs_chan_scan(
h_hal, hdd_ctx->config->enableDFSChnlScan);
if (CDF_STATUS_SUCCESS == status) {
ret_val = 0;
/*
* Clear the SME scan cache also. Note that the
* clearing of scan results is independent of session;
* so no need to iterate over
* all sessions
*/
status = sme_scan_flush_result(h_hal);
if (CDF_STATUS_SUCCESS != status)
ret_val = -EPERM;
}
} else {
hddLog(CDF_TRACE_LEVEL_INFO,
FL(" the DFS flag has not changed"));
ret_val = 0;
}
return ret_val;
}
/**
* wlan_hdd_cfg80211_disable_dfs_chan_scan () - DFS scan vendor command
*
* @wiphy: wiphy device pointer
* @wdev: wireless device pointer
* @data: Vendof command data buffer
* @data_len: Buffer length
*
* Handles QCA_WLAN_VENDOR_ATTR_SET_NO_DFS_FLAG_MAX. Validate it and
* call wlan_hdd_disable_dfs_chan_scan to send it to firmware.
*
* Return: EOK or other error codes.
*/
static int wlan_hdd_cfg80211_disable_dfs_chan_scan(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_disable_dfs_chan_scan(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
#ifdef WLAN_FEATURE_ROAM_OFFLOAD
/**
* __wlan_hdd_cfg80211_keymgmt_set_key() - Store the Keys in the driver session
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the Key data
* @data_len:Length of the data passed
*
* This is called when wlan driver needs to save the keys received via
* vendor specific command.
*
* Return: Return the Success or Failure code.
*/
static int __wlan_hdd_cfg80211_keymgmt_set_key(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
uint8_t local_pmk[SIR_ROAM_SCAN_PSK_SIZE];
struct net_device *dev = wdev->netdev;
hdd_adapter_t *hdd_adapter_ptr = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *hdd_ctx_ptr;
int status;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
if ((data == NULL) || (data_len == 0) ||
(data_len > SIR_ROAM_SCAN_PSK_SIZE)) {
hddLog(LOGE, FL("Invalid data"));
return -EINVAL;
}
hdd_ctx_ptr = WLAN_HDD_GET_CTX(hdd_adapter_ptr);
if (!hdd_ctx_ptr) {
hddLog(LOGE, FL("HDD context is null"));
return -EINVAL;
}
status = wlan_hdd_validate_context(hdd_ctx_ptr);
if (0 != status) {
hddLog(LOGE, FL("HDD context is invalid"));
return status;
}
sme_update_roam_key_mgmt_offload_enabled(hdd_ctx_ptr->hHal,
hdd_adapter_ptr->sessionId,
true);
cdf_mem_zero(&local_pmk, SIR_ROAM_SCAN_PSK_SIZE);
cdf_mem_copy(local_pmk, data, data_len);
sme_roam_set_psk_pmk(WLAN_HDD_GET_HAL_CTX(hdd_adapter_ptr),
hdd_adapter_ptr->sessionId, local_pmk, data_len);
return 0;
}
/**
* wlan_hdd_cfg80211_keymgmt_set_key() - Store the Keys in the driver session
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the Key data
* @data_len:Length of the data passed
*
* This is called when wlan driver needs to save the keys received via
* vendor specific command.
*
* Return: Return the Success or Failure code.
*/
static int wlan_hdd_cfg80211_keymgmt_set_key(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_keymgmt_set_key(wiphy, wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
static const struct nla_policy qca_wlan_vendor_get_wifi_info_policy[
QCA_WLAN_VENDOR_ATTR_WIFI_INFO_GET_MAX + 1] = {
[QCA_WLAN_VENDOR_ATTR_WIFI_INFO_DRIVER_VERSION] = {.type = NLA_U8 },
[QCA_WLAN_VENDOR_ATTR_WIFI_INFO_FIRMWARE_VERSION] = {.type = NLA_U8 },
};
/**
* __wlan_hdd_cfg80211_get_wifi_info() - Get the wifi driver related info
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This is called when wlan driver needs to send wifi driver related info
* (driver/fw version) to the user space application upon request.
*
* Return: Return the Success or Failure code.
*/
static int
__wlan_hdd_cfg80211_get_wifi_info(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct nlattr *tb_vendor[QCA_WLAN_VENDOR_ATTR_WIFI_INFO_GET_MAX + 1];
tSirVersionString version;
uint32_t version_len;
uint32_t major_spid = 0, minor_spid = 0, siid = 0, crmid = 0;
uint8_t attr;
int status;
struct sk_buff *reply_skb = NULL;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
status = wlan_hdd_validate_context(hdd_ctx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return -EINVAL;
}
if (nla_parse(tb_vendor, QCA_WLAN_VENDOR_ATTR_WIFI_INFO_GET_MAX, data,
data_len, qca_wlan_vendor_get_wifi_info_policy)) {
hddLog(LOGE, FL("WIFI_INFO_GET NL CMD parsing failed"));
return -EINVAL;
}
if (tb_vendor[QCA_WLAN_VENDOR_ATTR_WIFI_INFO_DRIVER_VERSION]) {
hddLog(LOG1, FL("Rcvd req for Driver version"));
strlcpy(version, QWLAN_VERSIONSTR, sizeof(version));
attr = QCA_WLAN_VENDOR_ATTR_WIFI_INFO_DRIVER_VERSION;
} else if (tb_vendor[QCA_WLAN_VENDOR_ATTR_WIFI_INFO_FIRMWARE_VERSION]) {
hddLog(LOG1, FL("Rcvd req for FW version"));
hdd_get_fw_version(hdd_ctx, &major_spid, &minor_spid, &siid,
&crmid);
snprintf(version, sizeof(version), "%d:%d:%d:%d",
major_spid, minor_spid, siid, crmid);
attr = QCA_WLAN_VENDOR_ATTR_WIFI_INFO_FIRMWARE_VERSION;
} else {
hddLog(LOGE, FL("Invalid attribute in get wifi info request"));
return -EINVAL;
}
version_len = strlen(version);
reply_skb = cfg80211_vendor_cmd_alloc_reply_skb(wiphy,
version_len + NLA_HDRLEN + NLMSG_HDRLEN);
if (!reply_skb) {
hddLog(LOGE, FL("cfg80211_vendor_cmd_alloc_reply_skb failed"));
return -ENOMEM;
}
if (nla_put(reply_skb, attr, version_len, version)) {
hddLog(LOGE, FL("nla put fail"));
kfree_skb(reply_skb);
return -EINVAL;
}
return cfg80211_vendor_cmd_reply(reply_skb);
}
/**
* wlan_hdd_cfg80211_get_wifi_info() - Get the wifi driver related info
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This is called when wlan driver needs to send wifi driver related info
* (driver/fw version) to the user space application upon request.
*
* Return: Return the Success or Failure code.
*/
static int
wlan_hdd_cfg80211_get_wifi_info(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_get_wifi_info(wiphy, wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_get_logger_supp_feature() - Get the wifi logger features
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This is called by userspace to know the supported logger features
*
* Return: Return the Success or Failure code.
*/
static int
__wlan_hdd_cfg80211_get_logger_supp_feature(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
int status;
uint32_t features;
struct sk_buff *reply_skb = NULL;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
status = wlan_hdd_validate_context(hdd_ctx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return -EINVAL;
}
features = 0;
if (hdd_is_memdump_supported())
features |= WIFI_LOGGER_MEMORY_DUMP_SUPPORTED;
features |= WIFI_LOGGER_PER_PACKET_TX_RX_STATUS_SUPPORTED;
features |= WIFI_LOGGER_CONNECT_EVENT_SUPPORTED;
features |= WIFI_LOGGER_WAKE_LOCK_SUPPORTED;
reply_skb = cfg80211_vendor_cmd_alloc_reply_skb(wiphy,
sizeof(uint32_t) + NLA_HDRLEN + NLMSG_HDRLEN);
if (!reply_skb) {
hddLog(LOGE, FL("cfg80211_vendor_cmd_alloc_reply_skb failed"));
return -ENOMEM;
}
hddLog(LOG1, FL("Supported logger features: 0x%0x"), features);
if (nla_put_u32(reply_skb, QCA_WLAN_VENDOR_ATTR_LOGGER_SUPPORTED,
features)) {
hddLog(LOGE, FL("nla put fail"));
kfree_skb(reply_skb);
return -EINVAL;
}
return cfg80211_vendor_cmd_reply(reply_skb);
}
/**
* wlan_hdd_cfg80211_get_logger_supp_feature() - Get the wifi logger features
* @wiphy: pointer to wireless wiphy structure.
* @wdev: pointer to wireless_dev structure.
* @data: Pointer to the data to be passed via vendor interface
* @data_len:Length of the data to be passed
*
* This is called by userspace to know the supported logger features
*
* Return: Return the Success or Failure code.
*/
static int
wlan_hdd_cfg80211_get_logger_supp_feature(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data, int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_get_logger_supp_feature(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* wlan_hdd_send_roam_auth_event() - Send the roamed and authorized event
* @hdd_ctx_ptr: pointer to HDD Context.
* @bssid: pointer to bssid of roamed AP.
* @req_rsn_ie: Pointer to request RSN IE
* @req_rsn_len: Length of the request RSN IE
* @rsp_rsn_ie: Pointer to response RSN IE
* @rsp_rsn_len: Length of the response RSN IE
* @roam_info_ptr: Pointer to the roaming related information
*
* This is called when wlan driver needs to send the roaming and
* authorization information after roaming.
*
* The information that would be sent is the request RSN IE, response
* RSN IE and BSSID of the newly roamed AP.
*
* If the Authorized status is authenticated, then additional parameters
* like PTK's KCK and KEK and Replay Counter would also be passed to the
* supplicant.
*
* The supplicant upon receiving this event would ignore the legacy
* cfg80211_roamed call and use the entire information from this event.
* The cfg80211_roamed should still co-exist since the kernel will
* make use of the parameters even if the supplicant ignores it.
*
* Return: Return the Success or Failure code.
*/
int wlan_hdd_send_roam_auth_event(hdd_context_t *hdd_ctx_ptr, uint8_t *bssid,
uint8_t *req_rsn_ie, uint32_t req_rsn_len, uint8_t *rsp_rsn_ie,
uint32_t rsp_rsn_len, tCsrRoamInfo *roam_info_ptr)
{
struct sk_buff *skb = NULL;
ENTER();
if (wlan_hdd_validate_context(hdd_ctx_ptr)) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("HDD context is not valid "));
return -EINVAL;
}
skb = cfg80211_vendor_event_alloc(hdd_ctx_ptr->wiphy,
NULL,
ETH_ALEN + req_rsn_len + rsp_rsn_len +
sizeof(uint8_t) + SIR_REPLAY_CTR_LEN +
SIR_KCK_KEY_LEN + SIR_KCK_KEY_LEN +
(7 * NLMSG_HDRLEN),
QCA_NL80211_VENDOR_SUBCMD_KEY_MGMT_ROAM_AUTH_INDEX,
GFP_KERNEL);
if (!skb) {
hddLog(CDF_TRACE_LEVEL_ERROR,
FL("cfg80211_vendor_event_alloc failed"));
return -EINVAL;
}
if (nla_put(skb, QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_BSSID,
ETH_ALEN, bssid) ||
nla_put(skb, QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_REQ_IE,
req_rsn_len, req_rsn_ie) ||
nla_put(skb, QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_RESP_IE,
rsp_rsn_len, rsp_rsn_ie)) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("nla put fail"));
goto nla_put_failure;
}
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Auth Status = %d"),
roam_info_ptr->synchAuthStatus);
if (roam_info_ptr->synchAuthStatus ==
CSR_ROAM_AUTH_STATUS_AUTHENTICATED) {
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Include Auth Params TLV's"));
if (nla_put_u8(skb, QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_AUTHORIZED,
true) ||
nla_put(skb,
QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_KEY_REPLAY_CTR,
SIR_REPLAY_CTR_LEN, roam_info_ptr->replay_ctr)
|| nla_put(skb, QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_PTK_KCK,
SIR_KCK_KEY_LEN, roam_info_ptr->kck)
|| nla_put(skb, QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_PTK_KEK,
SIR_KEK_KEY_LEN, roam_info_ptr->kek)) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("nla put fail"));
goto nla_put_failure;
}
} else {
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("No Auth Params TLV's"));
if (nla_put_u8(skb, QCA_WLAN_VENDOR_ATTR_ROAM_AUTH_AUTHORIZED,
false)) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("nla put fail"));
goto nla_put_failure;
}
}
cfg80211_vendor_event(skb, GFP_KERNEL);
return 0;
nla_put_failure:
kfree_skb(skb);
return -EINVAL;
}
#endif
static const struct nla_policy
wlan_hdd_wifi_config_policy[QCA_WLAN_VENDOR_ATTR_CONFIG_MAX + 1] = {
[QCA_WLAN_VENDOR_ATTR_CONFIG_MODULATED_DTIM] = {.type = NLA_U32 },
[QCA_WLAN_VENDOR_ATTR_CONFIG_STATS_AVG_FACTOR] = {.type = NLA_U16 },
[QCA_WLAN_VENDOR_ATTR_CONFIG_GUARD_TIME] = {.type = NLA_U32 },
};
/**
* __wlan_hdd_cfg80211_wifi_configuration_set() - Wifi configuration
* vendor command
*
* @wiphy: wiphy device pointer
* @wdev: wireless device pointer
* @data: Vendor command data buffer
* @data_len: Buffer length
*
* Handles QCA_WLAN_VENDOR_ATTR_CONFIG_MAX.
*
* Return: Error code.
*/
static int
__wlan_hdd_cfg80211_wifi_configuration_set(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
struct net_device *dev = wdev->netdev;
hdd_adapter_t *adapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_CONFIG_MAX + 1];
int ret_val = 0;
u32 modulated_dtim;
u16 stats_avg_factor;
u32 guard_time;
CDF_STATUS status;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
ret_val = wlan_hdd_validate_context(hdd_ctx);
if (ret_val) {
hddLog(LOGE, FL("HDD context is not valid"));
return ret_val;
}
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_CONFIG_MAX,
data, data_len,
wlan_hdd_wifi_config_policy)) {
hddLog(LOGE, FL("invalid attr"));
return -EINVAL;
}
if (tb[QCA_WLAN_VENDOR_ATTR_CONFIG_MODULATED_DTIM]) {
modulated_dtim = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_CONFIG_MODULATED_DTIM]);
status = sme_configure_modulated_dtim(hdd_ctx->hHal,
adapter->sessionId,
modulated_dtim);
if (CDF_STATUS_SUCCESS != status)
ret_val = -EPERM;
}
if (tb[QCA_WLAN_VENDOR_ATTR_CONFIG_STATS_AVG_FACTOR]) {
stats_avg_factor = nla_get_u16(
tb[QCA_WLAN_VENDOR_ATTR_CONFIG_STATS_AVG_FACTOR]);
status = sme_configure_stats_avg_factor(hdd_ctx->hHal,
adapter->sessionId,
stats_avg_factor);
if (CDF_STATUS_SUCCESS != status)
ret_val = -EPERM;
}
if (tb[QCA_WLAN_VENDOR_ATTR_CONFIG_GUARD_TIME]) {
guard_time = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_CONFIG_GUARD_TIME]);
status = sme_configure_guard_time(hdd_ctx->hHal,
adapter->sessionId,
guard_time);
if (CDF_STATUS_SUCCESS != status)
ret_val = -EPERM;
}
return ret_val;
}
/**
* wlan_hdd_cfg80211_wifi_configuration_set() - Wifi configuration
* vendor command
*
* @wiphy: wiphy device pointer
* @wdev: wireless device pointer
* @data: Vendor command data buffer
* @data_len: Buffer length
*
* Handles QCA_WLAN_VENDOR_ATTR_CONFIG_MAX.
*
* Return: EOK or other error codes.
*/
static int wlan_hdd_cfg80211_wifi_configuration_set(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_wifi_configuration_set(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
static const struct
nla_policy
qca_wlan_vendor_wifi_logger_start_policy
[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_START_MAX + 1] = {
[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_RING_ID]
= {.type = NLA_U32 },
[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_VERBOSE_LEVEL]
= {.type = NLA_U32 },
[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_FLAGS]
= {.type = NLA_U32 },
};
/**
* __wlan_hdd_cfg80211_wifi_logger_start() - This function is used to enable
* or disable the collection of packet statistics from the firmware
* @wiphy: WIPHY structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of the data received
*
* This function enables or disables the collection of packet statistics from
* the firmware
*
* Return: 0 on success and errno on failure
*/
static int __wlan_hdd_cfg80211_wifi_logger_start(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
CDF_STATUS status;
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_START_MAX + 1];
struct sir_wifi_start_log start_log;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
status = wlan_hdd_validate_context(hdd_ctx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return -EINVAL;
}
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_START_MAX,
data, data_len,
qca_wlan_vendor_wifi_logger_start_policy)) {
hddLog(LOGE, FL("Invalid attribute"));
return -EINVAL;
}
/* Parse and fetch ring id */
if (!tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_RING_ID]) {
hddLog(LOGE, FL("attr ATTR failed"));
return -EINVAL;
}
start_log.ring_id = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_RING_ID]);
hddLog(LOGE, FL("Ring ID=%d"), start_log.ring_id);
/* Parse and fetch verbose level */
if (!tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_VERBOSE_LEVEL]) {
hddLog(LOGE, FL("attr verbose_level failed"));
return -EINVAL;
}
start_log.verbose_level = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_VERBOSE_LEVEL]);
hddLog(LOGE, FL("verbose_level=%d"), start_log.verbose_level);
/* Parse and fetch flag */
if (!tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_FLAGS]) {
hddLog(LOGE, FL("attr flag failed"));
return -EINVAL;
}
start_log.flag = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_FLAGS]);
hddLog(LOGE, FL("flag=%d"), start_log.flag);
cds_set_ring_log_level(start_log.ring_id, start_log.verbose_level);
if (start_log.ring_id == RING_ID_WAKELOCK) {
/* Start/stop wakelock events */
if (start_log.verbose_level > WLAN_LOG_LEVEL_OFF)
cds_set_wakelock_logging(true);
else
cds_set_wakelock_logging(false);
return 0;
}
status = sme_wifi_start_logger(hdd_ctx->hHal, start_log);
if (!CDF_IS_STATUS_SUCCESS(status)) {
hddLog(LOGE, FL("sme_wifi_start_logger failed(err=%d)"),
status);
return -EINVAL;
}
return 0;
}
/**
* wlan_hdd_cfg80211_wifi_logger_start() - Wrapper function used to enable
* or disable the collection of packet statistics from the firmware
* @wiphy: WIPHY structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of the data received
*
* This function is used to enable or disable the collection of packet
* statistics from the firmware
*
* Return: 0 on success and errno on failure
*/
static int wlan_hdd_cfg80211_wifi_logger_start(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_wifi_logger_start(wiphy,
wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
static const struct
nla_policy
qca_wlan_vendor_wifi_logger_get_ring_data_policy
[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_GET_RING_DATA_MAX + 1] = {
[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_GET_RING_DATA_ID]
= {.type = NLA_U32 },
};
/**
* __wlan_hdd_cfg80211_wifi_logger_get_ring_data() - Flush per packet stats
* @wiphy: WIPHY structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of the data received
*
* This function is used to flush or retrieve the per packet statistics from
* the driver
*
* Return: 0 on success and errno on failure
*/
static int __wlan_hdd_cfg80211_wifi_logger_get_ring_data(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
CDF_STATUS status;
uint32_t ring_id;
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct nlattr *tb
[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_GET_RING_DATA_MAX + 1];
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
status = wlan_hdd_validate_context(hdd_ctx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return -EINVAL;
}
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_GET_RING_DATA_MAX,
data, data_len,
qca_wlan_vendor_wifi_logger_get_ring_data_policy)) {
hddLog(LOGE, FL("Invalid attribute"));
return -EINVAL;
}
/* Parse and fetch ring id */
if (!tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_GET_RING_DATA_ID]) {
hddLog(LOGE, FL("attr ATTR failed"));
return -EINVAL;
}
ring_id = nla_get_u32(
tb[QCA_WLAN_VENDOR_ATTR_WIFI_LOGGER_GET_RING_DATA_ID]);
if (ring_id == RING_ID_PER_PACKET_STATS) {
wlan_logging_set_per_pkt_stats();
hddLog(LOG1, FL("Flushing/Retrieving packet stats"));
}
hddLog(LOG1, FL("Bug report triggered by framework"));
status = cds_flush_logs(WLAN_LOG_TYPE_NON_FATAL,
WLAN_LOG_INDICATOR_FRAMEWORK,
WLAN_LOG_REASON_CODE_UNUSED);
if (CDF_STATUS_SUCCESS != status) {
hddLog(LOGE, FL("Failed to trigger bug report"));
return -EINVAL;
}
return 0;
}
/**
* wlan_hdd_cfg80211_wifi_logger_get_ring_data() - Wrapper to flush packet stats
* @wiphy: WIPHY structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of the data received
*
* This function is used to flush or retrieve the per packet statistics from
* the driver
*
* Return: 0 on success and errno on failure
*/
static int wlan_hdd_cfg80211_wifi_logger_get_ring_data(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_wifi_logger_get_ring_data(wiphy,
wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
#ifdef WLAN_FEATURE_OFFLOAD_PACKETS
/**
* hdd_map_req_id_to_pattern_id() - map request id to pattern id
* @hdd_ctx: HDD context
* @request_id: [input] request id
* @pattern_id: [output] pattern id
*
* This function loops through request id to pattern id array
* if the slot is available, store the request id and return pattern id
* if entry exists, return the pattern id
*
* Return: 0 on success and errno on failure
*/
static int hdd_map_req_id_to_pattern_id(hdd_context_t *hdd_ctx,
uint32_t request_id,
uint8_t *pattern_id)
{
uint32_t i;
mutex_lock(&hdd_ctx->op_ctx.op_lock);
for (i = 0; i < MAXNUM_PERIODIC_TX_PTRNS; i++) {
if (hdd_ctx->op_ctx.op_table[i].request_id == MAX_REQUEST_ID) {
hdd_ctx->op_ctx.op_table[i].request_id = request_id;
*pattern_id = hdd_ctx->op_ctx.op_table[i].pattern_id;
mutex_unlock(&hdd_ctx->op_ctx.op_lock);
return 0;
} else if (hdd_ctx->op_ctx.op_table[i].request_id ==
request_id) {
*pattern_id = hdd_ctx->op_ctx.op_table[i].pattern_id;
mutex_unlock(&hdd_ctx->op_ctx.op_lock);
return 0;
}
}
mutex_unlock(&hdd_ctx->op_ctx.op_lock);
return -EINVAL;
}
/**
* hdd_unmap_req_id_to_pattern_id() - unmap request id to pattern id
* @hdd_ctx: HDD context
* @request_id: [input] request id
* @pattern_id: [output] pattern id
*
* This function loops through request id to pattern id array
* reset request id to 0 (slot available again) and
* return pattern id
*
* Return: 0 on success and errno on failure
*/
static int hdd_unmap_req_id_to_pattern_id(hdd_context_t *hdd_ctx,
uint32_t request_id,
uint8_t *pattern_id)
{
uint32_t i;
mutex_lock(&hdd_ctx->op_ctx.op_lock);
for (i = 0; i < MAXNUM_PERIODIC_TX_PTRNS; i++) {
if (hdd_ctx->op_ctx.op_table[i].request_id == request_id) {
hdd_ctx->op_ctx.op_table[i].request_id = MAX_REQUEST_ID;
*pattern_id = hdd_ctx->op_ctx.op_table[i].pattern_id;
mutex_unlock(&hdd_ctx->op_ctx.op_lock);
return 0;
}
}
mutex_unlock(&hdd_ctx->op_ctx.op_lock);
return -EINVAL;
}
/*
* define short names for the global vendor params
* used by __wlan_hdd_cfg80211_offloaded_packets()
*/
#define PARAM_MAX QCA_WLAN_VENDOR_ATTR_OFFLOADED_PACKETS_MAX
#define PARAM_REQUEST_ID \
QCA_WLAN_VENDOR_ATTR_OFFLOADED_PACKETS_REQUEST_ID
#define PARAM_CONTROL \
QCA_WLAN_VENDOR_ATTR_OFFLOADED_PACKETS_SENDING_CONTROL
#define PARAM_IP_PACKET \
QCA_WLAN_VENDOR_ATTR_OFFLOADED_PACKETS_IP_PACKET_DATA
#define PARAM_SRC_MAC_ADDR \
QCA_WLAN_VENDOR_ATTR_OFFLOADED_PACKETS_SRC_MAC_ADDR
#define PARAM_DST_MAC_ADDR \
QCA_WLAN_VENDOR_ATTR_OFFLOADED_PACKETS_DST_MAC_ADDR
#define PARAM_PERIOD QCA_WLAN_VENDOR_ATTR_OFFLOADED_PACKETS_PERIOD
/**
* wlan_hdd_add_tx_ptrn() - add tx pattern
* @adapter: adapter pointer
* @hdd_ctx: hdd context
* @tb: nl attributes
*
* This function reads the NL attributes and forms a AddTxPtrn message
* posts it to SME.
*
*/
static int
wlan_hdd_add_tx_ptrn(hdd_adapter_t *adapter, hdd_context_t *hdd_ctx,
struct nlattr **tb)
{
struct sSirAddPeriodicTxPtrn *add_req;
CDF_STATUS status;
uint32_t request_id, ret, len;
uint8_t pattern_id = 0;
struct cdf_mac_addr dst_addr;
uint16_t eth_type = htons(ETH_P_IP);
if (!hdd_conn_is_connected(WLAN_HDD_GET_STATION_CTX_PTR(adapter))) {
hddLog(LOGE, FL("Not in Connected state!"));
return -ENOTSUPP;
}
add_req = cdf_mem_malloc(sizeof(*add_req));
if (!add_req) {
hddLog(LOGE, FL("memory allocation failed"));
return -ENOMEM;
}
/* Parse and fetch request Id */
if (!tb[PARAM_REQUEST_ID]) {
hddLog(LOGE, FL("attr request id failed"));
goto fail;
}
request_id = nla_get_u32(tb[PARAM_REQUEST_ID]);
if (request_id == MAX_REQUEST_ID) {
hddLog(LOGE, FL("request_id cannot be MAX"));
return -EINVAL;
}
hddLog(LOG1, FL("Request Id: %u"), request_id);
if (!tb[PARAM_PERIOD]) {
hddLog(LOGE, FL("attr period failed"));
goto fail;
}
add_req->usPtrnIntervalMs = nla_get_u32(tb[PARAM_PERIOD]);
hddLog(LOG1, FL("Period: %u ms"), add_req->usPtrnIntervalMs);
if (add_req->usPtrnIntervalMs == 0) {
hddLog(LOGE, FL("Invalid interval zero, return failure"));
goto fail;
}
if (!tb[PARAM_SRC_MAC_ADDR]) {
hddLog(LOGE, FL("attr source mac address failed"));
goto fail;
}
nla_memcpy(add_req->macAddress, tb[PARAM_SRC_MAC_ADDR],
CDF_MAC_ADDR_SIZE);
hddLog(LOG1, "input src mac address: "MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(add_req->macAddress));
if (memcmp(add_req->macAddress, adapter->macAddressCurrent.bytes,
CDF_MAC_ADDR_SIZE)) {
hddLog(LOGE, FL("input src mac address and connected ap bssid are different"));
goto fail;
}
if (!tb[PARAM_DST_MAC_ADDR]) {
hddLog(LOGE, FL("attr dst mac address failed"));
goto fail;
}
nla_memcpy(dst_addr.bytes, tb[PARAM_DST_MAC_ADDR], CDF_MAC_ADDR_SIZE);
hddLog(LOG1, "input dst mac address: "MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(dst_addr.bytes));
if (!tb[PARAM_IP_PACKET]) {
hddLog(LOGE, FL("attr ip packet failed"));
goto fail;
}
add_req->ucPtrnSize = nla_len(tb[PARAM_IP_PACKET]);
hddLog(LOG1, FL("IP packet len: %u"), add_req->ucPtrnSize);
if (add_req->ucPtrnSize < 0 ||
add_req->ucPtrnSize > (PERIODIC_TX_PTRN_MAX_SIZE -
ETH_HLEN)) {
hddLog(LOGE, FL("Invalid IP packet len: %d"),
add_req->ucPtrnSize);
goto fail;
}
len = 0;
cdf_mem_copy(&add_req->ucPattern[0], dst_addr.bytes, CDF_MAC_ADDR_SIZE);
len += CDF_MAC_ADDR_SIZE;
cdf_mem_copy(&add_req->ucPattern[len], add_req->macAddress,
CDF_MAC_ADDR_SIZE);
len += CDF_MAC_ADDR_SIZE;
cdf_mem_copy(&add_req->ucPattern[len], &eth_type, 2);
len += 2;
/*
* This is the IP packet, add 14 bytes Ethernet (802.3) header
* ------------------------------------------------------------
* | 14 bytes Ethernet (802.3) header | IP header and payload |
* ------------------------------------------------------------
*/
cdf_mem_copy(&add_req->ucPattern[len],
nla_data(tb[PARAM_IP_PACKET]),
add_req->ucPtrnSize);
add_req->ucPtrnSize += len;
ret = hdd_map_req_id_to_pattern_id(hdd_ctx, request_id, &pattern_id);
if (ret) {
hddLog(LOGW, FL("req id to pattern id failed (ret=%d)"), ret);
goto fail;
}
add_req->ucPtrnId = pattern_id;
hddLog(LOG1, FL("pattern id: %d"), add_req->ucPtrnId);
status = sme_add_periodic_tx_ptrn(hdd_ctx->hHal, add_req);
if (!CDF_IS_STATUS_SUCCESS(status)) {
hddLog(LOGE,
FL("sme_add_periodic_tx_ptrn failed (err=%d)"), status);
goto fail;
}
EXIT();
cdf_mem_free(add_req);
return 0;
fail:
cdf_mem_free(add_req);
return -EINVAL;
}
/**
* wlan_hdd_del_tx_ptrn() - delete tx pattern
* @adapter: adapter pointer
* @hdd_ctx: hdd context
* @tb: nl attributes
*
* This function reads the NL attributes and forms a DelTxPtrn message
* posts it to SME.
*
*/
static int
wlan_hdd_del_tx_ptrn(hdd_adapter_t *adapter, hdd_context_t *hdd_ctx,
struct nlattr **tb)
{
struct sSirDelPeriodicTxPtrn *del_req;
CDF_STATUS status;
uint32_t request_id, ret;
uint8_t pattern_id = 0;
/* Parse and fetch request Id */
if (!tb[PARAM_REQUEST_ID]) {
hddLog(LOGE, FL("attr request id failed"));
return -EINVAL;
}
request_id = nla_get_u32(tb[PARAM_REQUEST_ID]);
if (request_id == MAX_REQUEST_ID) {
hddLog(LOGE, FL("request_id cannot be MAX"));
return -EINVAL;
}
ret = hdd_unmap_req_id_to_pattern_id(hdd_ctx, request_id, &pattern_id);
if (ret) {
hddLog(LOGW, FL("req id to pattern id failed (ret=%d)"), ret);
return -EINVAL;
}
del_req = cdf_mem_malloc(sizeof(*del_req));
if (!del_req) {
hddLog(LOGE, FL("memory allocation failed"));
return -ENOMEM;
}
cdf_mem_copy(del_req->macAddress, adapter->macAddressCurrent.bytes,
CDF_MAC_ADDR_SIZE);
hddLog(LOG1, MAC_ADDRESS_STR, MAC_ADDR_ARRAY(del_req->macAddress));
del_req->ucPtrnId = pattern_id;
hddLog(LOG1, FL("Request Id: %u Pattern id: %d"),
request_id, del_req->ucPtrnId);
status = sme_del_periodic_tx_ptrn(hdd_ctx->hHal, del_req);
if (!CDF_IS_STATUS_SUCCESS(status)) {
hddLog(LOGE,
FL("sme_del_periodic_tx_ptrn failed (err=%d)"), status);
goto fail;
}
EXIT();
cdf_mem_free(del_req);
return 0;
fail:
cdf_mem_free(del_req);
return -EINVAL;
}
/**
* __wlan_hdd_cfg80211_offloaded_packets() - send offloaded packets
* @wiphy: Pointer to wireless phy
* @wdev: Pointer to wireless device
* @data: Pointer to data
* @data_len: Data length
*
* Return: 0 on success, negative errno on failure
*/
static int
__wlan_hdd_cfg80211_offloaded_packets(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
struct net_device *dev = wdev->netdev;
hdd_adapter_t *adapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct nlattr *tb[PARAM_MAX + 1];
uint8_t control;
int ret;
static const struct nla_policy policy[PARAM_MAX + 1] = {
[PARAM_REQUEST_ID] = { .type = NLA_U32 },
[PARAM_CONTROL] = { .type = NLA_U32 },
[PARAM_SRC_MAC_ADDR] = { .type = NLA_BINARY,
.len = CDF_MAC_ADDR_SIZE },
[PARAM_DST_MAC_ADDR] = { .type = NLA_BINARY,
.len = CDF_MAC_ADDR_SIZE },
[PARAM_PERIOD] = { .type = NLA_U32 },
};
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hdd_err("Command not allowed in FTM mode");
return -EPERM;
}
ret = wlan_hdd_validate_context(hdd_ctx);
if (0 != ret) {
hddLog(LOGE, FL("HDD context is not valid"));
return ret;
}
if (!sme_is_feature_supported_by_fw(WLAN_PERIODIC_TX_PTRN)) {
hddLog(LOGE,
FL("Periodic Tx Pattern Offload feature is not supported in FW!"));
return -ENOTSUPP;
}
if (nla_parse(tb, PARAM_MAX, data, data_len, policy)) {
hddLog(LOGE, FL("Invalid ATTR"));
return -EINVAL;
}
if (!tb[PARAM_CONTROL]) {
hddLog(LOGE, FL("attr control failed"));
return -EINVAL;
}
control = nla_get_u32(tb[PARAM_CONTROL]);
hddLog(LOG1, FL("Control: %d"), control);
if (control == WLAN_START_OFFLOADED_PACKETS)
return wlan_hdd_add_tx_ptrn(adapter, hdd_ctx, tb);
else if (control == WLAN_STOP_OFFLOADED_PACKETS)
return wlan_hdd_del_tx_ptrn(adapter, hdd_ctx, tb);
else {
hddLog(LOGE, FL("Invalid control: %d"), control);
return -EINVAL;
}
}
/*
* done with short names for the global vendor params
* used by __wlan_hdd_cfg80211_offloaded_packets()
*/
#undef PARAM_MAX
#undef PARAM_REQUEST_ID
#undef PARAM_CONTROL
#undef PARAM_IP_PACKET
#undef PARAM_SRC_MAC_ADDR
#undef PARAM_DST_MAC_ADDR
#undef PARAM_PERIOD
/**
* wlan_hdd_cfg80211_offloaded_packets() - Wrapper to offload packets
* @wiphy: wiphy structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of @data
*
* Return: 0 on success; errno on failure
*/
static int wlan_hdd_cfg80211_offloaded_packets(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_offloaded_packets(wiphy,
wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
#endif
/*
* define short names for the global vendor params
* used by __wlan_hdd_cfg80211_monitor_rssi()
*/
#define PARAM_MAX QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_MAX
#define PARAM_REQUEST_ID QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_REQUEST_ID
#define PARAM_CONTROL QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_CONTROL
#define PARAM_MIN_RSSI QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_MIN_RSSI
#define PARAM_MAX_RSSI QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_MAX_RSSI
/**
* __wlan_hdd_cfg80211_monitor_rssi() - monitor rssi
* @wiphy: Pointer to wireless phy
* @wdev: Pointer to wireless device
* @data: Pointer to data
* @data_len: Data length
*
* Return: 0 on success, negative errno on failure
*/
static int
__wlan_hdd_cfg80211_monitor_rssi(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
struct net_device *dev = wdev->netdev;
hdd_adapter_t *adapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
struct nlattr *tb[PARAM_MAX + 1];
struct rssi_monitor_req req;
CDF_STATUS status;
int ret;
uint32_t control;
static const struct nla_policy policy[PARAM_MAX + 1] = {
[PARAM_REQUEST_ID] = { .type = NLA_U32 },
[PARAM_CONTROL] = { .type = NLA_U32 },
[PARAM_MIN_RSSI] = { .type = NLA_S8 },
[PARAM_MAX_RSSI] = { .type = NLA_S8 },
};
ENTER();
ret = wlan_hdd_validate_context(hdd_ctx);
if (0 != ret) {
hddLog(LOGE, FL("HDD context is not valid"));
return -EINVAL;
}
if (!hdd_conn_is_connected(WLAN_HDD_GET_STATION_CTX_PTR(adapter))) {
hddLog(LOGE, FL("Not in Connected state!"));
return -ENOTSUPP;
}
if (nla_parse(tb, PARAM_MAX, data, data_len, policy)) {
hddLog(LOGE, FL("Invalid ATTR"));
return -EINVAL;
}
if (!tb[PARAM_REQUEST_ID]) {
hddLog(LOGE, FL("attr request id failed"));
return -EINVAL;
}
if (!tb[PARAM_CONTROL]) {
hddLog(LOGE, FL("attr control failed"));
return -EINVAL;
}
req.request_id = nla_get_u32(tb[PARAM_REQUEST_ID]);
req.session_id = adapter->sessionId;
control = nla_get_u32(tb[PARAM_CONTROL]);
if (control == QCA_WLAN_RSSI_MONITORING_START) {
req.control = true;
if (!tb[PARAM_MIN_RSSI]) {
hddLog(LOGE, FL("attr min rssi failed"));
return -EINVAL;
}
if (!tb[PARAM_MAX_RSSI]) {
hddLog(LOGE, FL("attr max rssi failed"));
return -EINVAL;
}
req.min_rssi = nla_get_s8(tb[PARAM_MIN_RSSI]);
req.max_rssi = nla_get_s8(tb[PARAM_MAX_RSSI]);
if (!(req.min_rssi < req.max_rssi)) {
hddLog(LOGW, FL("min_rssi: %d must be less than max_rssi: %d"),
req.min_rssi, req.max_rssi);
return -EINVAL;
}
hddLog(LOG1, FL("Min_rssi: %d Max_rssi: %d"),
req.min_rssi, req.max_rssi);
} else if (control == QCA_WLAN_RSSI_MONITORING_STOP)
req.control = false;
else {
hddLog(LOGE, FL("Invalid control cmd: %d"), control);
return -EINVAL;
}
hddLog(LOG1, FL("Request Id: %u Session_id: %d Control: %d"),
req.request_id, req.session_id, req.control);
status = sme_set_rssi_monitoring(hdd_ctx->hHal, &req);
if (!CDF_IS_STATUS_SUCCESS(status)) {
hddLog(LOGE,
FL("sme_set_rssi_monitoring failed(err=%d)"), status);
return -EINVAL;
}
return 0;
}
/*
* done with short names for the global vendor params
* used by __wlan_hdd_cfg80211_monitor_rssi()
*/
#undef PARAM_MAX
#undef PARAM_CONTROL
#undef PARAM_REQUEST_ID
#undef PARAM_MAX_RSSI
#undef PARAM_MIN_RSSI
/**
* wlan_hdd_cfg80211_monitor_rssi() - SSR wrapper to rssi monitoring
* @wiphy: wiphy structure pointer
* @wdev: Wireless device structure pointer
* @data: Pointer to the data received
* @data_len: Length of @data
*
* Return: 0 on success; errno on failure
*/
static int
wlan_hdd_cfg80211_monitor_rssi(struct wiphy *wiphy, struct wireless_dev *wdev,
const void *data, int data_len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_monitor_rssi(wiphy, wdev, data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* hdd_rssi_threshold_breached() - rssi breached NL event
* @hddctx: HDD context
* @data: rssi breached event data
*
* This function reads the rssi breached event %data and fill in the skb with
* NL attributes and send up the NL event.
*
* Return: none
*/
void hdd_rssi_threshold_breached(void *hddctx,
struct rssi_breach_event *data)
{
hdd_context_t *hdd_ctx = hddctx;
struct sk_buff *skb;
ENTER();
if (wlan_hdd_validate_context(hdd_ctx) || !data) {
hddLog(LOGE, FL("HDD context is invalid or data(%p) is null"),
data);
return;
}
skb = cfg80211_vendor_event_alloc(hdd_ctx->wiphy,
NULL,
EXTSCAN_EVENT_BUF_SIZE + NLMSG_HDRLEN,
QCA_NL80211_VENDOR_SUBCMD_MONITOR_RSSI_INDEX,
GFP_KERNEL);
if (!skb) {
hddLog(LOGE, FL("cfg80211_vendor_event_alloc failed"));
return;
}
hddLog(LOG1, "Req Id: %u Current rssi: %d",
data->request_id, data->curr_rssi);
hddLog(LOG1, "Current BSSID: "MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(data->curr_bssid.bytes));
if (nla_put_u32(skb, QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_REQUEST_ID,
data->request_id) ||
nla_put(skb, QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_CUR_BSSID,
sizeof(data->curr_bssid), data->curr_bssid.bytes) ||
nla_put_s8(skb, QCA_WLAN_VENDOR_ATTR_RSSI_MONITORING_CUR_RSSI,
data->curr_rssi)) {
hddLog(LOGE, FL("nla put fail"));
goto fail;
}
cfg80211_vendor_event(skb, GFP_KERNEL);
return;
fail:
kfree_skb(skb);
return;
}
/** __wlan_hdd_cfg80211_get_preferred_freq_list() - get preferred frequency list
* @wiphy: Pointer to wireless phy
* @wdev: Pointer to wireless device
* @data: Pointer to data
* @data_len: Data length
*
* This function return the preferred frequency list generated by the policy
* manager.
*
* Return: success or failure code
*/
static int __wlan_hdd_cfg80211_get_preferred_freq_list(struct wiphy *wiphy,
struct wireless_dev
*wdev, const void *data,
int data_len)
{
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
int i, ret = 0;
CDF_STATUS status;
uint8_t pcl[MAX_NUM_CHAN];
uint32_t pcl_len = 0;
uint32_t freq_list[MAX_NUM_CHAN];
enum cds_con_mode intf_mode;
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_GET_PREFERRED_FREQ_LIST_MAX + 1];
struct sk_buff *reply_skb;
ret = wlan_hdd_validate_context(hdd_ctx);
if (ret)
return -EINVAL;
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_GET_PREFERRED_FREQ_LIST_MAX,
data, data_len, NULL)) {
hdd_err("Invalid ATTR");
return -EINVAL;
}
if (!tb[QCA_WLAN_VENDOR_ATTR_GET_PREFERRED_FREQ_LIST_IFACE_TYPE]) {
hdd_err("attr interface type failed");
return -EINVAL;
}
intf_mode = nla_get_u32(tb
[QCA_WLAN_VENDOR_ATTR_GET_PREFERRED_FREQ_LIST_IFACE_TYPE]);
if (intf_mode < CDS_STA_MODE || intf_mode >= CDS_MAX_NUM_OF_MODE) {
hdd_err("Invalid interface type");
return -EINVAL;
}
hdd_debug("Userspace requested pref freq list");
status = cds_get_pcl(hdd_ctx, intf_mode, pcl, &pcl_len);
if (status != CDF_STATUS_SUCCESS) {
hdd_err("Get pcl failed");
return -EINVAL;
}
/* convert channel number to frequency */
for (i = 0; i < pcl_len; i++) {
if (pcl[i] <= ARRAY_SIZE(hdd_channels_2_4_ghz))
freq_list[i] =
ieee80211_channel_to_frequency(pcl[i],
IEEE80211_BAND_2GHZ);
else
freq_list[i] =
ieee80211_channel_to_frequency(pcl[i],
IEEE80211_BAND_5GHZ);
}
/* send the freq_list back to supplicant */
reply_skb = cfg80211_vendor_cmd_alloc_reply_skb(wiphy, sizeof(u32) +
sizeof(u32) *
pcl_len +
NLMSG_HDRLEN);
if (!reply_skb) {
hdd_err("Allocate reply_skb failed");
return -EINVAL;
}
if (nla_put_u32(reply_skb,
QCA_WLAN_VENDOR_ATTR_GET_PREFERRED_FREQ_LIST_IFACE_TYPE,
intf_mode) ||
nla_put(reply_skb,
QCA_WLAN_VENDOR_ATTR_GET_PREFERRED_FREQ_LIST,
sizeof(uint32_t) * pcl_len,
freq_list)) {
hdd_err("nla put fail");
kfree_skb(reply_skb);
return -EINVAL;
}
return cfg80211_vendor_cmd_reply(reply_skb);
}
/** wlan_hdd_cfg80211_get_preferred_freq_list () - get preferred frequency list
* @wiphy: Pointer to wireless phy
* @wdev: Pointer to wireless device
* @data: Pointer to data
* @data_len: Data length
*
* This function return the preferred frequency list generated by the policy
* manager.
*
* Return: success or failure code
*/
static int wlan_hdd_cfg80211_get_preferred_freq_list(struct wiphy *wiphy,
struct wireless_dev
*wdev, const void *data,
int data_len)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_get_preferred_freq_list(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_set_probable_oper_channel () - set probable channel
* @wiphy: Pointer to wireless phy
* @wdev: Pointer to wireless device
* @data: Pointer to data
* @data_len: Data length
*
* Return: 0 on success, negative errno on failure
*/
static int __wlan_hdd_cfg80211_set_probable_oper_channel(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
int ret = 0;
enum cds_con_mode intf_mode;
struct nlattr *tb[QCA_WLAN_VENDOR_ATTR_GET_PREFERRED_FREQ_LIST_MAX + 1];
uint32_t channel_hint;
p_cds_contextType p_cds_context;
ret = wlan_hdd_validate_context(hdd_ctx);
if (ret)
return ret;
p_cds_context = cds_get_global_context();
if (!p_cds_context) {
hdd_err("Invalid CDS context");
return -EINVAL;
}
if (nla_parse(tb, QCA_WLAN_VENDOR_ATTR_PROBABLE_OPER_CHANNEL_MAX,
data, data_len, NULL)) {
hdd_err("Invalid ATTR");
return -EINVAL;
}
if (!tb[QCA_WLAN_VENDOR_ATTR_PROBABLE_OPER_CHANNEL_IFACE_TYPE]) {
hdd_err("attr interface type failed");
return -EINVAL;
}
intf_mode = nla_get_u32(tb
[QCA_WLAN_VENDOR_ATTR_PROBABLE_OPER_CHANNEL_IFACE_TYPE]);
if (intf_mode < CDS_STA_MODE || intf_mode >= CDS_MAX_NUM_OF_MODE) {
hdd_err("Invalid interface type");
return -EINVAL;
}
if (!tb[QCA_WLAN_VENDOR_ATTR_PROBABLE_OPER_CHANNEL_FREQ]) {
hdd_err("attr probable freq failed");
return -EINVAL;
}
channel_hint = cds_freq_to_chan(nla_get_u32(tb
[QCA_WLAN_VENDOR_ATTR_PROBABLE_OPER_CHANNEL_FREQ]));
/* check pcl table */
if (!cds_allow_concurrency(hdd_ctx, intf_mode,
channel_hint, HW_MODE_20_MHZ)) {
hdd_err("Set channel hint failed due to concurrency check");
return -EINVAL;
}
if (hdd_ctx->config->policy_manager_enabled) {
ret = cdf_event_reset(
&p_cds_context->connection_update_done_evt);
if (!CDF_IS_STATUS_SUCCESS(ret))
hdd_err("clearing event failed");
ret = cds_current_connections_update(hdd_ctx,
channel_hint);
if (CDF_STATUS_E_FAILURE == ret) {
/* return in the failure case */
hdd_err("ERROR: connections update failed!!");
return -EINVAL;
}
if (CDF_STATUS_SUCCESS == ret) {
/*
* Success is the only case for which we expect hw mode
* change to take place, hence we need to wait.
* For any other return value it should be a pass
* through
*/
ret = cdf_wait_single_event(
&p_cds_context->connection_update_done_evt,
CONNECTION_UPDATE_TIMEOUT);
if (!CDF_IS_STATUS_SUCCESS(ret)) {
hdd_err("ERROR: cdf wait for event failed!!");
return -EINVAL;
}
}
}
return 0;
}
/**
* wlan_hdd_cfg80211_set_probable_oper_channel () - set probable channel
* @wiphy: Pointer to wireless phy
* @wdev: Pointer to wireless device
* @data: Pointer to data
* @data_len: Data length
*
* Return: 0 on success, negative errno on failure
*/
static int wlan_hdd_cfg80211_set_probable_oper_channel(struct wiphy *wiphy,
struct wireless_dev *wdev,
const void *data,
int data_len)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_probable_oper_channel(wiphy, wdev,
data, data_len);
cds_ssr_unprotect(__func__);
return ret;
}
const struct wiphy_vendor_command hdd_wiphy_vendor_commands[] = {
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_DFS_CAPABILITY,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = is_driver_dfs_capable
},
#ifdef WLAN_FEATURE_NAN
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_NAN,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_nan_request
},
#endif
#ifdef WLAN_FEATURE_STATS_EXT
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_STATS_EXT,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_stats_ext_request
},
#endif
#ifdef FEATURE_WLAN_EXTSCAN
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_START,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_start
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_STOP,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_stop
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_GET_VALID_CHANNELS,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV | WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_extscan_get_valid_channels
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_GET_CAPABILITIES,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_get_capabilities
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_GET_CACHED_RESULTS,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_get_cached_results
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_BSSID_HOTLIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_set_bssid_hotlist
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_BSSID_HOTLIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_reset_bssid_hotlist
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_SIGNIFICANT_CHANGE,
.flags =
WIPHY_VENDOR_CMD_NEED_WDEV | WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_set_significant_change
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd =
QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_SIGNIFICANT_CHANGE,
.flags =
WIPHY_VENDOR_CMD_NEED_WDEV | WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_reset_significant_change
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_PNO_SET_LIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_set_epno_list
},
#endif /* FEATURE_WLAN_EXTSCAN */
#ifdef WLAN_FEATURE_LINK_LAYER_STATS
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_LL_STATS_CLR,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ll_stats_clear
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_LL_STATS_SET,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ll_stats_set
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_LL_STATS_GET,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ll_stats_get
},
#endif /* WLAN_FEATURE_LINK_LAYER_STATS */
#ifdef FEATURE_WLAN_TDLS
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_TDLS_ENABLE,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_exttdls_enable
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_TDLS_DISABLE,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV | WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_exttdls_disable
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_TDLS_GET_STATUS,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV | WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_exttdls_get_status
},
#endif
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_GET_SUPPORTED_FEATURES,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV | WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_get_supported_features
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_SCANNING_MAC_OUI,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV | WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_set_scanning_mac_oui
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_GET_CONCURRENCY_MATRIX,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV | WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = cds_cfg80211_get_concurrency_matrix
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_NO_DFS_FLAG,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_disable_dfs_chan_scan
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_DO_ACS,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_do_acs
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_GET_FEATURES,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_get_features
},
#ifdef WLAN_FEATURE_ROAM_OFFLOAD
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_KEY_MGMT_SET_KEY,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_keymgmt_set_key
},
#endif
#ifdef FEATURE_WLAN_EXTSCAN
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_PNO_SET_PASSPOINT_LIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_set_passpoint_list
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_PNO_RESET_PASSPOINT_LIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_reset_passpoint_list
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_SET_SSID_HOTLIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_set_ssid_hotlist
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_EXTSCAN_RESET_SSID_HOTLIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_extscan_reset_ssid_hotlist
},
#endif /* FEATURE_WLAN_EXTSCAN */
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_GET_WIFI_INFO,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_get_wifi_info
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_SET_WIFI_CONFIGURATION,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_wifi_configuration_set
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_ROAM,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_set_ext_roam_params
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_WIFI_LOGGER_START,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_wifi_logger_start
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_GET_RING_DATA,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV,
.doit = wlan_hdd_cfg80211_wifi_logger_get_ring_data
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd =
QCA_NL80211_VENDOR_SUBCMD_GET_PREFERRED_FREQ_LIST,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_get_preferred_freq_list
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd =
QCA_NL80211_VENDOR_SUBCMD_SET_PROBABLE_OPER_CHANNEL,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_set_probable_oper_channel
},
#ifdef FEATURE_WLAN_TDLS
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_TDLS_GET_CAPABILITIES,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_get_tdls_capabilities
},
#endif
#ifdef WLAN_FEATURE_OFFLOAD_PACKETS
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_OFFLOADED_PACKETS,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_offloaded_packets
},
#endif
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_MONITOR_RSSI,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_monitor_rssi
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_GET_LOGGER_FEATURE_SET,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_get_logger_supp_feature
},
#ifdef WLAN_FEATURE_MEMDUMP
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_WIFI_LOGGER_MEMORY_DUMP,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_get_fw_mem_dump
},
#endif /* WLAN_FEATURE_MEMDUMP */
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_TRIGGER_SCAN,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_vendor_scan
},
/* OCB commands */
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_OCB_SET_CONFIG,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ocb_set_config
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_OCB_SET_UTC_TIME,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ocb_set_utc_time
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd =
QCA_NL80211_VENDOR_SUBCMD_OCB_START_TIMING_ADVERT,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ocb_start_timing_advert
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_OCB_STOP_TIMING_ADVERT,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ocb_stop_timing_advert
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_OCB_GET_TSF_TIMER,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_ocb_get_tsf_timer
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_DCC_GET_STATS,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_dcc_get_stats
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_DCC_CLEAR_STATS,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_dcc_clear_stats
},
{
.info.vendor_id = QCA_NL80211_VENDOR_ID,
.info.subcmd = QCA_NL80211_VENDOR_SUBCMD_DCC_UPDATE_NDL,
.flags = WIPHY_VENDOR_CMD_NEED_WDEV |
WIPHY_VENDOR_CMD_NEED_NETDEV |
WIPHY_VENDOR_CMD_NEED_RUNNING,
.doit = wlan_hdd_cfg80211_dcc_update_ndl
},
};
/*
* FUNCTION: wlan_hdd_cfg80211_wiphy_alloc
* This function is called by hdd_wlan_startup()
* during initialization.
* This function is used to allocate wiphy structure.
*/
struct wiphy *wlan_hdd_cfg80211_wiphy_alloc(int priv_size)
{
struct wiphy *wiphy;
ENTER();
/*
* Create wiphy device
*/
wiphy = wiphy_new(&wlan_hdd_cfg80211_ops, priv_size);
if (!wiphy) {
/* Print error and jump into err label and free the memory */
hddLog(CDF_TRACE_LEVEL_ERROR, "%s: wiphy init failed",
__func__);
return NULL;
}
return wiphy;
}
/*
* FUNCTION: wlan_hdd_cfg80211_update_band
* This function is called from the supplicant through a
* private ioctl to change the band value
*/
int wlan_hdd_cfg80211_update_band(struct wiphy *wiphy, eCsrBand eBand)
{
int i, j;
CHANNEL_STATE channelEnabledState;
ENTER();
for (i = 0; i < IEEE80211_NUM_BANDS; i++) {
if (NULL == wiphy->bands[i]) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: wiphy->bands[i] is NULL, i = %d", __func__,
i);
continue;
}
for (j = 0; j < wiphy->bands[i]->n_channels; j++) {
struct ieee80211_supported_band *band = wiphy->bands[i];
channelEnabledState =
cds_get_channel_state(band->channels[j].
hw_value);
if (IEEE80211_BAND_2GHZ == i && eCSR_BAND_5G == eBand) {
/* 5G only */
#ifdef WLAN_ENABLE_SOCIAL_CHANNELS_5G_ONLY
/* Enable Social channels for P2P */
if (WLAN_HDD_IS_SOCIAL_CHANNEL
(band->channels[j].center_freq)
&& CHANNEL_STATE_ENABLE ==
channelEnabledState)
band->channels[j].flags &=
~IEEE80211_CHAN_DISABLED;
else
#endif
band->channels[j].flags |=
IEEE80211_CHAN_DISABLED;
continue;
} else if (IEEE80211_BAND_5GHZ == i &&
eCSR_BAND_24 == eBand) {
/* 2G only */
band->channels[j].flags |=
IEEE80211_CHAN_DISABLED;
continue;
}
if (CHANNEL_STATE_DISABLE == channelEnabledState ||
CHANNEL_STATE_INVALID == channelEnabledState) {
band->channels[j].flags |=
IEEE80211_CHAN_DISABLED;
} else if (CHANNEL_STATE_DFS == channelEnabledState) {
band->channels[j].flags &=
~IEEE80211_CHAN_DISABLED;
band->channels[j].flags |= IEEE80211_CHAN_RADAR;
} else {
band->channels[j].flags &=
~(IEEE80211_CHAN_DISABLED |
IEEE80211_CHAN_RADAR);
}
}
}
return 0;
}
/*
* FUNCTION: wlan_hdd_cfg80211_init
* This function is called by hdd_wlan_startup()
* during initialization.
* This function is used to initialize and register wiphy structure.
*/
int wlan_hdd_cfg80211_init(struct device *dev,
struct wiphy *wiphy, struct hdd_config *pCfg)
{
int i, j;
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
ENTER();
/* Now bind the underlying wlan device with wiphy */
set_wiphy_dev(wiphy, dev);
wiphy->mgmt_stypes = wlan_hdd_txrx_stypes;
/* This will disable updating of NL channels from passive to
* active if a beacon is received on passive channel. */
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 14, 0))
wiphy->regulatory_flags |= REGULATORY_DISABLE_BEACON_HINTS;
#else
wiphy->flags |= WIPHY_FLAG_DISABLE_BEACON_HINTS;
#endif
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 4, 0))
wiphy->flags |= WIPHY_FLAG_HAVE_AP_SME
| WIPHY_FLAG_AP_PROBE_RESP_OFFLOAD
| WIPHY_FLAG_HAS_REMAIN_ON_CHANNEL
#ifdef FEATURE_WLAN_STA_4ADDR_SCHEME
| WIPHY_FLAG_4ADDR_STATION
#endif
| WIPHY_FLAG_OFFCHAN_TX;
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 14, 0))
wiphy->regulatory_flags = REGULATORY_COUNTRY_IE_IGNORE;
#else
wiphy->country_ie_pref = NL80211_COUNTRY_IE_IGNORE_CORE;
#endif
#endif
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 11, 0))
wiphy->wowlan = &wowlan_support_cfg80211_init;
#else
wiphy->wowlan.flags = WIPHY_WOWLAN_MAGIC_PKT;
wiphy->wowlan.n_patterns = WOWL_MAX_PTRNS_ALLOWED;
wiphy->wowlan.pattern_min_len = 1;
wiphy->wowlan.pattern_max_len = WOWL_PTRN_MAX_SIZE;
#endif
#if defined (WLAN_FEATURE_VOWIFI_11R) || defined (FEATURE_WLAN_ESE) || defined(FEATURE_WLAN_LFR)
if (pCfg->isFastTransitionEnabled
#ifdef FEATURE_WLAN_LFR
|| pCfg->isFastRoamIniFeatureEnabled
#endif
#ifdef FEATURE_WLAN_ESE
|| pCfg->isEseIniFeatureEnabled
#endif
) {
wiphy->flags |= WIPHY_FLAG_SUPPORTS_FW_ROAM;
}
#endif
#ifdef FEATURE_WLAN_TDLS
wiphy->flags |= WIPHY_FLAG_SUPPORTS_TDLS
| WIPHY_FLAG_TDLS_EXTERNAL_SETUP;
#endif
wiphy->features |= NL80211_FEATURE_HT_IBSS;
#ifdef FEATURE_WLAN_SCAN_PNO
if (pCfg->configPNOScanSupport) {
wiphy->flags |= WIPHY_FLAG_SUPPORTS_SCHED_SCAN;
wiphy->max_sched_scan_ssids = SIR_PNO_MAX_SUPP_NETWORKS;
wiphy->max_match_sets = SIR_PNO_MAX_SUPP_NETWORKS;
wiphy->max_sched_scan_ie_len = SIR_MAC_MAX_IE_LENGTH;
}
#endif /*FEATURE_WLAN_SCAN_PNO */
#if defined QCA_WIFI_FTM
if (cds_get_conparam() != CDF_FTM_MODE) {
#endif
/* even with WIPHY_FLAG_CUSTOM_REGULATORY,
driver can still register regulatory callback and
it will get regulatory settings in wiphy->band[], but
driver need to determine what to do with both
regulatory settings */
wiphy->reg_notifier = hdd_reg_notifier;
#if defined QCA_WIFI_FTM
}
#endif
wiphy->max_scan_ssids = MAX_SCAN_SSID;
wiphy->max_scan_ie_len = SIR_MAC_MAX_ADD_IE_LENGTH;
wiphy->max_acl_mac_addrs = MAX_ACL_MAC_ADDRESS;
/* Supports STATION & AD-HOC modes right now */
wiphy->interface_modes = BIT(NL80211_IFTYPE_STATION)
| BIT(NL80211_IFTYPE_ADHOC)
| BIT(NL80211_IFTYPE_P2P_CLIENT)
| BIT(NL80211_IFTYPE_P2P_GO)
| BIT(NL80211_IFTYPE_AP);
if (pCfg->advertiseConcurrentOperation) {
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 4, 0))
if (pCfg->enableMCC) {
int i;
for (i = 0; i < ARRAY_SIZE(wlan_hdd_iface_combination);
i++) {
if (!pCfg->allowMCCGODiffBI)
wlan_hdd_iface_combination[i].
beacon_int_infra_match = true;
}
}
wiphy->n_iface_combinations =
ARRAY_SIZE(wlan_hdd_iface_combination);
wiphy->iface_combinations = wlan_hdd_iface_combination;
#endif
}
/* Before registering we need to update the ht capabilitied based
* on ini values*/
if (!pCfg->ShortGI20MhzEnable) {
wlan_hdd_band_2_4_ghz.ht_cap.cap &= ~IEEE80211_HT_CAP_SGI_20;
wlan_hdd_band_5_ghz.ht_cap.cap &= ~IEEE80211_HT_CAP_SGI_20;
wlan_hdd_band_p2p_2_4_ghz.ht_cap.cap &=
~IEEE80211_HT_CAP_SGI_20;
}
if (!pCfg->ShortGI40MhzEnable) {
wlan_hdd_band_5_ghz.ht_cap.cap &= ~IEEE80211_HT_CAP_SGI_40;
}
if (!pCfg->nChannelBondingMode5GHz) {
wlan_hdd_band_5_ghz.ht_cap.cap &=
~IEEE80211_HT_CAP_SUP_WIDTH_20_40;
}
wiphy->bands[IEEE80211_BAND_2GHZ] = &wlan_hdd_band_2_4_ghz;
if (true == hdd_is_5g_supported(pHddCtx)) {
wiphy->bands[IEEE80211_BAND_5GHZ] = &wlan_hdd_band_5_ghz;
}
for (i = 0; i < IEEE80211_NUM_BANDS; i++) {
if (NULL == wiphy->bands[i]) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: wiphy->bands[i] is NULL, i = %d", __func__,
i);
continue;
}
for (j = 0; j < wiphy->bands[i]->n_channels; j++) {
struct ieee80211_supported_band *band = wiphy->bands[i];
if (IEEE80211_BAND_2GHZ == i &&
eCSR_BAND_5G == pCfg->nBandCapability) {
/* 5G only */
#ifdef WLAN_ENABLE_SOCIAL_CHANNELS_5G_ONLY
/* Enable social channels for P2P */
if (WLAN_HDD_IS_SOCIAL_CHANNEL
(band->channels[j].center_freq))
band->channels[j].flags &=
~IEEE80211_CHAN_DISABLED;
else
#endif
band->channels[j].flags |=
IEEE80211_CHAN_DISABLED;
continue;
} else if (IEEE80211_BAND_5GHZ == i &&
eCSR_BAND_24 == pCfg->nBandCapability) {
/* 2G only */
band->channels[j].flags |=
IEEE80211_CHAN_DISABLED;
continue;
}
}
}
/*Initialise the supported cipher suite details */
wiphy->cipher_suites = hdd_cipher_suites;
wiphy->n_cipher_suites = ARRAY_SIZE(hdd_cipher_suites);
/*signal strength in mBm (100*dBm) */
wiphy->signal_type = CFG80211_SIGNAL_TYPE_MBM;
wiphy->max_remain_on_channel_duration = MAX_REMAIN_ON_CHANNEL_DURATION;
if (cds_get_conparam() != CDF_FTM_MODE) {
wiphy->n_vendor_commands =
ARRAY_SIZE(hdd_wiphy_vendor_commands);
wiphy->vendor_commands = hdd_wiphy_vendor_commands;
wiphy->vendor_events = wlan_hdd_cfg80211_vendor_events;
wiphy->n_vendor_events =
ARRAY_SIZE(wlan_hdd_cfg80211_vendor_events);
}
#if (LINUX_VERSION_CODE > KERNEL_VERSION(3, 4, 0))
if (pCfg->enableDFSMasterCap) {
wiphy->flags |= WIPHY_FLAG_DFS_OFFLOAD;
}
#endif
wiphy->max_ap_assoc_sta = pCfg->maxNumberOfPeers;
#ifdef QCA_HT_2040_COEX
wiphy->features |= NL80211_FEATURE_AP_MODE_CHAN_WIDTH_CHANGE;
#endif
EXIT();
return 0;
}
/*
* In this function, wiphy structure is updated after CDF
* initialization. In wlan_hdd_cfg80211_init, only the
* default values will be initialized. The final initialization
* of all required members can be done here.
*/
void wlan_hdd_update_wiphy(struct wiphy *wiphy, struct hdd_config *pCfg)
{
wiphy->max_ap_assoc_sta = pCfg->maxNumberOfPeers;
}
/* In this function we are registering wiphy. */
int wlan_hdd_cfg80211_register(struct wiphy *wiphy)
{
ENTER();
/* Register our wiphy dev with cfg80211 */
if (0 > wiphy_register(wiphy)) {
/* print error */
hddLog(CDF_TRACE_LEVEL_ERROR, "%s: wiphy register failed",
__func__);
return -EIO;
}
EXIT();
return 0;
}
/*
HDD function to update wiphy capability based on target offload status.
wlan_hdd_cfg80211_init() does initialization of all wiphy related
capability even before downloading firmware to the target. In discrete
case, host will get know certain offload capability (say sched_scan
caps) only after downloading firmware to the target and target boots up.
This function is used to override setting done in wlan_hdd_cfg80211_init()
based on target capability.
*/
void wlan_hdd_cfg80211_update_wiphy_caps(struct wiphy *wiphy)
{
#ifdef FEATURE_WLAN_SCAN_PNO
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
struct hdd_config *pCfg = pHddCtx->config;
/* wlan_hdd_cfg80211_init() sets sched_scan caps already in wiphy before
* control comes here. Here just we need to clear it if firmware doesn't
* have PNO support. */
if (!pCfg->PnoOffload) {
wiphy->flags &= ~WIPHY_FLAG_SUPPORTS_SCHED_SCAN;
wiphy->max_sched_scan_ssids = 0;
wiphy->max_match_sets = 0;
wiphy->max_sched_scan_ie_len = 0;
}
#endif
}
/* This function registers for all frame which supplicant is interested in */
void wlan_hdd_cfg80211_register_frames(hdd_adapter_t *pAdapter)
{
tHalHandle hHal = WLAN_HDD_GET_HAL_CTX(pAdapter);
/* Register for all P2P action, public action etc frames */
uint16_t type = (SIR_MAC_MGMT_FRAME << 2) | (SIR_MAC_MGMT_ACTION << 4);
ENTER();
/* Right now we are registering these frame when driver is getting
initialized. Once we will move to 2.6.37 kernel, in which we have
frame register ops, we will move this code as a part of that */
/* GAS Initial Request */
sme_register_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_INITIAL_REQ,
GAS_INITIAL_REQ_SIZE);
/* GAS Initial Response */
sme_register_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_INITIAL_RSP,
GAS_INITIAL_RSP_SIZE);
/* GAS Comeback Request */
sme_register_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_COMEBACK_REQ,
GAS_COMEBACK_REQ_SIZE);
/* GAS Comeback Response */
sme_register_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_COMEBACK_RSP,
GAS_COMEBACK_RSP_SIZE);
/* P2P Public Action */
sme_register_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) P2P_PUBLIC_ACTION_FRAME,
P2P_PUBLIC_ACTION_FRAME_SIZE);
/* P2P Action */
sme_register_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) P2P_ACTION_FRAME,
P2P_ACTION_FRAME_SIZE);
/* WNM BSS Transition Request frame */
sme_register_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) WNM_BSS_ACTION_FRAME,
WNM_BSS_ACTION_FRAME_SIZE);
/* WNM-Notification */
sme_register_mgmt_frame(hHal, pAdapter->sessionId, type,
(uint8_t *) WNM_NOTIFICATION_FRAME,
WNM_NOTIFICATION_FRAME_SIZE);
}
void wlan_hdd_cfg80211_deregister_frames(hdd_adapter_t *pAdapter)
{
tHalHandle hHal = WLAN_HDD_GET_HAL_CTX(pAdapter);
/* Register for all P2P action, public action etc frames */
uint16_t type = (SIR_MAC_MGMT_FRAME << 2) | (SIR_MAC_MGMT_ACTION << 4);
ENTER();
/* Right now we are registering these frame when driver is getting
initialized. Once we will move to 2.6.37 kernel, in which we have
frame register ops, we will move this code as a part of that */
/* GAS Initial Request */
sme_deregister_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_INITIAL_REQ,
GAS_INITIAL_REQ_SIZE);
/* GAS Initial Response */
sme_deregister_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_INITIAL_RSP,
GAS_INITIAL_RSP_SIZE);
/* GAS Comeback Request */
sme_deregister_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_COMEBACK_REQ,
GAS_COMEBACK_REQ_SIZE);
/* GAS Comeback Response */
sme_deregister_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) GAS_COMEBACK_RSP,
GAS_COMEBACK_RSP_SIZE);
/* P2P Public Action */
sme_deregister_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) P2P_PUBLIC_ACTION_FRAME,
P2P_PUBLIC_ACTION_FRAME_SIZE);
/* P2P Action */
sme_deregister_mgmt_frame(hHal, SME_SESSION_ID_ANY, type,
(uint8_t *) P2P_ACTION_FRAME,
P2P_ACTION_FRAME_SIZE);
/* WNM-Notification */
sme_deregister_mgmt_frame(hHal, pAdapter->sessionId, type,
(uint8_t *) WNM_NOTIFICATION_FRAME,
WNM_NOTIFICATION_FRAME_SIZE);
}
#ifdef FEATURE_WLAN_WAPI
void wlan_hdd_cfg80211_set_key_wapi(hdd_adapter_t *pAdapter, uint8_t key_index,
const uint8_t *mac_addr, const uint8_t *key,
int key_Len)
{
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
tCsrRoamSetKey setKey;
bool isConnected = true;
int status = 0;
uint32_t roamId = 0xFF;
uint8_t *pKeyPtr = NULL;
int n = 0;
hddLog(LOG1, "Device_mode %s(%d)",
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
cdf_mem_zero(&setKey, sizeof(tCsrRoamSetKey));
setKey.keyId = key_index; /* Store Key ID */
setKey.encType = eCSR_ENCRYPT_TYPE_WPI; /* SET WAPI Encryption */
setKey.keyDirection = eSIR_TX_RX; /* Key Directionn both TX and RX */
setKey.paeRole = 0; /* the PAE role */
if (!mac_addr || is_broadcast_ether_addr(mac_addr)) {
cdf_set_macaddr_broadcast(&setKey.peerMac);
} else {
cdf_mem_copy(setKey.peerMac.bytes, mac_addr, CDF_MAC_ADDR_SIZE);
}
setKey.keyLength = key_Len;
pKeyPtr = setKey.Key;
memcpy(pKeyPtr, key, key_Len);
hddLog(CDF_TRACE_LEVEL_INFO, "%s: WAPI KEY LENGTH:0x%04x",
__func__, key_Len);
for (n = 0; n < key_Len; n++)
hddLog(CDF_TRACE_LEVEL_INFO, "%s WAPI KEY Data[%d]:%02x ",
__func__, n, setKey.Key[n]);
pHddStaCtx->roam_info.roamingState = HDD_ROAM_STATE_SETTING_KEY;
if (isConnected) {
status = sme_roam_set_key(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, &setKey, &roamId);
}
if (status != 0) {
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_ERROR,
"[%4d] sme_roam_set_key returned ERROR status= %d",
__LINE__, status);
pHddStaCtx->roam_info.roamingState = HDD_ROAM_STATE_NONE;
}
}
#endif /* FEATURE_WLAN_WAPI */
uint8_t *wlan_hdd_cfg80211_get_ie_ptr(const uint8_t *ies_ptr, int length,
uint8_t eid)
{
int left = length;
uint8_t *ptr = (uint8_t *)ies_ptr;
uint8_t elem_id, elem_len;
while (left >= 2) {
elem_id = ptr[0];
elem_len = ptr[1];
left -= 2;
if (elem_len > left) {
hddLog(CDF_TRACE_LEVEL_FATAL,
FL("Invalid IEs eid = %d elem_len=%d left=%d"),
eid, elem_len, left);
return NULL;
}
if (elem_id == eid) {
return ptr;
}
left -= elem_len;
ptr += (elem_len + 2);
}
return NULL;
}
/*
* FUNCTION: wlan_hdd_validate_operation_channel
* called by wlan_hdd_cfg80211_start_bss() and
* wlan_hdd_set_channel()
* This function validates whether given channel is part of valid
* channel list.
*/
CDF_STATUS wlan_hdd_validate_operation_channel(hdd_adapter_t *pAdapter,
int channel)
{
uint32_t num_ch = 0;
u8 valid_ch[WNI_CFG_VALID_CHANNEL_LIST_LEN];
u32 indx = 0;
tHalHandle hHal = WLAN_HDD_GET_HAL_CTX(pAdapter);
uint8_t fValidChannel = false, count = 0;
struct hdd_config *hdd_pConfig_ini = (WLAN_HDD_GET_CTX(pAdapter))->config;
num_ch = WNI_CFG_VALID_CHANNEL_LIST_LEN;
if (hdd_pConfig_ini->sapAllowAllChannel) {
/* Validate the channel */
for (count = RF_CHAN_1; count <= RF_CHAN_165; count++) {
if (channel == rf_channels[count].channelNum) {
fValidChannel = true;
break;
}
}
if (fValidChannel != true) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: Invalid Channel [%d]", __func__, channel);
return CDF_STATUS_E_FAILURE;
}
} else {
if (0 != sme_cfg_get_str(hHal, WNI_CFG_VALID_CHANNEL_LIST,
valid_ch, &num_ch)) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: failed to get valid channel list",
__func__);
return CDF_STATUS_E_FAILURE;
}
for (indx = 0; indx < num_ch; indx++) {
if (channel == valid_ch[indx]) {
break;
}
}
if (indx >= num_ch) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: Invalid Channel [%d]", __func__, channel);
return CDF_STATUS_E_FAILURE;
}
}
return CDF_STATUS_SUCCESS;
}
#ifdef DHCP_SERVER_OFFLOAD
static void wlan_hdd_set_dhcp_server_offload(hdd_adapter_t *pHostapdAdapter)
{
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pHostapdAdapter);
tpSirDhcpSrvOffloadInfo pDhcpSrvInfo;
uint8_t numEntries = 0;
uint8_t srv_ip[IPADDR_NUM_ENTRIES];
uint8_t num;
uint32_t temp;
pDhcpSrvInfo = cdf_mem_malloc(sizeof(*pDhcpSrvInfo));
if (NULL == pDhcpSrvInfo) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: could not allocate tDhcpSrvOffloadInfo!", __func__);
return;
}
cdf_mem_zero(pDhcpSrvInfo, sizeof(*pDhcpSrvInfo));
pDhcpSrvInfo->vdev_id = pHostapdAdapter->sessionId;
pDhcpSrvInfo->dhcpSrvOffloadEnabled = true;
pDhcpSrvInfo->dhcpClientNum = pHddCtx->config->dhcpMaxNumClients;
hdd_string_to_u8_array(pHddCtx->config->dhcpServerIP,
srv_ip, &numEntries, IPADDR_NUM_ENTRIES);
if (numEntries != IPADDR_NUM_ENTRIES) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: incorrect IP address (%s) assigned for DHCP server!",
__func__, pHddCtx->config->dhcpServerIP);
goto end;
}
if ((srv_ip[0] >= 224) && (srv_ip[0] <= 239)) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: invalid IP address (%s)! It could NOT be multicast IP address!",
__func__, pHddCtx->config->dhcpServerIP);
goto end;
}
if (srv_ip[IPADDR_NUM_ENTRIES - 1] >= 100) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: invalid IP address (%s)! The last field must be less than 100!",
__func__, pHddCtx->config->dhcpServerIP);
goto end;
}
for (num = 0; num < numEntries; num++) {
temp = srv_ip[num];
pDhcpSrvInfo->dhcpSrvIP |= (temp << (8 * num));
}
if (CDF_STATUS_SUCCESS !=
sme_set_dhcp_srv_offload(pHddCtx->hHal, pDhcpSrvInfo)) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: sme_setDHCPSrvOffload fail!", __func__);
goto end;
}
hddLog(CDF_TRACE_LEVEL_INFO_HIGH,
"%s: enable DHCP Server offload successfully!", __func__);
end:
cdf_mem_free(pDhcpSrvInfo);
return;
}
#endif /* DHCP_SERVER_OFFLOAD */
static int __wlan_hdd_cfg80211_change_bss(struct wiphy *wiphy,
struct net_device *dev,
struct bss_parameters *params)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
int ret = 0;
CDF_STATUS cdf_ret_status;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_CHANGE_BSS,
pAdapter->sessionId, params->ap_isolate));
hddLog(LOG1, FL("Device_mode %s(%d), ap_isolate = %d"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode, params->ap_isolate);
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
ret = wlan_hdd_validate_context(pHddCtx);
if (0 != ret) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("HDD context is not valid"));
return ret;
}
if (!(pAdapter->device_mode == WLAN_HDD_SOFTAP ||
pAdapter->device_mode == WLAN_HDD_P2P_GO)) {
return -EOPNOTSUPP;
}
/* ap_isolate == -1 means that in change bss, upper layer doesn't
* want to update this parameter */
if (-1 != params->ap_isolate) {
pAdapter->sessionCtx.ap.apDisableIntraBssFwd =
!!params->ap_isolate;
cdf_ret_status = sme_ap_disable_intra_bss_fwd(pHddCtx->hHal,
pAdapter->sessionId,
pAdapter->sessionCtx.
ap.
apDisableIntraBssFwd);
if (!CDF_IS_STATUS_SUCCESS(cdf_ret_status)) {
ret = -EINVAL;
}
}
EXIT();
return ret;
}
static int
wlan_hdd_change_iface_to_adhoc(struct net_device *ndev,
tCsrRoamProfile *pRoamProfile,
enum nl80211_iftype type)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(ndev);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
struct hdd_config *pConfig = pHddCtx->config;
struct wireless_dev *wdev = ndev->ieee80211_ptr;
pRoamProfile->BSSType = eCSR_BSS_TYPE_START_IBSS;
pRoamProfile->phyMode =
hdd_cfg_xlate_to_csr_phy_mode(pConfig->dot11Mode);
pAdapter->device_mode = WLAN_HDD_IBSS;
wdev->iftype = type;
return 0;
}
static int wlan_hdd_change_iface_to_sta_mode(struct net_device *ndev,
enum nl80211_iftype type)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(ndev);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
hdd_wext_state_t *wext;
struct wireless_dev *wdev;
CDF_STATUS status;
ENTER();
if (test_bit(ACS_IN_PROGRESS, &pHddCtx->g_event_flags)) {
hddLog(LOG1, FL("ACS is in progress, don't change iface!"));
return 0;
}
wdev = ndev->ieee80211_ptr;
hdd_stop_adapter(pHddCtx, pAdapter, true);
hdd_deinit_adapter(pHddCtx, pAdapter, true);
wdev->iftype = type;
/*Check for sub-string p2p to confirm its a p2p interface */
if (NULL != strnstr(ndev->name, "p2p", 3)) {
pAdapter->device_mode =
(type == NL80211_IFTYPE_STATION) ?
WLAN_HDD_P2P_DEVICE : WLAN_HDD_P2P_CLIENT;
} else {
pAdapter->device_mode =
(type == NL80211_IFTYPE_STATION) ?
WLAN_HDD_INFRA_STATION : WLAN_HDD_P2P_CLIENT;
}
/* set con_mode to STA only when no SAP concurrency mode */
if (!(cds_get_concurrency_mode() & (CDF_SAP_MASK | CDF_P2P_GO_MASK)))
hdd_set_conparam(0);
memset(&pAdapter->sessionCtx, 0, sizeof(pAdapter->sessionCtx));
hdd_set_station_ops(pAdapter->dev);
status = hdd_init_station_mode(pAdapter);
wext = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
wext->roamProfile.pAddIEScan = pAdapter->scan_info.scanAddIE.addIEdata;
wext->roamProfile.nAddIEScanLength =
pAdapter->scan_info.scanAddIE.length;
EXIT();
return status;
}
static int wlan_hdd_cfg80211_change_bss(struct wiphy *wiphy,
struct net_device *dev,
struct bss_parameters *params)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_change_bss(wiphy, dev, params);
cds_ssr_unprotect(__func__);
return ret;
}
/* FUNCTION: wlan_hdd_change_country_code_cd
* to wait for contry code completion
*/
void *wlan_hdd_change_country_code_cb(void *pAdapter)
{
hdd_adapter_t *call_back_pAdapter = pAdapter;
complete(&call_back_pAdapter->change_country_code);
return NULL;
}
/*
* FUNCTION: __wlan_hdd_cfg80211_change_iface
* This function is used to set the interface type (INFRASTRUCTURE/ADHOC)
*/
static int __wlan_hdd_cfg80211_change_iface(struct wiphy *wiphy,
struct net_device *ndev,
enum nl80211_iftype type,
u32 *flags,
struct vif_params *params)
{
struct wireless_dev *wdev;
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(ndev);
hdd_context_t *pHddCtx;
tCsrRoamProfile *pRoamProfile = NULL;
eCsrRoamBssType LastBSSType;
struct hdd_config *pConfig = NULL;
eMib_dot11DesiredBssType connectedBssType;
unsigned long rc;
CDF_STATUS vstatus;
int status;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_CHANGE_IFACE,
pAdapter->sessionId, type));
hddLog(CDF_TRACE_LEVEL_INFO, FL("Device_mode = %d, IFTYPE = 0x%x"),
pAdapter->device_mode, type);
if (!cds_allow_concurrency(pHddCtx,
wlan_hdd_convert_nl_iftype_to_hdd_type(type),
0, HW_MODE_20_MHZ)) {
hddLog(CDF_TRACE_LEVEL_DEBUG,
FL("This concurrency combination is not allowed"));
return -EINVAL;
}
pConfig = pHddCtx->config;
wdev = ndev->ieee80211_ptr;
/* Reset the current device mode bit mask */
cds_clear_concurrency_mode(pHddCtx, pAdapter->device_mode);
hdd_tdls_notify_mode_change(pAdapter, pHddCtx);
if ((pAdapter->device_mode == WLAN_HDD_INFRA_STATION) ||
(pAdapter->device_mode == WLAN_HDD_P2P_CLIENT) ||
(pAdapter->device_mode == WLAN_HDD_P2P_DEVICE)) {
hdd_wext_state_t *pWextState =
WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
pRoamProfile = &pWextState->roamProfile;
LastBSSType = pRoamProfile->BSSType;
switch (type) {
case NL80211_IFTYPE_STATION:
case NL80211_IFTYPE_P2P_CLIENT:
vstatus = wlan_hdd_change_iface_to_sta_mode(ndev, type);
if (vstatus != CDF_STATUS_SUCCESS)
return -EINVAL;
hdd_register_tx_flow_control(pAdapter,
hdd_tx_resume_timer_expired_handler,
hdd_tx_resume_cb);
goto done;
case NL80211_IFTYPE_ADHOC:
wlan_hdd_tdls_exit(pAdapter);
hddLog(LOG1, FL("Setting interface Type to ADHOC"));
wlan_hdd_change_iface_to_adhoc(ndev, pRoamProfile,
type);
break;
case NL80211_IFTYPE_AP:
case NL80211_IFTYPE_P2P_GO:
{
hddLog(CDF_TRACE_LEVEL_INFO_HIGH,
FL("Setting interface Type to %s"),
(type ==
NL80211_IFTYPE_AP) ? "SoftAP" :
"P2pGo");
/* Cancel any remain on channel for GO mode */
if (NL80211_IFTYPE_P2P_GO == type) {
wlan_hdd_cancel_existing_remain_on_channel
(pAdapter);
}
if (NL80211_IFTYPE_AP == type) {
/* As Loading WLAN Driver one interface being created for
* p2p device address. This will take one HW STA and the
* max number of clients that can connect to softAP will be
* reduced by one. so while changing the interface type to
* NL80211_IFTYPE_AP (SoftAP) remove p2p0 interface as it is
* not required in SoftAP mode.
*/
/* Get P2P Adapter */
hdd_adapter_t *pP2pAdapter = NULL;
pP2pAdapter =
hdd_get_adapter(pHddCtx,
WLAN_HDD_P2P_DEVICE);
if (pP2pAdapter) {
hdd_stop_adapter(pHddCtx,
pP2pAdapter,
true);
hdd_deinit_adapter(pHddCtx,
pP2pAdapter, true);
hdd_close_adapter(pHddCtx,
pP2pAdapter,
true);
}
}
hdd_stop_adapter(pHddCtx, pAdapter, true);
/* De-init the adapter */
hdd_deinit_adapter(pHddCtx, pAdapter, true);
memset(&pAdapter->sessionCtx, 0,
sizeof(pAdapter->sessionCtx));
pAdapter->device_mode =
(type ==
NL80211_IFTYPE_AP) ? WLAN_HDD_SOFTAP :
WLAN_HDD_P2P_GO;
/*
* Fw will take care incase of concurrency
*/
if ((WLAN_HDD_SOFTAP == pAdapter->device_mode)
&& (pConfig->apRandomBssidEnabled)) {
/* To meet Android requirements create a randomized
MAC address of the form 02:1A:11:Fx:xx:xx */
get_random_bytes(&ndev->dev_addr[3], 3);
ndev->dev_addr[0] = 0x02;
ndev->dev_addr[1] = 0x1A;
ndev->dev_addr[2] = 0x11;
ndev->dev_addr[3] |= 0xF0;
memcpy(pAdapter->macAddressCurrent.
bytes, ndev->dev_addr,
CDF_MAC_ADDR_SIZE);
pr_info("wlan: Generated HotSpot BSSID "
MAC_ADDRESS_STR "\n",
MAC_ADDR_ARRAY(ndev->dev_addr));
}
hdd_set_ap_ops(pAdapter->dev);
vstatus = hdd_init_ap_mode(pAdapter);
if (vstatus != CDF_STATUS_SUCCESS) {
hddLog(LOGP,
FL
("Error initializing the ap mode"));
return -EINVAL;
}
hdd_set_conparam(1);
hdd_register_tx_flow_control(pAdapter,
hdd_softap_tx_resume_timer_expired_handler,
hdd_softap_tx_resume_cb);
/* Interface type changed update in wiphy structure */
if (wdev) {
wdev->iftype = type;
} else {
hddLog(LOGE,
FL("Wireless dev is NULL"));
return -EINVAL;
}
goto done;
}
default:
hddLog(LOGE, FL("Unsupported interface type (%d)"),
type);
return -EOPNOTSUPP;
}
} else if ((pAdapter->device_mode == WLAN_HDD_SOFTAP) ||
(pAdapter->device_mode == WLAN_HDD_P2P_GO)) {
switch (type) {
case NL80211_IFTYPE_STATION:
case NL80211_IFTYPE_P2P_CLIENT:
case NL80211_IFTYPE_ADHOC:
status = wlan_hdd_change_iface_to_sta_mode(ndev, type);
if (status != CDF_STATUS_SUCCESS)
return status;
if ((NL80211_IFTYPE_P2P_CLIENT == type) ||
(NL80211_IFTYPE_STATION == type)) {
hdd_register_tx_flow_control(pAdapter,
hdd_tx_resume_timer_expired_handler,
hdd_tx_resume_cb);
}
goto done;
case NL80211_IFTYPE_AP:
case NL80211_IFTYPE_P2P_GO:
wdev->iftype = type;
pAdapter->device_mode = (type == NL80211_IFTYPE_AP) ?
WLAN_HDD_SOFTAP : WLAN_HDD_P2P_GO;
hdd_register_tx_flow_control(pAdapter,
hdd_softap_tx_resume_timer_expired_handler,
hdd_softap_tx_resume_cb);
goto done;
default:
hddLog(LOGE, FL("Unsupported interface type(%d)"),
type);
return -EOPNOTSUPP;
}
} else {
hddLog(LOGE, FL("Unsupported device mode(%d)"),
pAdapter->device_mode);
return -EOPNOTSUPP;
}
if (LastBSSType != pRoamProfile->BSSType) {
/* Interface type changed update in wiphy structure */
wdev->iftype = type;
/* The BSS mode changed, We need to issue disconnect
if connected or in IBSS disconnect state */
if (hdd_conn_get_connected_bss_type
(WLAN_HDD_GET_STATION_CTX_PTR(pAdapter), &connectedBssType)
|| (eCSR_BSS_TYPE_START_IBSS == LastBSSType)) {
/* Need to issue a disconnect to CSR. */
INIT_COMPLETION(pAdapter->disconnect_comp_var);
if (CDF_STATUS_SUCCESS ==
sme_roam_disconnect(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId,
eCSR_DISCONNECT_REASON_UNSPECIFIED)) {
rc = wait_for_completion_timeout(&pAdapter->
disconnect_comp_var,
msecs_to_jiffies
(WLAN_WAIT_TIME_DISCONNECT));
if (!rc) {
hddLog(LOGE,
FL
("Wait on disconnect_comp_var failed"));
}
}
}
}
done:
/* Set bitmask based on updated value */
cds_set_concurrency_mode(pHddCtx, pAdapter->device_mode);
#ifdef WLAN_FEATURE_LPSS
wlan_hdd_send_all_scan_intf_info(pHddCtx);
#endif
EXIT();
return 0;
}
/*
* FUNCTION: wlan_hdd_cfg80211_change_iface
* wrapper function to protect the actual implementation from SSR.
*/
static int wlan_hdd_cfg80211_change_iface(struct wiphy *wiphy,
struct net_device *ndev,
enum nl80211_iftype type,
u32 *flags,
struct vif_params *params)
{
int ret;
cds_ssr_protect(__func__);
ret =
__wlan_hdd_cfg80211_change_iface(wiphy, ndev, type, flags, params);
cds_ssr_unprotect(__func__);
return ret;
}
#ifdef FEATURE_WLAN_TDLS
static bool wlan_hdd_is_duplicate_channel(uint8_t *arr,
int index, uint8_t match)
{
int i;
for (i = 0; i < index; i++) {
if (arr[i] == match)
return true;
}
return false;
}
#endif
/**
* __wlan_hdd_change_station() - change station
* @wiphy: Pointer to the wiphy structure
* @dev: Pointer to the net device.
* @mac: bssid
* @params: Pointer to station parameters
*
* Return: 0 for success, error number on failure.
*/
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 16, 0))
static int __wlan_hdd_change_station(struct wiphy *wiphy,
struct net_device *dev,
const uint8_t *mac,
struct station_parameters *params)
#else
static int __wlan_hdd_change_station(struct wiphy *wiphy,
struct net_device *dev,
uint8_t *mac,
struct station_parameters *params)
#endif
{
CDF_STATUS status = CDF_STATUS_SUCCESS;
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx;
hdd_station_ctx_t *pHddStaCtx;
struct cdf_mac_addr STAMacAddress;
#ifdef FEATURE_WLAN_TDLS
tCsrStaParams StaParams = { 0 };
uint8_t isBufSta = 0;
uint8_t isOffChannelSupported = 0;
#endif
int ret;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CHANGE_STATION,
pAdapter->sessionId, params->listen_interval));
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
ret = wlan_hdd_validate_context(pHddCtx);
if (0 != ret) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("HDD context is not valid"));
return ret;
}
pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
cdf_mem_copy(STAMacAddress.bytes, mac, CDF_MAC_ADDR_SIZE);
if ((pAdapter->device_mode == WLAN_HDD_SOFTAP) ||
(pAdapter->device_mode == WLAN_HDD_P2P_GO)) {
if (params->sta_flags_set & BIT(NL80211_STA_FLAG_AUTHORIZED)) {
status =
hdd_softap_change_sta_state(pAdapter,
&STAMacAddress,
ol_txrx_peer_state_auth);
if (status != CDF_STATUS_SUCCESS) {
hddLog(CDF_TRACE_LEVEL_INFO,
FL
("Not able to change TL state to AUTHENTICATED"));
return -EINVAL;
}
}
} else if ((pAdapter->device_mode == WLAN_HDD_INFRA_STATION) ||
(pAdapter->device_mode == WLAN_HDD_P2P_CLIENT)) {
#ifdef FEATURE_WLAN_TDLS
if (params->sta_flags_set & BIT(NL80211_STA_FLAG_TDLS_PEER)) {
StaParams.capability = params->capability;
StaParams.uapsd_queues = params->uapsd_queues;
StaParams.max_sp = params->max_sp;
/* Convert (first channel , number of channels) tuple to
* the total list of channels. This goes with the assumption
* that if the first channel is < 14, then the next channels
* are an incremental of 1 else an incremental of 4 till the number
* of channels.
*/
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_INFO,
"%s: params->supported_channels_len: %d",
__func__, params->supported_channels_len);
if (0 != params->supported_channels_len) {
int i = 0, j = 0, k = 0, no_of_channels = 0;
int num_unique_channels;
int next;
for (i = 0;
i < params->supported_channels_len
&& j < SIR_MAC_MAX_SUPP_CHANNELS; i += 2) {
int wifi_chan_index;
if (!wlan_hdd_is_duplicate_channel
(StaParams.supported_channels, j,
params->supported_channels[i])) {
StaParams.
supported_channels[j] =
params->
supported_channels[i];
} else {
continue;
}
wifi_chan_index =
((StaParams.supported_channels[j] <=
HDD_CHANNEL_14) ? 1 : 4);
no_of_channels =
params->supported_channels[i + 1];
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"%s: i: %d, j: %d, k: %d, StaParams.supported_channels[%d]: %d, wifi_chan_index: %d, no_of_channels: %d",
__func__, i, j, k, j,
StaParams.
supported_channels[j],
wifi_chan_index,
no_of_channels);
for (k = 1; k <= no_of_channels &&
j < SIR_MAC_MAX_SUPP_CHANNELS - 1;
k++) {
next =
StaParams.
supported_channels[j] +
wifi_chan_index;
if (!wlan_hdd_is_duplicate_channel(StaParams.supported_channels, j + 1, next)) {
StaParams.
supported_channels[j
+
1]
= next;
} else {
continue;
}
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"%s: i: %d, j: %d, k: %d, StaParams.supported_channels[%d]: %d",
__func__, i, j, k,
j + 1,
StaParams.
supported_channels[j +
1]);
j += 1;
}
}
num_unique_channels = j + 1;
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"%s: Unique Channel List", __func__);
for (i = 0; i < num_unique_channels; i++) {
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"%s: StaParams.supported_channels[%d]: %d,",
__func__, i,
StaParams.
supported_channels[i]);
}
if (MAX_CHANNEL < num_unique_channels)
num_unique_channels = MAX_CHANNEL;
StaParams.supported_channels_len =
num_unique_channels;
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"%s: After removing duplcates StaParams.supported_channels_len: %d",
__func__,
StaParams.supported_channels_len);
}
cdf_mem_copy(StaParams.supported_oper_classes,
params->supported_oper_classes,
params->supported_oper_classes_len);
StaParams.supported_oper_classes_len =
params->supported_oper_classes_len;
if (0 != params->ext_capab_len)
cdf_mem_copy(StaParams.extn_capability,
params->ext_capab,
sizeof(StaParams.extn_capability));
if (NULL != params->ht_capa) {
StaParams.htcap_present = 1;
cdf_mem_copy(&StaParams.HTCap, params->ht_capa,
sizeof(tSirHTCap));
}
StaParams.supported_rates_len =
params->supported_rates_len;
/* Note : The Maximum sizeof supported_rates sent by the Supplicant is 32.
* The supported_rates array , for all the structures propogating till Add Sta
* to the firmware has to be modified , if the supplicant (ieee80211) is
* modified to send more rates.
*/
/* To avoid Data Currption , set to max length to SIR_MAC_MAX_SUPP_RATES
*/
if (StaParams.supported_rates_len >
SIR_MAC_MAX_SUPP_RATES)
StaParams.supported_rates_len =
SIR_MAC_MAX_SUPP_RATES;
if (0 != StaParams.supported_rates_len) {
int i = 0;
cdf_mem_copy(StaParams.supported_rates,
params->supported_rates,
StaParams.supported_rates_len);
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"Supported Rates with Length %d",
StaParams.supported_rates_len);
for (i = 0; i < StaParams.supported_rates_len;
i++)
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"[%d]: %0x", i,
StaParams.supported_rates[i]);
}
if (NULL != params->vht_capa) {
StaParams.vhtcap_present = 1;
cdf_mem_copy(&StaParams.VHTCap,
params->vht_capa,
sizeof(tSirVHTCap));
}
if (0 != params->ext_capab_len) {
/*Define A Macro : TODO Sunil */
if ((1 << 4) & StaParams.extn_capability[3]) {
isBufSta = 1;
}
/* TDLS Channel Switching Support */
if ((1 << 6) & StaParams.extn_capability[3]) {
isOffChannelSupported = 1;
}
}
status = wlan_hdd_tdls_set_peer_caps(pAdapter, mac,
&StaParams,
isBufSta,
isOffChannelSupported);
if (CDF_STATUS_SUCCESS != status) {
hddLog(CDF_TRACE_LEVEL_ERROR,
FL
("wlan_hdd_tdls_set_peer_caps failed!"));
return -EINVAL;
}
status =
wlan_hdd_tdls_add_station(wiphy, dev, mac, 1,
&StaParams);
if (CDF_STATUS_SUCCESS != status) {
hddLog(CDF_TRACE_LEVEL_ERROR,
FL("wlan_hdd_tdls_add_station failed!"));
return -EINVAL;
}
}
#endif
}
EXIT();
return ret;
}
/**
* wlan_hdd_change_station() - cfg80211 change station handler function
* @wiphy: Pointer to the wiphy structure
* @dev: Pointer to the net device.
* @mac: bssid
* @params: Pointer to station parameters
*
* This is the cfg80211 change station handler function which invokes
* the internal function @__wlan_hdd_change_station with
* SSR protection.
*
* Return: 0 for success, error number on failure.
*/
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 16, 0)) || defined(WITH_BACKPORTS)
static int wlan_hdd_change_station(struct wiphy *wiphy,
struct net_device *dev,
const u8 *mac,
struct station_parameters *params)
#else
static int wlan_hdd_change_station(struct wiphy *wiphy,
struct net_device *dev,
u8 *mac,
struct station_parameters *params)
#endif
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_change_station(wiphy, dev, mac, params);
cds_ssr_unprotect(__func__);
return ret;
}
/*
* FUNCTION: __wlan_hdd_cfg80211_add_key
* This function is used to initialize the key information
*/
static int __wlan_hdd_cfg80211_add_key(struct wiphy *wiphy,
struct net_device *ndev,
u8 key_index, bool pairwise,
const u8 *mac_addr,
struct key_params *params)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(ndev);
tCsrRoamSetKey setKey;
int status;
uint32_t roamId = 0xFF;
#ifndef WLAN_FEATURE_MBSSID
v_CONTEXT_t p_cds_context = (WLAN_HDD_GET_CTX(pAdapter))->pcds_context;
#endif
hdd_hostapd_state_t *pHostapdState;
CDF_STATUS cdf_ret_status;
hdd_context_t *pHddCtx;
hdd_ap_ctx_t *ap_ctx = WLAN_HDD_GET_AP_CTX_PTR(pAdapter);
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_ADD_KEY,
pAdapter->sessionId, params->key_len));
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_ERROR,
"%s: HDD context is not valid", __func__);
return status;
}
hddLog(LOG1, FL("Device_mode %s(%d)"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
if (CSR_MAX_NUM_KEY <= key_index) {
hddLog(CDF_TRACE_LEVEL_ERROR, "%s: Invalid key index %d",
__func__, key_index);
return -EINVAL;
}
if (CSR_MAX_KEY_LEN < params->key_len) {
hddLog(CDF_TRACE_LEVEL_ERROR, "%s: Invalid key length %d",
__func__, params->key_len);
return -EINVAL;
}
hddLog(CDF_TRACE_LEVEL_INFO,
"%s: called with key index = %d & key length %d",
__func__, key_index, params->key_len);
/*extract key idx, key len and key */
cdf_mem_zero(&setKey, sizeof(tCsrRoamSetKey));
setKey.keyId = key_index;
setKey.keyLength = params->key_len;
cdf_mem_copy(&setKey.Key[0], params->key, params->key_len);
switch (params->cipher) {
case WLAN_CIPHER_SUITE_WEP40:
setKey.encType = eCSR_ENCRYPT_TYPE_WEP40_STATICKEY;
break;
case WLAN_CIPHER_SUITE_WEP104:
setKey.encType = eCSR_ENCRYPT_TYPE_WEP104_STATICKEY;
break;
case WLAN_CIPHER_SUITE_TKIP:
{
u8 *pKey = &setKey.Key[0];
setKey.encType = eCSR_ENCRYPT_TYPE_TKIP;
cdf_mem_zero(pKey, CSR_MAX_KEY_LEN);
/*Supplicant sends the 32bytes key in this order
|--------------|----------|----------|
| Tk1 |TX-MIC | RX Mic |
|||--------------|----------|----------|
<---16bytes---><--8bytes--><--8bytes-->
*/
/*Sme expects the 32 bytes key to be in the below order
|--------------|----------|----------|
| Tk1 |RX-MIC | TX Mic |
|||--------------|----------|----------|
<---16bytes---><--8bytes--><--8bytes-->
*/
/* Copy the Temporal Key 1 (TK1) */
cdf_mem_copy(pKey, params->key, 16);
/*Copy the rx mic first */
cdf_mem_copy(&pKey[16], &params->key[24], 8);
/*Copy the tx mic */
cdf_mem_copy(&pKey[24], &params->key[16], 8);
break;
}
case WLAN_CIPHER_SUITE_CCMP:
setKey.encType = eCSR_ENCRYPT_TYPE_AES;
break;
#ifdef FEATURE_WLAN_WAPI
case WLAN_CIPHER_SUITE_SMS4:
{
cdf_mem_zero(&setKey, sizeof(tCsrRoamSetKey));
wlan_hdd_cfg80211_set_key_wapi(pAdapter, key_index,
mac_addr, params->key,
params->key_len);
return 0;
}
#endif
#ifdef FEATURE_WLAN_ESE
case WLAN_CIPHER_SUITE_KRK:
setKey.encType = eCSR_ENCRYPT_TYPE_KRK;
break;
#ifdef WLAN_FEATURE_ROAM_OFFLOAD
case WLAN_CIPHER_SUITE_BTK:
setKey.encType = eCSR_ENCRYPT_TYPE_BTK;
break;
#endif
#endif
#ifdef WLAN_FEATURE_11W
case WLAN_CIPHER_SUITE_AES_CMAC:
setKey.encType = eCSR_ENCRYPT_TYPE_AES_CMAC;
break;
#endif
default:
hddLog(CDF_TRACE_LEVEL_ERROR, "%s: unsupported cipher type %u",
__func__, params->cipher);
return -EOPNOTSUPP;
}
hddLog(CDF_TRACE_LEVEL_INFO_MED, "%s: encryption type %d",
__func__, setKey.encType);
if (!pairwise) {
/* set group key */
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_INFO,
"%s- %d: setting Broadcast key", __func__, __LINE__);
setKey.keyDirection = eSIR_RX_ONLY;
cdf_set_macaddr_broadcast(&setKey.peerMac);
} else {
/* set pairwise key */
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_INFO,
"%s- %d: setting pairwise key", __func__, __LINE__);
setKey.keyDirection = eSIR_TX_RX;
cdf_mem_copy(setKey.peerMac.bytes, mac_addr, CDF_MAC_ADDR_SIZE);
}
if ((WLAN_HDD_IBSS == pAdapter->device_mode) && !pairwise) {
/* if a key is already installed, block all subsequent ones */
if (pAdapter->sessionCtx.station.ibss_enc_key_installed) {
hddLog(CDF_TRACE_LEVEL_INFO_MED,
"%s: IBSS key installed already", __func__);
return 0;
}
setKey.keyDirection = eSIR_TX_RX;
/*Set the group key */
status = sme_roam_set_key(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, &setKey, &roamId);
if (0 != status) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: sme_roam_set_key failed, returned %d",
__func__, status);
return -EINVAL;
}
/*Save the keys here and call sme_roam_set_key for setting
the PTK after peer joins the IBSS network */
cdf_mem_copy(&pAdapter->sessionCtx.station.ibss_enc_key,
&setKey, sizeof(tCsrRoamSetKey));
pAdapter->sessionCtx.station.ibss_enc_key_installed = 1;
return status;
}
if ((pAdapter->device_mode == WLAN_HDD_SOFTAP) ||
(pAdapter->device_mode == WLAN_HDD_P2P_GO)) {
pHostapdState = WLAN_HDD_GET_HOSTAP_STATE_PTR(pAdapter);
if (pHostapdState->bssState == BSS_START) {
#ifdef WLAN_FEATURE_MBSSID
status =
wlansap_set_key_sta(WLAN_HDD_GET_SAP_CTX_PTR
(pAdapter), &setKey);
#else
status = wlansap_set_key_sta(p_cds_context, &setKey);
#endif
if (status != CDF_STATUS_SUCCESS) {
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_ERROR,
"[%4d] wlansap_set_key_sta returned ERROR status= %d",
__LINE__, status);
}
}
/* Save the key in ap ctx for use on START_BASS and restart */
if (pairwise ||
eCSR_ENCRYPT_TYPE_WEP40_STATICKEY == setKey.encType ||
eCSR_ENCRYPT_TYPE_WEP104_STATICKEY == setKey.encType)
cdf_mem_copy(&ap_ctx->wepKey[key_index], &setKey,
sizeof(tCsrRoamSetKey));
else
cdf_mem_copy(&ap_ctx->groupKey, &setKey,
sizeof(tCsrRoamSetKey));
} else if ((pAdapter->device_mode == WLAN_HDD_INFRA_STATION) ||
(pAdapter->device_mode == WLAN_HDD_P2P_CLIENT)) {
hdd_wext_state_t *pWextState =
WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
hdd_station_ctx_t *pHddStaCtx =
WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
if (!pairwise) {
/* set group key */
if (pHddStaCtx->roam_info.deferKeyComplete) {
CDF_TRACE(CDF_MODULE_ID_HDD,
CDF_TRACE_LEVEL_INFO,
"%s- %d: Perform Set key Complete",
__func__, __LINE__);
hdd_perform_roam_set_key_complete(pAdapter);
}
}
pWextState->roamProfile.Keys.KeyLength[key_index] =
(u8) params->key_len;
pWextState->roamProfile.Keys.defaultIndex = key_index;
cdf_mem_copy(&pWextState->roamProfile.Keys.
KeyMaterial[key_index][0], params->key,
params->key_len);
pHddStaCtx->roam_info.roamingState = HDD_ROAM_STATE_SETTING_KEY;
hddLog(LOG2,
FL("Set key for peerMac "MAC_ADDRESS_STR" direction %d"),
MAC_ADDR_ARRAY(setKey.peerMac.bytes),
setKey.keyDirection);
#ifdef WLAN_FEATURE_VOWIFI_11R
/* The supplicant may attempt to set the PTK once pre-authentication
is done. Save the key in the UMAC and include it in the ADD BSS
request */
cdf_ret_status = sme_ft_update_key(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, &setKey);
if (cdf_ret_status == CDF_STATUS_FT_PREAUTH_KEY_SUCCESS) {
hddLog(CDF_TRACE_LEVEL_INFO_MED,
"%s: Update PreAuth Key success", __func__);
return 0;
} else if (cdf_ret_status == CDF_STATUS_FT_PREAUTH_KEY_FAILED) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: Update PreAuth Key failed", __func__);
return -EINVAL;
}
#endif /* WLAN_FEATURE_VOWIFI_11R */
/* issue set key request to SME */
status = sme_roam_set_key(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, &setKey, &roamId);
if (0 != status) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: sme_roam_set_key failed, returned %d",
__func__, status);
pHddStaCtx->roam_info.roamingState =
HDD_ROAM_STATE_NONE;
return -EINVAL;
}
/* in case of IBSS as there was no information available about WEP keys during
* IBSS join, group key intialized with NULL key, so re-initialize group key
* with correct value*/
if ((eCSR_BSS_TYPE_START_IBSS ==
pWextState->roamProfile.BSSType)
&&
!((IW_AUTH_KEY_MGMT_802_1X ==
(pWextState->authKeyMgmt & IW_AUTH_KEY_MGMT_802_1X))
&& (eCSR_AUTH_TYPE_OPEN_SYSTEM ==
pHddStaCtx->conn_info.authType)
)
&& ((WLAN_CIPHER_SUITE_WEP40 == params->cipher)
|| (WLAN_CIPHER_SUITE_WEP104 == params->cipher)
)
) {
setKey.keyDirection = eSIR_RX_ONLY;
cdf_set_macaddr_broadcast(&setKey.peerMac);
hddLog(LOG2,
FL("Set key peerMac "MAC_ADDRESS_STR" direction %d"),
MAC_ADDR_ARRAY(setKey.peerMac.bytes),
setKey.keyDirection);
status = sme_roam_set_key(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, &setKey,
&roamId);
if (0 != status) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: sme_roam_set_key failed for group key (IBSS), returned %d",
__func__, status);
pHddStaCtx->roam_info.roamingState =
HDD_ROAM_STATE_NONE;
return -EINVAL;
}
}
}
return 0;
}
static int wlan_hdd_cfg80211_add_key(struct wiphy *wiphy,
struct net_device *ndev,
u8 key_index, bool pairwise,
const u8 *mac_addr,
struct key_params *params)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_add_key(wiphy, ndev, key_index, pairwise,
mac_addr, params);
cds_ssr_unprotect(__func__);
return ret;
}
/*
* FUNCTION: __wlan_hdd_cfg80211_get_key
* This function is used to get the key information
*/
static int __wlan_hdd_cfg80211_get_key(struct wiphy *wiphy,
struct net_device *ndev,
u8 key_index, bool pairwise,
const u8 *mac_addr, void *cookie,
void (*callback)(void *cookie,
struct key_params *)
)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(ndev);
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
tCsrRoamProfile *pRoamProfile = &(pWextState->roamProfile);
struct key_params params;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
hddLog(LOG1, FL("Device_mode %s(%d)"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
memset(&params, 0, sizeof(params));
if (CSR_MAX_NUM_KEY <= key_index) {
hddLog(CDF_TRACE_LEVEL_ERROR, FL("invalid key index %d"),
key_index);
return -EINVAL;
}
switch (pRoamProfile->EncryptionType.encryptionType[0]) {
case eCSR_ENCRYPT_TYPE_NONE:
params.cipher = IW_AUTH_CIPHER_NONE;
break;
case eCSR_ENCRYPT_TYPE_WEP40_STATICKEY:
case eCSR_ENCRYPT_TYPE_WEP40:
params.cipher = WLAN_CIPHER_SUITE_WEP40;
break;
case eCSR_ENCRYPT_TYPE_WEP104_STATICKEY:
case eCSR_ENCRYPT_TYPE_WEP104:
params.cipher = WLAN_CIPHER_SUITE_WEP104;
break;
case eCSR_ENCRYPT_TYPE_TKIP:
params.cipher = WLAN_CIPHER_SUITE_TKIP;
break;
case eCSR_ENCRYPT_TYPE_AES:
params.cipher = WLAN_CIPHER_SUITE_AES_CMAC;
break;
default:
params.cipher = IW_AUTH_CIPHER_NONE;
break;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_GET_KEY,
pAdapter->sessionId, params.cipher));
params.key_len = pRoamProfile->Keys.KeyLength[key_index];
params.seq_len = 0;
params.seq = NULL;
params.key = &pRoamProfile->Keys.KeyMaterial[key_index][0];
callback(cookie, &params);
EXIT();
return 0;
}
static int wlan_hdd_cfg80211_get_key(struct wiphy *wiphy,
struct net_device *ndev,
u8 key_index, bool pairwise,
const u8 *mac_addr, void *cookie,
void (*callback)(void *cookie,
struct key_params *)
)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_get_key(wiphy, ndev, key_index, pairwise,
mac_addr, cookie, callback);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_del_key() - Delete the encryption key for station
* @wiphy: wiphy interface context
* @ndev: pointer to net device
* @key_index: Key index used in 802.11 frames
* @unicast: true if it is unicast key
* @multicast: true if it is multicast key
*
* This function is required for cfg80211_ops API.
* It is used to delete the key information
* Underlying hardware implementation does not have API to delete the
* encryption key. It is automatically deleted when the peer is
* removed. Hence this function currently does nothing.
* Future implementation may interprete delete key operation to
* replacing the key with a random junk value, effectively making it
* useless.
*
* Return: status code, always 0.
*/
static int __wlan_hdd_cfg80211_del_key(struct wiphy *wiphy,
struct net_device *ndev,
u8 key_index,
bool pairwise, const u8 *mac_addr)
{
EXIT();
return 0;
}
/**
* wlan_hdd_cfg80211_del_key() - cfg80211 delete key handler function
* @wiphy: Pointer to wiphy structure.
* @dev: Pointer to net_device structure.
* @key_index: key index
* @pairwise: pairwise
* @mac_addr: mac address
*
* This is the cfg80211 delete key handler function which invokes
* the internal function @__wlan_hdd_cfg80211_del_key with
* SSR protection.
*
* Return: 0 for success, error number on failure.
*/
static int wlan_hdd_cfg80211_del_key(struct wiphy *wiphy,
struct net_device *dev,
u8 key_index,
bool pairwise, const u8 *mac_addr)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_del_key(wiphy, dev, key_index,
pairwise, mac_addr);
cds_ssr_unprotect(__func__);
return ret;
}
/*
* FUNCTION: __wlan_hdd_cfg80211_set_default_key
* This function is used to set the default tx key index
*/
static int __wlan_hdd_cfg80211_set_default_key(struct wiphy *wiphy,
struct net_device *ndev,
u8 key_index,
bool unicast, bool multicast)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(ndev);
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
hdd_context_t *pHddCtx;
int status;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_SET_DEFAULT_KEY,
pAdapter->sessionId, key_index));
hddLog(LOG1, FL("Device_mode %s(%d) key_index = %d"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode, key_index);
if (CSR_MAX_NUM_KEY <= key_index) {
hddLog(LOGE, FL("Invalid key index %d"), key_index);
return -EINVAL;
}
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
if ((pAdapter->device_mode == WLAN_HDD_INFRA_STATION) ||
(pAdapter->device_mode == WLAN_HDD_P2P_CLIENT)) {
if ((eCSR_ENCRYPT_TYPE_TKIP !=
pHddStaCtx->conn_info.ucEncryptionType) &&
(eCSR_ENCRYPT_TYPE_AES !=
pHddStaCtx->conn_info.ucEncryptionType)) {
/* If default key index is not same as previous one,
* then update the default key index */
tCsrRoamSetKey setKey;
uint32_t roamId = 0xFF;
tCsrKeys *Keys = &pWextState->roamProfile.Keys;
hddLog(LOG2, FL("Default tx key index %d"), key_index);
Keys->defaultIndex = (u8) key_index;
cdf_mem_zero(&setKey, sizeof(tCsrRoamSetKey));
setKey.keyId = key_index;
setKey.keyLength = Keys->KeyLength[key_index];
cdf_mem_copy(&setKey.Key[0],
&Keys->KeyMaterial[key_index][0],
Keys->KeyLength[key_index]);
setKey.keyDirection = eSIR_TX_RX;
cdf_copy_macaddr(&setKey.peerMac,
&pHddStaCtx->conn_info.bssId);
if (Keys->KeyLength[key_index] == CSR_WEP40_KEY_LEN &&
pWextState->roamProfile.EncryptionType.
encryptionType[0] == eCSR_ENCRYPT_TYPE_WEP104) {
/* In the case of dynamic wep supplicant hardcodes DWEP type
* to eCSR_ENCRYPT_TYPE_WEP104 even though ap is configured for
* WEP-40 encryption. In this canse the key length is 5 but the
* encryption type is 104 hence checking the key langht(5) and
* encryption type(104) and switching encryption type to 40*/
pWextState->roamProfile.EncryptionType.
encryptionType[0] = eCSR_ENCRYPT_TYPE_WEP40;
pWextState->roamProfile.mcEncryptionType.
encryptionType[0] = eCSR_ENCRYPT_TYPE_WEP40;
}
setKey.encType =
pWextState->roamProfile.EncryptionType.
encryptionType[0];
/* Issue set key request */
status = sme_roam_set_key(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, &setKey,
&roamId);
if (0 != status) {
hddLog(LOGE,
FL("sme_roam_set_key failed, returned %d"),
status);
return -EINVAL;
}
}
} else if (WLAN_HDD_SOFTAP == pAdapter->device_mode) {
/* In SoftAp mode setting key direction for default mode */
if ((eCSR_ENCRYPT_TYPE_TKIP !=
pWextState->roamProfile.EncryptionType.encryptionType[0])
&& (eCSR_ENCRYPT_TYPE_AES !=
pWextState->roamProfile.EncryptionType.
encryptionType[0])) {
/* Saving key direction for default key index to TX default */
hdd_ap_ctx_t *pAPCtx =
WLAN_HDD_GET_AP_CTX_PTR(pAdapter);
pAPCtx->wepKey[key_index].keyDirection =
eSIR_TX_DEFAULT;
}
}
EXIT();
return status;
}
static int wlan_hdd_cfg80211_set_default_key(struct wiphy *wiphy,
struct net_device *ndev,
u8 key_index,
bool unicast, bool multicast)
{
int ret;
cds_ssr_protect(__func__);
ret =
__wlan_hdd_cfg80211_set_default_key(wiphy, ndev, key_index, unicast,
multicast);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* wlan_hdd_cfg80211_update_bss_list() - update bss list to NL80211
* @pAdapter: Pointer to adapter
* @pRoamInfo: Pointer to roam info
*
* Return: struct cfg80211_bss pointer
*/
struct cfg80211_bss *wlan_hdd_cfg80211_update_bss_list(hdd_adapter_t *pAdapter,
tCsrRoamInfo *pRoamInfo)
{
struct net_device *dev = pAdapter->dev;
struct wireless_dev *wdev = dev->ieee80211_ptr;
struct wiphy *wiphy = wdev->wiphy;
tSirBssDescription *pBssDesc = pRoamInfo->pBssDesc;
int chan_no;
unsigned int freq;
struct ieee80211_channel *chan;
struct cfg80211_bss *bss = NULL;
ENTER();
if (NULL == pBssDesc) {
hddLog(LOGE, FL("pBssDesc is NULL"));
return bss;
}
if (NULL == pRoamInfo->pProfile) {
hddLog(LOGE, FL("Roam profile is NULL"));
return bss;
}
chan_no = pBssDesc->channelId;
if (chan_no <= ARRAY_SIZE(hdd_channels_2_4_ghz)) {
freq =
ieee80211_channel_to_frequency(chan_no,
IEEE80211_BAND_2GHZ);
} else {
freq =
ieee80211_channel_to_frequency(chan_no,
IEEE80211_BAND_5GHZ);
}
chan = __ieee80211_get_channel(wiphy, freq);
if (!chan) {
hddLog(LOGE, FL("chan pointer is NULL"));
return NULL;
}
bss = cfg80211_get_bss(wiphy, chan, pBssDesc->bssId,
&pRoamInfo->pProfile->SSIDs.SSIDList->SSID.
ssId[0],
pRoamInfo->pProfile->SSIDs.SSIDList->SSID.length,
WLAN_CAPABILITY_ESS, WLAN_CAPABILITY_ESS);
if (bss == NULL) {
hddLog(LOGE, FL("BSS not present"));
} else {
hddLog(LOG1, FL("cfg80211_unlink_bss called for BSSID "
MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(pBssDesc->bssId));
cfg80211_unlink_bss(wiphy, bss);
}
return bss;
}
/**
* wlan_hdd_cfg80211_inform_bss_frame() - inform bss details to NL80211
* @pAdapter: Pointer to adapter
* @bss_desc: Pointer to bss descriptor
*
* This function is used to inform the BSS details to nl80211 interface.
*
* Return: struct cfg80211_bss pointer
*/
static struct cfg80211_bss *
wlan_hdd_cfg80211_inform_bss_frame(hdd_adapter_t *pAdapter,
tSirBssDescription *bss_desc)
{
/*
* cfg80211_inform_bss() is not updating ie field of bss entry, if entry
* already exists in bss data base of cfg80211 for that particular BSS
* ID. Using cfg80211_inform_bss_frame to update the bss entry instead
* of cfg80211_inform_bss, But this call expects mgmt packet as input.
* As of now there is no possibility to get the mgmt(probe response)
* frame from PE, converting bss_desc to ieee80211_mgmt(probe response)
* and passing to cfg80211_inform_bss_frame.
*/
struct net_device *dev = pAdapter->dev;
struct wireless_dev *wdev = dev->ieee80211_ptr;
struct wiphy *wiphy = wdev->wiphy;
int chan_no = bss_desc->channelId;
#ifdef WLAN_ENABLE_AGEIE_ON_SCAN_RESULTS
qcom_ie_age *qie_age = NULL;
int ie_length =
GET_IE_LEN_IN_BSS_DESC(bss_desc->length) + sizeof(qcom_ie_age);
#else
int ie_length = GET_IE_LEN_IN_BSS_DESC(bss_desc->length);
#endif
const char *ie =
((ie_length != 0) ? (const char *)&bss_desc->ieFields : NULL);
unsigned int freq;
struct ieee80211_channel *chan;
struct ieee80211_mgmt *mgmt = NULL;
struct cfg80211_bss *bss_status = NULL;
size_t frame_len = sizeof(struct ieee80211_mgmt) + ie_length;
int rssi = 0;
hdd_context_t *pHddCtx;
int status;
#ifdef CONFIG_CNSS
struct timespec ts;
#endif
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return NULL;
}
mgmt = kzalloc((sizeof(struct ieee80211_mgmt) + ie_length), GFP_KERNEL);
if (!mgmt) {
hddLog(LOGE, FL("memory allocation failed"));
return NULL;
}
memcpy(mgmt->bssid, bss_desc->bssId, ETH_ALEN);
#ifdef CONFIG_CNSS
/* Android does not want the timestamp from the frame.
Instead it wants a monotonic increasing value */
cnss_get_monotonic_boottime(&ts);
mgmt->u.probe_resp.timestamp =
((u64) ts.tv_sec * 1000000) + (ts.tv_nsec / 1000);
#else
/* keep old behavior for non-open source (for now) */
memcpy(&mgmt->u.probe_resp.timestamp, bss_desc->timeStamp,
sizeof(bss_desc->timeStamp));
#endif
mgmt->u.probe_resp.beacon_int = bss_desc->beaconInterval;
mgmt->u.probe_resp.capab_info = bss_desc->capabilityInfo;
#ifdef WLAN_ENABLE_AGEIE_ON_SCAN_RESULTS
/* GPS Requirement: need age ie per entry. Using vendor specific. */
/* Assuming this is the last IE, copy at the end */
ie_length -= sizeof(qcom_ie_age);
qie_age = (qcom_ie_age *) (mgmt->u.probe_resp.variable + ie_length);
qie_age->element_id = QCOM_VENDOR_IE_ID;
qie_age->len = QCOM_VENDOR_IE_AGE_LEN;
qie_age->oui_1 = QCOM_OUI1;
qie_age->oui_2 = QCOM_OUI2;
qie_age->oui_3 = QCOM_OUI3;
qie_age->type = QCOM_VENDOR_IE_AGE_TYPE;
qie_age->age =
cdf_mc_timer_get_system_ticks() - bss_desc->nReceivedTime;
qie_age->tsf_delta = bss_desc->tsf_delta;
#endif
memcpy(mgmt->u.probe_resp.variable, ie, ie_length);
if (bss_desc->fProbeRsp) {
mgmt->frame_control |=
(u16) (IEEE80211_FTYPE_MGMT | IEEE80211_STYPE_PROBE_RESP);
} else {
mgmt->frame_control |=
(u16) (IEEE80211_FTYPE_MGMT | IEEE80211_STYPE_BEACON);
}
if (chan_no <= ARRAY_SIZE(hdd_channels_2_4_ghz) &&
(wiphy->bands[IEEE80211_BAND_2GHZ] != NULL)) {
freq =
ieee80211_channel_to_frequency(chan_no,
IEEE80211_BAND_2GHZ);
} else if ((chan_no > ARRAY_SIZE(hdd_channels_2_4_ghz))
&& (wiphy->bands[IEEE80211_BAND_5GHZ] != NULL)) {
freq =
ieee80211_channel_to_frequency(chan_no,
IEEE80211_BAND_5GHZ);
} else {
hddLog(LOGE, FL("Invalid chan_no %d"), chan_no);
kfree(mgmt);
return NULL;
}
chan = __ieee80211_get_channel(wiphy, freq);
/* When the band is changed on the fly using the GUI, three things are done
* 1. scan abort
* 2. flush scan results from cache
* 3. update the band with the new band user specified (refer to the
* hdd_set_band_helper function) as part of the scan abort, message will be
* queued to PE and we proceed with flushing and changinh the band.
* PE will stop the scanning further and report back the results what ever
* it had till now by calling the call back function.
* if the time between update band and scandone call back is sufficient
* enough the band change reflects in SME, SME validates the channels
* and discards the channels correponding to previous band and calls back
* with zero bss results. but if the time between band update and scan done
* callback is very small then band change will not reflect in SME and SME
* reports to HDD all the channels correponding to previous band.this is due
* to race condition.but those channels are invalid to the new band and so
* this function __ieee80211_get_channel will return NULL.Each time we
* report scan result with this pointer null warning kernel trace is printed.
* if the scan results contain large number of APs continuosly kernel
* warning trace is printed and it will lead to apps watch dog bark.
* So drop the bss and continue to next bss.
*/
if (chan == NULL) {
hddLog(LOGE, FL("chan pointer is NULL"));
kfree(mgmt);
return NULL;
}
/* Supplicant takes the signal strength in terms of mBm(100*dBm) */
rssi = (CDF_MIN((bss_desc->rssi + bss_desc->sinr), 0)) * 100;
hddLog(LOG1, FL("BSSID: " MAC_ADDRESS_STR " Channel:%d RSSI:%d"),
MAC_ADDR_ARRAY(mgmt->bssid), chan->center_freq,
(int)(rssi / 100));
bss_status =
cfg80211_inform_bss_frame(wiphy, chan, mgmt, frame_len, rssi,
GFP_KERNEL);
kfree(mgmt);
return bss_status;
}
/**
* wlan_hdd_cfg80211_update_bss_db() - update bss database of CF80211
* @pAdapter: Pointer to adapter
* @pRoamInfo: Pointer to roam info
*
* This function is used to update the BSS data base of CFG8011
*
* Return: struct cfg80211_bss pointer
*/
struct cfg80211_bss *wlan_hdd_cfg80211_update_bss_db(hdd_adapter_t *pAdapter,
tCsrRoamInfo *pRoamInfo)
{
tCsrRoamConnectedProfile roamProfile;
tHalHandle hHal = WLAN_HDD_GET_HAL_CTX(pAdapter);
struct cfg80211_bss *bss = NULL;
ENTER();
memset(&roamProfile, 0, sizeof(tCsrRoamConnectedProfile));
sme_roam_get_connect_profile(hHal, pAdapter->sessionId, &roamProfile);
if (NULL != roamProfile.pBssDesc) {
bss = wlan_hdd_cfg80211_inform_bss_frame(pAdapter,
roamProfile.pBssDesc);
if (NULL == bss)
hddLog(LOG1,
FL("wlan_hdd_cfg80211_inform_bss_frame returned NULL"));
sme_roam_free_connect_profile(hHal, &roamProfile);
} else {
hddLog(LOGE, FL("roamProfile.pBssDesc is NULL"));
}
EXIT();
return bss;
}
/**
* wlan_hdd_cfg80211_update_bss() - update bss
* @wiphy: Pointer to wiphy
* @pAdapter: Pointer to adapter
* @scan_time: scan request timestamp
*
* Return: zero if success, non-zero otherwise
*/
int wlan_hdd_cfg80211_update_bss(struct wiphy *wiphy,
hdd_adapter_t *pAdapter,
uint32_t scan_time)
{
tHalHandle hHal = WLAN_HDD_GET_HAL_CTX(pAdapter);
tCsrScanResultInfo *pScanResult;
CDF_STATUS status = 0;
tScanResultHandle pResult;
struct cfg80211_bss *bss_status = NULL;
hdd_context_t *pHddCtx;
int ret;
ENTER();
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_UPDATE_BSS,
NO_SESSION, pAdapter->sessionId));
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
ret = wlan_hdd_validate_context(pHddCtx);
if (0 != ret) {
hddLog(LOGE, FL("HDD context is not valid"));
return ret;
}
/* start getting scan results and populate cgf80211 BSS database */
status = sme_scan_get_result(hHal, pAdapter->sessionId, NULL, &pResult);
/* no scan results */
if (NULL == pResult) {
hddLog(LOGE, FL("No scan result Status %d"), status);
return status;
}
pScanResult = sme_scan_result_get_first(hHal, pResult);
while (pScanResult) {
/*
* - cfg80211_inform_bss() is not updating ie field of bss
* entry if entry already exists in bss data base of cfg80211
* for that particular BSS ID. Using cfg80211_inform_bss_frame
* to update thebss entry instead of cfg80211_inform_bss,
* But this call expects mgmt packet as input. As of now
* there is no possibility to get the mgmt(probe response)
* frame from PE, converting bss_desc to
* ieee80211_mgmt(probe response) and passing to c
* fg80211_inform_bss_frame.
* - Update BSS only if beacon timestamp is later than
* scan request timestamp.
*/
if ((scan_time == 0) ||
(scan_time <
pScanResult->BssDescriptor.nReceivedTime)) {
bss_status =
wlan_hdd_cfg80211_inform_bss_frame(pAdapter,
&pScanResult->BssDescriptor);
if (NULL == bss_status) {
hdd_info("NULL returned by cfg80211_inform_bss_frame");
} else {
cfg80211_put_bss(
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 9, 0))
wiphy,
#endif
bss_status);
}
} else {
hdd_info("BSSID: " MAC_ADDRESS_STR " Skipped",
MAC_ADDR_ARRAY(pScanResult->BssDescriptor.bssId));
}
pScanResult = sme_scan_result_get_next(hHal, pResult);
}
sme_scan_result_purge(hHal, pResult);
/*
* For SAP mode, scan is invoked by hostapd during SAP start
* if hostapd is restarted, we need to flush previous scan
* result so that it will reflect environment change
*/
if (pAdapter->device_mode == WLAN_HDD_SOFTAP
#ifdef FEATURE_WLAN_AP_AP_ACS_OPTIMIZE
&& pHddCtx->skip_acs_scan_status != eSAP_SKIP_ACS_SCAN
#endif
)
sme_scan_flush_result(hHal);
EXIT();
return 0;
}
#if defined(FEATURE_WLAN_LFR) && (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 4, 0))
/**
* wlan_hdd_cfg80211_pmksa_candidate_notify() - notify a new PMSKA candidate
* @pAdapter: Pointer to adapter
* @pRoamInfo: Pointer to roam info
* @index: Index
* @preauth: Preauth flag
*
* This function is used to notify the supplicant of a new PMKSA candidate.
*
* Return: 0 for success, non-zero for failure
*/
int wlan_hdd_cfg80211_pmksa_candidate_notify(hdd_adapter_t *pAdapter,
tCsrRoamInfo *pRoamInfo,
int index, bool preauth)
{
#ifdef FEATURE_WLAN_OKC
struct net_device *dev = pAdapter->dev;
hdd_context_t *pHddCtx = (hdd_context_t *) pAdapter->pHddCtx;
ENTER();
hddLog(LOG1, FL("is going to notify supplicant of:"));
if (NULL == pRoamInfo) {
hddLog(LOGP, FL("pRoamInfo is NULL"));
return -EINVAL;
}
if (true == hdd_is_okc_mode_enabled(pHddCtx)) {
hddLog(LOG1, MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(pRoamInfo->bssid.bytes));
cfg80211_pmksa_candidate_notify(dev, index,
pRoamInfo->bssid.bytes,
preauth, GFP_KERNEL);
}
#endif /* FEATURE_WLAN_OKC */
return 0;
}
#endif /* FEATURE_WLAN_LFR */
#ifdef FEATURE_WLAN_LFR_METRICS
/**
* wlan_hdd_cfg80211_roam_metrics_preauth() - roam metrics preauth
* @pAdapter: Pointer to adapter
* @pRoamInfo: Pointer to roam info
*
* 802.11r/LFR metrics reporting function to report preauth initiation
*
* Return: CDF status
*/
#define MAX_LFR_METRICS_EVENT_LENGTH 100
CDF_STATUS wlan_hdd_cfg80211_roam_metrics_preauth(hdd_adapter_t *pAdapter,
tCsrRoamInfo *pRoamInfo)
{
unsigned char metrics_notification[MAX_LFR_METRICS_EVENT_LENGTH + 1];
union iwreq_data wrqu;
ENTER();
if (NULL == pAdapter) {
hddLog(LOGE, FL("pAdapter is NULL!"));
return CDF_STATUS_E_FAILURE;
}
/* create the event */
memset(&wrqu, 0, sizeof(wrqu));
memset(metrics_notification, 0, sizeof(metrics_notification));
wrqu.data.pointer = metrics_notification;
wrqu.data.length = scnprintf(metrics_notification,
sizeof(metrics_notification),
"QCOM: LFR_PREAUTH_INIT " MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(pRoamInfo->bssid));
wireless_send_event(pAdapter->dev, IWEVCUSTOM, &wrqu,
metrics_notification);
EXIT();
return CDF_STATUS_SUCCESS;
}
/**
* wlan_hdd_cfg80211_roam_metrics_handover() - roam metrics hand over
* @pAdapter: Pointer to adapter
* @pRoamInfo: Pointer to roam info
* @preauth_status: Preauth status
*
* 802.11r/LFR metrics reporting function to report handover initiation
*
* Return: CDF status
*/
CDF_STATUS
wlan_hdd_cfg80211_roam_metrics_preauth_status(hdd_adapter_t *pAdapter,
tCsrRoamInfo *pRoamInfo,
bool preauth_status)
{
unsigned char metrics_notification[MAX_LFR_METRICS_EVENT_LENGTH + 1];
union iwreq_data wrqu;
ENTER();
if (NULL == pAdapter) {
hddLog(LOGE, FL("pAdapter is NULL!"));
return CDF_STATUS_E_FAILURE;
}
/* create the event */
memset(&wrqu, 0, sizeof(wrqu));
memset(metrics_notification, 0, sizeof(metrics_notification));
scnprintf(metrics_notification, sizeof(metrics_notification),
"QCOM: LFR_PREAUTH_STATUS " MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(pRoamInfo->bssid));
if (1 == preauth_status)
strlcat(metrics_notification, " true",
sizeof(metrics_notification));
else
strlcat(metrics_notification, " false",
sizeof(metrics_notification));
wrqu.data.pointer = metrics_notification;
wrqu.data.length = strlen(metrics_notification);
wireless_send_event(pAdapter->dev, IWEVCUSTOM, &wrqu,
metrics_notification);
EXIT();
return CDF_STATUS_SUCCESS;
}
/**
* wlan_hdd_cfg80211_roam_metrics_handover() - roam metrics hand over
* @pAdapter: Pointer to adapter
* @pRoamInfo: Pointer to roam info
*
* 802.11r/LFR metrics reporting function to report handover initiation
*
* Return: CDF status
*/
CDF_STATUS wlan_hdd_cfg80211_roam_metrics_handover(hdd_adapter_t *pAdapter,
tCsrRoamInfo *pRoamInfo)
{
unsigned char metrics_notification[MAX_LFR_METRICS_EVENT_LENGTH + 1];
union iwreq_data wrqu;
ENTER();
if (NULL == pAdapter) {
hddLog(LOGE, FL("pAdapter is NULL!"));
return CDF_STATUS_E_FAILURE;
}
/* create the event */
memset(&wrqu, 0, sizeof(wrqu));
memset(metrics_notification, 0, sizeof(metrics_notification));
wrqu.data.pointer = metrics_notification;
wrqu.data.length = scnprintf(metrics_notification,
sizeof(metrics_notification),
"QCOM: LFR_PREAUTH_HANDOVER "
MAC_ADDRESS_STR,
MAC_ADDR_ARRAY(pRoamInfo->bssid));
wireless_send_event(pAdapter->dev, IWEVCUSTOM, &wrqu,
metrics_notification);
EXIT();
return CDF_STATUS_SUCCESS;
}
#endif
/**
* hdd_select_cbmode() - select channel bonding mode
* @pAdapter: Pointer to adapter
* @operatingChannel: Operating channel
*
* Return: none
*/
void hdd_select_cbmode(hdd_adapter_t *pAdapter, uint8_t operationChannel)
{
uint8_t iniDot11Mode = (WLAN_HDD_GET_CTX(pAdapter))->config->dot11Mode;
eHddDot11Mode hddDot11Mode = iniDot11Mode;
chan_params_t ch_params;
ch_params.ch_width =
(WLAN_HDD_GET_CTX(pAdapter))->config->vhtChannelWidth;
hddLog(LOG1, FL("Channel Bonding Mode Selected is %u"), iniDot11Mode);
switch (iniDot11Mode) {
case eHDD_DOT11_MODE_AUTO:
case eHDD_DOT11_MODE_11ac:
case eHDD_DOT11_MODE_11ac_ONLY:
#ifdef WLAN_FEATURE_11AC
if (sme_is_feature_supported_by_fw(DOT11AC))
hddDot11Mode = eHDD_DOT11_MODE_11ac;
else
hddDot11Mode = eHDD_DOT11_MODE_11n;
#else
hddDot11Mode = eHDD_DOT11_MODE_11n;
#endif
break;
case eHDD_DOT11_MODE_11n:
case eHDD_DOT11_MODE_11n_ONLY:
hddDot11Mode = eHDD_DOT11_MODE_11n;
break;
default:
hddDot11Mode = iniDot11Mode;
break;
}
/* This call decides required channel bonding mode */
sme_set_ch_params((WLAN_HDD_GET_CTX(pAdapter)->hHal),
hdd_cfg_xlate_to_csr_phy_mode(hddDot11Mode),
operationChannel, 0,
&ch_params);
}
/*
* FUNCTION: wlan_hdd_cfg80211_connect_start
* wlan_hdd_cfg80211_connect_start() - start connection
* @pAdapter: Pointer to adapter
* @ssid: Pointer ot ssid
* @ssid_len: Length of ssid
* @bssid: Pointer to bssid
* @operatingChannel: Operating channel
*
* This function is used to start the association process
*
* Return: 0 for success, non-zero for failure
*/
int wlan_hdd_cfg80211_connect_start(hdd_adapter_t *pAdapter,
const u8 *ssid, size_t ssid_len,
const u8 *bssid_hint, const u8 *bssid,
u8 operatingChannel)
{
int status = 0;
hdd_wext_state_t *pWextState;
hdd_context_t *pHddCtx;
uint32_t roamId;
tCsrRoamProfile *pRoamProfile;
eCsrAuthType RSNAuthType;
tSmeConfigParams *sme_config;
ENTER();
pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (status) {
hddLog(LOGE,
FL("HDD context is not valid!"));
return status;
}
if (SIR_MAC_MAX_SSID_LENGTH < ssid_len) {
hddLog(LOGE, FL("wrong SSID len"));
return -EINVAL;
}
pRoamProfile = &pWextState->roamProfile;
if (pRoamProfile) {
hdd_station_ctx_t *pHddStaCtx;
pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
if (HDD_WMM_USER_MODE_NO_QOS ==
(WLAN_HDD_GET_CTX(pAdapter))->config->WmmMode) {
/*QoS not enabled in cfg file */
pRoamProfile->uapsd_mask = 0;
} else {
/*QoS enabled, update uapsd mask from cfg file */
pRoamProfile->uapsd_mask =
(WLAN_HDD_GET_CTX(pAdapter))->config->UapsdMask;
}
pRoamProfile->SSIDs.numOfSSIDs = 1;
pRoamProfile->SSIDs.SSIDList->SSID.length = ssid_len;
cdf_mem_zero(pRoamProfile->SSIDs.SSIDList->SSID.ssId,
sizeof(pRoamProfile->SSIDs.SSIDList->SSID.ssId));
cdf_mem_copy((void *)(pRoamProfile->SSIDs.SSIDList->SSID.ssId),
ssid, ssid_len);
if (bssid) {
pRoamProfile->BSSIDs.numOfBSSIDs = 1;
cdf_mem_copy((void *)(pRoamProfile->BSSIDs.bssid),
bssid, CDF_MAC_ADDR_SIZE);
/* Save BSSID in seperate variable as well, as RoamProfile
BSSID is getting zeroed out in the association process. And in
case of join failure we should send valid BSSID to supplicant
*/
cdf_mem_copy((void *)(pWextState->req_bssId.bytes),
bssid, CDF_MAC_ADDR_SIZE);
} else if (bssid_hint) {
pRoamProfile->BSSIDs.numOfBSSIDs = 1;
cdf_mem_copy((void *)(pRoamProfile->BSSIDs.bssid),
bssid_hint, CDF_MAC_ADDR_SIZE);
/* Save BSSID in separate variable as well, as
RoamProfile BSSID is getting zeroed out in the
association process. And in case of join failure
we should send valid BSSID to supplicant
*/
cdf_mem_copy((void *)(pWextState->req_bssId.bytes),
bssid_hint, CDF_MAC_ADDR_SIZE);
hddLog(LOGW, FL(" bssid_hint "MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(bssid_hint));
} else {
cdf_mem_zero((void *)(pRoamProfile->BSSIDs.bssid),
CDF_MAC_ADDR_SIZE);
}
hddLog(LOG1, FL("Connect to SSID: %.*s operating Channel: %u"),
pRoamProfile->SSIDs.SSIDList->SSID.length,
pRoamProfile->SSIDs.SSIDList->SSID.ssId,
operatingChannel);
if ((IW_AUTH_WPA_VERSION_WPA == pWextState->wpaVersion) ||
(IW_AUTH_WPA_VERSION_WPA2 == pWextState->wpaVersion)) {
/*set gen ie */
hdd_set_genie_to_csr(pAdapter, &RSNAuthType);
/*set auth */
hdd_set_csr_auth_type(pAdapter, RSNAuthType);
}
#ifdef FEATURE_WLAN_WAPI
if (pAdapter->wapi_info.nWapiMode) {
hddLog(LOG1,
FL("Setting WAPI AUTH Type and Encryption Mode values"));
switch (pAdapter->wapi_info.wapiAuthMode) {
case WAPI_AUTH_MODE_PSK:
{
hddLog(LOG1,
FL("WAPI AUTH TYPE: PSK: %d"),
pAdapter->wapi_info.wapiAuthMode);
pRoamProfile->AuthType.authType[0] =
eCSR_AUTH_TYPE_WAPI_WAI_PSK;
break;
}
case WAPI_AUTH_MODE_CERT:
{
hddLog(LOG1,
FL("WAPI AUTH TYPE: CERT: %d"),
pAdapter->wapi_info.wapiAuthMode);
pRoamProfile->AuthType.authType[0] =
eCSR_AUTH_TYPE_WAPI_WAI_CERTIFICATE;
break;
}
} /* End of switch */
if (pAdapter->wapi_info.wapiAuthMode ==
WAPI_AUTH_MODE_PSK
|| pAdapter->wapi_info.wapiAuthMode ==
WAPI_AUTH_MODE_CERT) {
hddLog(LOG1,
FL("WAPI PAIRWISE/GROUP ENCRYPTION: WPI"));
pRoamProfile->AuthType.numEntries = 1;
pRoamProfile->EncryptionType.numEntries = 1;
pRoamProfile->EncryptionType.encryptionType[0] =
eCSR_ENCRYPT_TYPE_WPI;
pRoamProfile->mcEncryptionType.numEntries = 1;
pRoamProfile->mcEncryptionType.
encryptionType[0] = eCSR_ENCRYPT_TYPE_WPI;
}
}
#endif /* FEATURE_WLAN_WAPI */
#ifdef WLAN_FEATURE_GTK_OFFLOAD
/* Initializing gtkOffloadReqParams */
if ((WLAN_HDD_INFRA_STATION == pAdapter->device_mode) ||
(WLAN_HDD_P2P_CLIENT == pAdapter->device_mode)) {
memset(&pHddStaCtx->gtkOffloadReqParams, 0,
sizeof(tSirGtkOffloadParams));
pHddStaCtx->gtkOffloadReqParams.ulFlags =
GTK_OFFLOAD_DISABLE;
}
#endif
pRoamProfile->csrPersona = pAdapter->device_mode;
if (operatingChannel) {
pRoamProfile->ChannelInfo.ChannelList =
&operatingChannel;
pRoamProfile->ChannelInfo.numOfChannels = 1;
} else {
pRoamProfile->ChannelInfo.ChannelList = NULL;
pRoamProfile->ChannelInfo.numOfChannels = 0;
}
if ((WLAN_HDD_IBSS == pAdapter->device_mode)
&& operatingChannel) {
/*
* Need to post the IBSS power save parameters
* to WMA. WMA will configure this parameters
* to firmware if power save is enabled by the
* firmware.
*/
status = hdd_set_ibss_power_save_params(pAdapter);
if (CDF_STATUS_SUCCESS != status) {
hddLog(LOGE,
FL("Set IBSS Power Save Params Failed"));
return -EINVAL;
}
hdd_select_cbmode(pAdapter, operatingChannel);
}
if (pHddCtx->config->policy_manager_enabled &&
(true == cds_is_connection_in_progress(pHddCtx))) {
hdd_err("Connection refused: conn in progress");
return -EINVAL;
}
/* change conn_state to connecting before sme_roam_connect(), because sme_roam_connect()
* has a direct path to call hdd_sme_roam_callback(), which will change the conn_state
* If direct path, conn_state will be accordingly changed to NotConnected or Associated
* by either hdd_association_completion_handler() or hdd_dis_connect_handler() in sme_RoamCallback()
* if sme_RomConnect is to be queued, Connecting state will remain until it is completed.
*/
if (WLAN_HDD_INFRA_STATION == pAdapter->device_mode ||
WLAN_HDD_P2P_CLIENT == pAdapter->device_mode) {
hddLog(LOG1,
FL("Set HDD connState to eConnectionState_Connecting"));
hdd_conn_set_connection_state(pAdapter,
eConnectionState_Connecting);
}
/* After 8-way handshake supplicant should give the scan command
* in that it update the additional IEs, But because of scan
* enhancements, the supplicant is not issuing the scan command now.
* So the unicast frames which are sent from the host are not having
* the additional IEs. If it is P2P CLIENT and there is no additional
* IE present in roamProfile, then use the addtional IE form scan_info
*/
if ((pAdapter->device_mode == WLAN_HDD_P2P_CLIENT) &&
(!pRoamProfile->pAddIEScan)) {
pRoamProfile->pAddIEScan =
&pAdapter->scan_info.scanAddIE.addIEdata[0];
pRoamProfile->nAddIEScanLength =
pAdapter->scan_info.scanAddIE.length;
}
/*
* When policy manager is enabled from ini file, we shouldn't
* check for other concurrency rules.
*/
if (!pHddCtx->config->policy_manager_enabled) {
cds_handle_conc_rule1(pHddCtx, pAdapter,
pRoamProfile);
if (true != cds_handle_conc_rule2(pHddCtx,
pAdapter, pRoamProfile, &roamId))
return 0;
}
sme_config = cdf_mem_malloc(sizeof(*sme_config));
if (!sme_config) {
hdd_err("unable to allocate sme_config");
return -ENOMEM;
}
cdf_mem_zero(sme_config, sizeof(*sme_config));
sme_get_config_param(pHddCtx->hHal, sme_config);
/* These values are not sessionized. So, any change in these SME
* configs on an older or parallel interface will affect the
* cb mode. So, restoring the default INI params before starting
* interfaces such as sta, cli etc.,
*/
sme_config->csrConfig.channelBondingMode5GHz =
pHddCtx->config->nChannelBondingMode5GHz;
sme_config->csrConfig.channelBondingMode24GHz =
pHddCtx->config->nChannelBondingMode24GHz;
sme_update_config(pHddCtx->hHal, sme_config);
cdf_mem_free(sme_config);
status = sme_roam_connect(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, pRoamProfile,
&roamId);
if ((CDF_STATUS_SUCCESS != status) &&
(WLAN_HDD_INFRA_STATION == pAdapter->device_mode ||
WLAN_HDD_P2P_CLIENT == pAdapter->device_mode)) {
hddLog(LOGE,
FL("sme_roam_connect (session %d) failed with "
"status %d. -> NotConnected"),
pAdapter->sessionId, status);
/* change back to NotAssociated */
hdd_conn_set_connection_state(pAdapter,
eConnectionState_NotConnected);
}
pRoamProfile->ChannelInfo.ChannelList = NULL;
pRoamProfile->ChannelInfo.numOfChannels = 0;
} else {
hddLog(LOGE, FL("No valid Roam profile"));
return -EINVAL;
}
EXIT();
return status;
}
/**
* wlan_hdd_cfg80211_set_auth_type() - set auth type
* @pAdapter: Pointer to adapter
* @auth_type: Auth type
*
* This function is used to set the authentication type (OPEN/SHARED).
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_set_auth_type(hdd_adapter_t *pAdapter,
enum nl80211_auth_type auth_type)
{
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
ENTER();
/*set authentication type */
switch (auth_type) {
case NL80211_AUTHTYPE_AUTOMATIC:
hddLog(LOG1,
FL("set authentication type to AUTOSWITCH"));
pHddStaCtx->conn_info.authType = eCSR_AUTH_TYPE_AUTOSWITCH;
break;
case NL80211_AUTHTYPE_OPEN_SYSTEM:
#ifdef WLAN_FEATURE_VOWIFI_11R
case NL80211_AUTHTYPE_FT:
#endif /* WLAN_FEATURE_VOWIFI_11R */
hddLog(LOG1,
FL("set authentication type to OPEN"));
pHddStaCtx->conn_info.authType = eCSR_AUTH_TYPE_OPEN_SYSTEM;
break;
case NL80211_AUTHTYPE_SHARED_KEY:
hddLog(LOG1,
FL("set authentication type to SHARED"));
pHddStaCtx->conn_info.authType = eCSR_AUTH_TYPE_SHARED_KEY;
break;
#ifdef FEATURE_WLAN_ESE
case NL80211_AUTHTYPE_NETWORK_EAP:
hddLog(LOG1,
FL("set authentication type to CCKM WPA"));
pHddStaCtx->conn_info.authType = eCSR_AUTH_TYPE_CCKM_WPA;
break;
#endif
default:
hddLog(LOGE,
FL("Unsupported authentication type %d"), auth_type);
pHddStaCtx->conn_info.authType = eCSR_AUTH_TYPE_UNKNOWN;
return -EINVAL;
}
pWextState->roamProfile.AuthType.authType[0] =
pHddStaCtx->conn_info.authType;
return 0;
}
/**
* wlan_hdd_set_akm_suite() - set key management type
* @pAdapter: Pointer to adapter
* @key_mgmt: Key management type
*
* This function is used to set the key mgmt type(PSK/8021x).
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_set_akm_suite(hdd_adapter_t *pAdapter, u32 key_mgmt)
{
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
ENTER();
#define WLAN_AKM_SUITE_8021X_SHA256 0x000FAC05
#define WLAN_AKM_SUITE_PSK_SHA256 0x000FAC06
/*set key mgmt type */
switch (key_mgmt) {
case WLAN_AKM_SUITE_PSK:
case WLAN_AKM_SUITE_PSK_SHA256:
#ifdef WLAN_FEATURE_VOWIFI_11R
case WLAN_AKM_SUITE_FT_PSK:
#endif
hddLog(LOG1, FL("setting key mgmt type to PSK"));
pWextState->authKeyMgmt |= IW_AUTH_KEY_MGMT_PSK;
break;
case WLAN_AKM_SUITE_8021X_SHA256:
case WLAN_AKM_SUITE_8021X:
#ifdef WLAN_FEATURE_VOWIFI_11R
case WLAN_AKM_SUITE_FT_8021X:
#endif
hddLog(LOG1,
FL("setting key mgmt type to 8021x"));
pWextState->authKeyMgmt |= IW_AUTH_KEY_MGMT_802_1X;
break;
#ifdef FEATURE_WLAN_ESE
#define WLAN_AKM_SUITE_CCKM 0x00409600 /* Should be in ieee802_11_defs.h */
#define IW_AUTH_KEY_MGMT_CCKM 8 /* Should be in linux/wireless.h */
case WLAN_AKM_SUITE_CCKM:
hddLog(LOG1,
FL("setting key mgmt type to CCKM"));
pWextState->authKeyMgmt |= IW_AUTH_KEY_MGMT_CCKM;
break;
#endif
#ifndef WLAN_AKM_SUITE_OSEN
#define WLAN_AKM_SUITE_OSEN 0x506f9a01 /* Should be in ieee802_11_defs.h */
#endif
case WLAN_AKM_SUITE_OSEN:
hddLog(LOG1,
FL("setting key mgmt type to OSEN"));
pWextState->authKeyMgmt |= IW_AUTH_KEY_MGMT_802_1X;
break;
default:
hddLog(LOGE,
FL("Unsupported key mgmt type %d"), key_mgmt);
return -EINVAL;
}
return 0;
}
/**
* wlan_hdd_cfg80211_set_cipher() - set encryption type
* @pAdapter: Pointer to adapter
* @cipher: Cipher type
* @ucast: Unicast flag
*
* This function is used to set the encryption type
* (NONE/WEP40/WEP104/TKIP/CCMP).
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_set_cipher(hdd_adapter_t *pAdapter,
u32 cipher, bool ucast)
{
eCsrEncryptionType encryptionType = eCSR_ENCRYPT_TYPE_NONE;
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
ENTER();
if (!cipher) {
hddLog(LOGE,
FL("received cipher %d - considering none"), cipher);
encryptionType = eCSR_ENCRYPT_TYPE_NONE;
} else {
/*set encryption method */
switch (cipher) {
case IW_AUTH_CIPHER_NONE:
encryptionType = eCSR_ENCRYPT_TYPE_NONE;
break;
case WLAN_CIPHER_SUITE_WEP40:
encryptionType = eCSR_ENCRYPT_TYPE_WEP40;
break;
case WLAN_CIPHER_SUITE_WEP104:
encryptionType = eCSR_ENCRYPT_TYPE_WEP104;
break;
case WLAN_CIPHER_SUITE_TKIP:
encryptionType = eCSR_ENCRYPT_TYPE_TKIP;
break;
case WLAN_CIPHER_SUITE_CCMP:
encryptionType = eCSR_ENCRYPT_TYPE_AES;
break;
#ifdef FEATURE_WLAN_WAPI
case WLAN_CIPHER_SUITE_SMS4:
encryptionType = eCSR_ENCRYPT_TYPE_WPI;
break;
#endif
#ifdef FEATURE_WLAN_ESE
case WLAN_CIPHER_SUITE_KRK:
encryptionType = eCSR_ENCRYPT_TYPE_KRK;
break;
#ifdef WLAN_FEATURE_ROAM_OFFLOAD
case WLAN_CIPHER_SUITE_BTK:
encryptionType = eCSR_ENCRYPT_TYPE_BTK;
break;
#endif
#endif
default:
hddLog(LOGE,
FL("Unsupported cipher type %d"), cipher);
return -EOPNOTSUPP;
}
}
if (ucast) {
hddLog(LOG1,
FL("setting unicast cipher type to %d"), encryptionType);
pHddStaCtx->conn_info.ucEncryptionType = encryptionType;
pWextState->roamProfile.EncryptionType.numEntries = 1;
pWextState->roamProfile.EncryptionType.encryptionType[0] =
encryptionType;
} else {
hddLog(LOG1,
FL("setting mcast cipher type to %d"), encryptionType);
pHddStaCtx->conn_info.mcEncryptionType = encryptionType;
pWextState->roamProfile.mcEncryptionType.numEntries = 1;
pWextState->roamProfile.mcEncryptionType.encryptionType[0] =
encryptionType;
}
return 0;
}
/**
* wlan_hdd_cfg80211_set_ie() - set IEs
* @pAdapter: Pointer to adapter
* @ie: Pointer ot ie
* @ie: IE length
*
* Return: 0 for success, non-zero for failure
*/
int wlan_hdd_cfg80211_set_ie(hdd_adapter_t *pAdapter, const uint8_t *ie,
size_t ie_len)
{
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
const uint8_t *genie = ie;
uint16_t remLen = ie_len;
#ifdef FEATURE_WLAN_WAPI
uint32_t akmsuite[MAX_NUM_AKM_SUITES];
u16 *tmp;
uint16_t akmsuiteCount;
int *akmlist;
#endif
ENTER();
/* clear previous assocAddIE */
pWextState->assocAddIE.length = 0;
pWextState->roamProfile.bWPSAssociation = false;
pWextState->roamProfile.bOSENAssociation = false;
while (remLen >= 2) {
uint16_t eLen = 0;
uint8_t elementId;
elementId = *genie++;
eLen = *genie++;
remLen -= 2;
hddLog(LOG1, FL("IE[0x%X], LEN[%d]"), elementId, eLen);
switch (elementId) {
case DOT11F_EID_WPA:
if (4 > eLen) { /* should have at least OUI which is 4 bytes so extra 2 bytes not needed */
hddLog(LOGE, FL("Invalid WPA IE"));
return -EINVAL;
} else if (0 ==
memcmp(&genie[0], "\x00\x50\xf2\x04", 4)) {
uint16_t curAddIELen =
pWextState->assocAddIE.length;
hddLog(LOG1,
FL("Set WPS IE(len %d)"), eLen + 2);
if (SIR_MAC_MAX_ADD_IE_LENGTH <
(pWextState->assocAddIE.length + eLen)) {
hddLog(LOGE,
FL("Cannot accommodate assocAddIE. Need bigger buffer space"));
CDF_ASSERT(0);
return -ENOMEM;
}
/* WSC IE is saved to Additional IE ; it should be accumulated to handle WPS IE + P2P IE */
memcpy(pWextState->assocAddIE.addIEdata +
curAddIELen, genie - 2, eLen + 2);
pWextState->assocAddIE.length += eLen + 2;
pWextState->roamProfile.bWPSAssociation = true;
pWextState->roamProfile.pAddIEAssoc =
pWextState->assocAddIE.addIEdata;
pWextState->roamProfile.nAddIEAssocLength =
pWextState->assocAddIE.length;
} else if (0 == memcmp(&genie[0], "\x00\x50\xf2", 3)) {
hddLog(LOG1,
FL("Set WPA IE (len %d)"), eLen + 2);
memset(pWextState->WPARSNIE, 0,
MAX_WPA_RSN_IE_LEN);
memcpy(pWextState->WPARSNIE, genie - 2,
(eLen + 2));
pWextState->roamProfile.pWPAReqIE =
pWextState->WPARSNIE;
pWextState->roamProfile.nWPAReqIELength = eLen + 2; /* ie_len; */
} else if ((0 == memcmp(&genie[0], P2P_OUI_TYPE,
P2P_OUI_TYPE_SIZE))) {
uint16_t curAddIELen =
pWextState->assocAddIE.length;
hddLog(LOG1,
FL("Set P2P IE(len %d)"), eLen + 2);
if (SIR_MAC_MAX_ADD_IE_LENGTH <
(pWextState->assocAddIE.length + eLen)) {
hddLog(LOGE,
FL("Cannot accommodate assocAddIE Need bigger buffer space"));
CDF_ASSERT(0);
return -ENOMEM;
}
/* P2P IE is saved to Additional IE ; it should be accumulated to handle WPS IE + P2P IE */
memcpy(pWextState->assocAddIE.addIEdata +
curAddIELen, genie - 2, eLen + 2);
pWextState->assocAddIE.length += eLen + 2;
pWextState->roamProfile.pAddIEAssoc =
pWextState->assocAddIE.addIEdata;
pWextState->roamProfile.nAddIEAssocLength =
pWextState->assocAddIE.length;
}
#ifdef WLAN_FEATURE_WFD
else if ((0 == memcmp(&genie[0], WFD_OUI_TYPE,
WFD_OUI_TYPE_SIZE)) &&
/* Consider WFD IE, only for P2P Client */
(WLAN_HDD_P2P_CLIENT ==
pAdapter->device_mode)) {
uint16_t curAddIELen =
pWextState->assocAddIE.length;
hddLog(LOG1,
FL("Set WFD IE(len %d)"), eLen + 2);
if (SIR_MAC_MAX_ADD_IE_LENGTH <
(pWextState->assocAddIE.length + eLen)) {
hddLog(LOGE,
FL("Cannot accommodate assocAddIE Need bigger buffer space"));
CDF_ASSERT(0);
return -ENOMEM;
}
/* WFD IE is saved to Additional IE ; it should
* be accumulated to handle WPS IE + P2P IE +
* WFD IE */
memcpy(pWextState->assocAddIE.addIEdata +
curAddIELen, genie - 2, eLen + 2);
pWextState->assocAddIE.length += eLen + 2;
pWextState->roamProfile.pAddIEAssoc =
pWextState->assocAddIE.addIEdata;
pWextState->roamProfile.nAddIEAssocLength =
pWextState->assocAddIE.length;
}
#endif
/* Appending HS 2.0 Indication Element in Assiciation Request */
else if ((0 == memcmp(&genie[0], HS20_OUI_TYPE,
HS20_OUI_TYPE_SIZE))) {
uint16_t curAddIELen =
pWextState->assocAddIE.length;
hddLog(LOG1,
FL("Set HS20 IE(len %d)"), eLen + 2);
if (SIR_MAC_MAX_ADD_IE_LENGTH <
(pWextState->assocAddIE.length + eLen)) {
hddLog(LOGE,
FL("Cannot accommodate assocAddIE Need bigger buffer space"));
CDF_ASSERT(0);
return -ENOMEM;
}
memcpy(pWextState->assocAddIE.addIEdata +
curAddIELen, genie - 2, eLen + 2);
pWextState->assocAddIE.length += eLen + 2;
pWextState->roamProfile.pAddIEAssoc =
pWextState->assocAddIE.addIEdata;
pWextState->roamProfile.nAddIEAssocLength =
pWextState->assocAddIE.length;
}
/* Appending OSEN Information Element in Assiciation Request */
else if ((0 == memcmp(&genie[0], OSEN_OUI_TYPE,
OSEN_OUI_TYPE_SIZE))) {
uint16_t curAddIELen =
pWextState->assocAddIE.length;
hddLog(LOG1,
FL("Set OSEN IE(len %d)"), eLen + 2);
if (SIR_MAC_MAX_ADD_IE_LENGTH <
(pWextState->assocAddIE.length + eLen)) {
hddLog(LOGE,
FL("Cannot accommodate assocAddIE Need bigger buffer space"));
CDF_ASSERT(0);
return -ENOMEM;
}
memcpy(pWextState->assocAddIE.addIEdata +
curAddIELen, genie - 2, eLen + 2);
pWextState->assocAddIE.length += eLen + 2;
pWextState->roamProfile.bOSENAssociation = true;
pWextState->roamProfile.pAddIEAssoc =
pWextState->assocAddIE.addIEdata;
pWextState->roamProfile.nAddIEAssocLength =
pWextState->assocAddIE.length;
} else {
uint16_t add_ie_len =
pWextState->assocAddIE.length;
hdd_info("Set OSEN IE(len %d)", eLen + 2);
if (SIR_MAC_MAX_ADD_IE_LENGTH <
(pWextState->assocAddIE.length + eLen)) {
hdd_err("Cannot accommodate assocAddIE Need bigger buffer space");
CDF_ASSERT(0);
return -ENOMEM;
}
memcpy(pWextState->assocAddIE.addIEdata +
add_ie_len, genie - 2, eLen + 2);
pWextState->assocAddIE.length += eLen + 2;
pWextState->roamProfile.pAddIEAssoc =
pWextState->assocAddIE.addIEdata;
pWextState->roamProfile.nAddIEAssocLength =
pWextState->assocAddIE.length;
}
break;
case DOT11F_EID_RSN:
hddLog(LOG1, FL("Set RSN IE(len %d)"), eLen + 2);
memset(pWextState->WPARSNIE, 0, MAX_WPA_RSN_IE_LEN);
memcpy(pWextState->WPARSNIE, genie - 2,
(eLen + 2));
pWextState->roamProfile.pRSNReqIE =
pWextState->WPARSNIE;
pWextState->roamProfile.nRSNReqIELength = eLen + 2; /* ie_len; */
break;
/*
* Appending Extended Capabilities with Interworking bit set
* in Assoc Req.
*
* In assoc req this EXT Cap will only be taken into account if
* interworkingService bit is set to 1. Currently
* driver is only interested in interworkingService capability
* from supplicant. If in future any other EXT Cap info is
* required from supplicat, it needs to be handled while
* sending Assoc Req in LIM.
*/
case DOT11F_EID_EXTCAP:
{
uint16_t curAddIELen =
pWextState->assocAddIE.length;
hddLog(LOG1,
FL("Set Extended CAPS IE(len %d)"), eLen + 2);
if (SIR_MAC_MAX_ADD_IE_LENGTH <
(pWextState->assocAddIE.length + eLen)) {
hddLog(LOGE, FL("Cannot accommodate assocAddIE Need bigger buffer space"));
CDF_ASSERT(0);
return -ENOMEM;
}
memcpy(pWextState->assocAddIE.addIEdata +
curAddIELen, genie - 2, eLen + 2);
pWextState->assocAddIE.length += eLen + 2;
pWextState->roamProfile.pAddIEAssoc =
pWextState->assocAddIE.addIEdata;
pWextState->roamProfile.nAddIEAssocLength =
pWextState->assocAddIE.length;
break;
}
#ifdef FEATURE_WLAN_WAPI
case WLAN_EID_WAPI:
/* Setting WAPI Mode to ON=1 */
pAdapter->wapi_info.nWapiMode = 1;
hddLog(LOG1,
FL("WAPI MODE IS %u"), pAdapter->wapi_info.nWapiMode);
tmp = (u16 *) ie;
tmp = tmp + 2; /* Skip element Id and Len, Version */
akmsuiteCount = WPA_GET_LE16(tmp);
tmp = tmp + 1;
akmlist = (int *)(tmp);
if (akmsuiteCount <= MAX_NUM_AKM_SUITES) {
memcpy(akmsuite, akmlist, (4 * akmsuiteCount));
} else {
hddLog(LOGE,
FL("Invalid akmSuite count"));
CDF_ASSERT(0);
return -EINVAL;
}
if (WAPI_PSK_AKM_SUITE == akmsuite[0]) {
hddLog(LOG1,
FL("WAPI AUTH MODE SET TO PSK"));
pAdapter->wapi_info.wapiAuthMode =
WAPI_AUTH_MODE_PSK;
}
if (WAPI_CERT_AKM_SUITE == akmsuite[0]) {
hddLog(LOG1,
FL("WAPI AUTH MODE SET TO CERTIFICATE"));
pAdapter->wapi_info.wapiAuthMode =
WAPI_AUTH_MODE_CERT;
}
break;
#endif
default:
hddLog(LOGE,
FL("Set UNKNOWN IE %X"), elementId);
/* when Unknown IE is received we should break and continue
* to the next IE in the buffer instead we were returning
* so changing this to break */
break;
}
genie += eLen;
remLen -= eLen;
}
EXIT();
return 0;
}
/**
* hdd_is_wpaie_present() - check for WPA ie
* @ie: Pointer to ie
* @ie_len: Ie length
*
* Parse the received IE to find the WPA IE
*
* Return: true if wpa ie is found else false
*/
static bool hdd_is_wpaie_present(const uint8_t *ie, uint8_t ie_len)
{
uint8_t eLen = 0;
uint16_t remLen = ie_len;
uint8_t elementId = 0;
while (remLen >= 2) {
elementId = *ie++;
eLen = *ie++;
remLen -= 2;
if (eLen > remLen) {
hddLog(CDF_TRACE_LEVEL_ERROR,
"%s: IE length is wrong %d", __func__, eLen);
return false;
}
if ((elementId == DOT11F_EID_WPA) && (remLen > 5)) {
/* OUI - 0x00 0X50 0XF2
* WPA Information Element - 0x01
* WPA version - 0x01
*/
if (0 == memcmp(&ie[0], "\x00\x50\xf2\x01\x01", 5))
return true;
}
ie += eLen;
remLen -= eLen;
}
return false;
}
/**
* wlan_hdd_cfg80211_set_privacy() - set security parameters during connection
* @pAdapter: Pointer to adapter
* @req: Pointer to security parameters
*
* Return: 0 for success, non-zero for failure
*/
int wlan_hdd_cfg80211_set_privacy(hdd_adapter_t *pAdapter,
struct cfg80211_connect_params *req)
{
int status = 0;
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
ENTER();
/*set wpa version */
pWextState->wpaVersion = IW_AUTH_WPA_VERSION_DISABLED;
if (req->crypto.wpa_versions) {
if (NL80211_WPA_VERSION_1 == req->crypto.wpa_versions) {
pWextState->wpaVersion = IW_AUTH_WPA_VERSION_WPA;
} else if (NL80211_WPA_VERSION_2 == req->crypto.wpa_versions) {
pWextState->wpaVersion = IW_AUTH_WPA_VERSION_WPA2;
}
}
hddLog(LOG1, FL("set wpa version to %d"), pWextState->wpaVersion);
/*set authentication type */
status = wlan_hdd_cfg80211_set_auth_type(pAdapter, req->auth_type);
if (0 > status) {
hddLog(LOGE, FL("failed to set authentication type "));
return status;
}
/*set key mgmt type */
if (req->crypto.n_akm_suites) {
status =
wlan_hdd_set_akm_suite(pAdapter, req->crypto.akm_suites[0]);
if (0 > status) {
hddLog(LOGE, FL("failed to set akm suite"));
return status;
}
}
/*set pairwise cipher type */
if (req->crypto.n_ciphers_pairwise) {
status = wlan_hdd_cfg80211_set_cipher(pAdapter,
req->crypto.
ciphers_pairwise[0],
true);
if (0 > status) {
hddLog(LOGE, FL("failed to set unicast cipher type"));
return status;
}
} else {
/*Reset previous cipher suite to none */
status = wlan_hdd_cfg80211_set_cipher(pAdapter, 0, true);
if (0 > status) {
hddLog(LOGE, FL("failed to set unicast cipher type"));
return status;
}
}
/*set group cipher type */
status =
wlan_hdd_cfg80211_set_cipher(pAdapter, req->crypto.cipher_group,
false);
if (0 > status) {
hddLog(LOGE, FL("failed to set mcast cipher type"));
return status;
}
#ifdef WLAN_FEATURE_11W
pWextState->roamProfile.MFPEnabled = (req->mfp == NL80211_MFP_REQUIRED);
#endif
/*parse WPA/RSN IE, and set the correspoing fileds in Roam profile */
if (req->ie_len) {
status =
wlan_hdd_cfg80211_set_ie(pAdapter, req->ie, req->ie_len);
if (0 > status) {
hddLog(LOGE, FL("failed to parse the WPA/RSN IE"));
return status;
}
}
/*incase of WEP set default key information */
if (req->key && req->key_len) {
if ((WLAN_CIPHER_SUITE_WEP40 == req->crypto.ciphers_pairwise[0])
|| (WLAN_CIPHER_SUITE_WEP104 ==
req->crypto.ciphers_pairwise[0])
) {
if (IW_AUTH_KEY_MGMT_802_1X
==
(pWextState->
authKeyMgmt & IW_AUTH_KEY_MGMT_802_1X)) {
hddLog(LOGE,
FL("Dynamic WEP not supported"));
return -EOPNOTSUPP;
} else {
u8 key_len = req->key_len;
u8 key_idx = req->key_idx;
if ((eCSR_SECURITY_WEP_KEYSIZE_MAX_BYTES >=
key_len)
&& (CSR_MAX_NUM_KEY > key_idx)
) {
hddLog(LOG1,
FL("setting default wep key, key_idx = %hu key_len %hu"),
key_idx, key_len);
cdf_mem_copy(&pWextState->roamProfile.
Keys.
KeyMaterial[key_idx][0],
req->key, key_len);
pWextState->roamProfile.Keys.
KeyLength[key_idx] = (u8) key_len;
pWextState->roamProfile.Keys.
defaultIndex = (u8) key_idx;
}
}
}
}
return status;
}
/**
* wlan_hdd_try_disconnect() - try disconnnect from previous connection
* @pAdapter: Pointer to adapter
*
* This function is used to disconnect from previous connection
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_try_disconnect(hdd_adapter_t *pAdapter)
{
unsigned long rc;
hdd_station_ctx_t *pHddStaCtx;
eMib_dot11DesiredBssType connectedBssType;
pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
hdd_conn_get_connected_bss_type(pHddStaCtx, &connectedBssType);
if ((eMib_dot11DesiredBssType_independent == connectedBssType) ||
(eConnectionState_Associated == pHddStaCtx->conn_info.connState) ||
(eConnectionState_IbssConnected == pHddStaCtx->conn_info.connState)) {
hdd_conn_set_connection_state(pAdapter,
eConnectionState_Disconnecting);
/* Issue disconnect to CSR */
INIT_COMPLETION(pAdapter->disconnect_comp_var);
if (CDF_STATUS_SUCCESS ==
sme_roam_disconnect(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId,
eCSR_DISCONNECT_REASON_UNSPECIFIED)) {
rc = wait_for_completion_timeout(&pAdapter->
disconnect_comp_var,
msecs_to_jiffies
(WLAN_WAIT_TIME_DISCONNECT));
if (!rc) {
hddLog(LOGE,
FL("Sme disconnect event timed out session Id %d staDebugState %d"),
pAdapter->sessionId,
pHddStaCtx->staDebugState);
return -EALREADY;
}
}
} else if (eConnectionState_Disconnecting ==
pHddStaCtx->conn_info.connState) {
rc = wait_for_completion_timeout(&pAdapter->disconnect_comp_var,
msecs_to_jiffies
(WLAN_WAIT_TIME_DISCONNECT));
if (!rc) {
hddLog(LOGE,
FL("Disconnect event timed out session Id %d staDebugState %d"),
pAdapter->sessionId, pHddStaCtx->staDebugState);
return -EALREADY;
}
}
return 0;
}
/**
* __wlan_hdd_cfg80211_connect() - cfg80211 connect api
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @req: Pointer to cfg80211 connect request
*
* This function is used to start the association process
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_connect(struct wiphy *wiphy,
struct net_device *ndev,
struct cfg80211_connect_params *req)
{
int status;
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(ndev);
hdd_context_t *pHddCtx;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_CONNECT,
pAdapter->sessionId, pAdapter->device_mode));
hddLog(LOG1, FL("Device_mode %s(%d)"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
if (pAdapter->device_mode != WLAN_HDD_INFRA_STATION &&
pAdapter->device_mode != WLAN_HDD_P2P_CLIENT) {
hddLog(LOGE, FL("Device_mode %s(%d) is not supported"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
return -EINVAL;
}
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
if (!pHddCtx) {
hddLog(LOGE, FL("HDD context is null"));
return -EINVAL;
}
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
if (req->channel) {
if (!cds_allow_concurrency(pHddCtx,
cds_convert_device_mode_to_hdd_type(
pAdapter->device_mode),
req->channel->hw_value, HW_MODE_20_MHZ)) {
hdd_err("This concurrency combination is not allowed");
return -ECONNREFUSED;
}
} else {
if (!cds_allow_concurrency(pHddCtx,
cds_convert_device_mode_to_hdd_type(
pAdapter->device_mode), 0, HW_MODE_20_MHZ)) {
hdd_err("This concurrency combination is not allowed");
return -ECONNREFUSED;
}
}
#if defined(FEATURE_WLAN_LFR)
wlan_hdd_disable_roaming(pAdapter);
#endif
/*Try disconnecting if already in connected state */
status = wlan_hdd_try_disconnect(pAdapter);
if (0 > status) {
hddLog(LOGE,
FL("Failed to disconnect the existing connection"));
return -EALREADY;
}
/*initialise security parameters */
status = wlan_hdd_cfg80211_set_privacy(pAdapter, req);
if (0 > status) {
hddLog(LOGE,
FL("failed to set security params"));
return status;
}
if (req->channel) {
status = wlan_hdd_cfg80211_connect_start(pAdapter, req->ssid,
req->ssid_len,
req->bssid,
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 15, 0)) || \
defined(CFG80211_BSSID_HINT_BACKPORT)
req->bssid_hint,
#else
NULL,
#endif
req->channel->
hw_value);
} else {
status = wlan_hdd_cfg80211_connect_start(pAdapter, req->ssid,
req->ssid_len,
req->bssid,
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 15, 0)) || \
defined(CFG80211_BSSID_HINT_BACKPORT)
req->bssid_hint,
#else
NULL,
#endif
0);
}
if (0 > status) {
hddLog(LOGE, FL("connect failed"));
return status;
}
EXIT();
return status;
}
/**
* wlan_hdd_cfg80211_connect() - cfg80211 connect api
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @req: Pointer to cfg80211 connect request
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_connect(struct wiphy *wiphy,
struct net_device *ndev,
struct cfg80211_connect_params *req)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_connect(wiphy, ndev, req);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* wlan_hdd_disconnect() - hdd disconnect api
* @pAdapter: Pointer to adapter
* @reason: Disconnect reason code
*
* This function is used to issue a disconnect request to SME
*
* Return: 0 for success, non-zero for failure
*/
int wlan_hdd_disconnect(hdd_adapter_t *pAdapter, u16 reason)
{
int status, result = 0;
unsigned long rc;
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE,
FL("HDD context is not valid"));
return status;
}
/*stop tx queues */
hddLog(LOG1, FL("Disabling queues"));
wlan_hdd_netif_queue_control(pAdapter, WLAN_NETIF_TX_DISABLE_N_CARRIER,
WLAN_CONTROL_PATH);
hddLog(LOG1,
FL("Set HDD connState to eConnectionState_Disconnecting"));
pHddStaCtx->conn_info.connState = eConnectionState_Disconnecting;
INIT_COMPLETION(pAdapter->disconnect_comp_var);
/*issue disconnect */
status = sme_roam_disconnect(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId, reason);
if (CDF_STATUS_CMD_NOT_QUEUED == status) {
hddLog(LOG1, FL("status = %d, already disconnected"),
(int)status);
goto disconnected;
} else if (0 != status) {
hddLog(LOGE,
FL("csr_roam_disconnect failure, returned %d"),
(int)status);
pHddStaCtx->staDebugState = status;
result = -EINVAL;
goto disconnected;
}
rc = wait_for_completion_timeout(&pAdapter->disconnect_comp_var,
msecs_to_jiffies
(WLAN_WAIT_TIME_DISCONNECT));
if (!rc) {
hddLog(LOGE,
FL("Failed to disconnect, timed out"));
result = -ETIMEDOUT;
}
disconnected:
hddLog(LOG1,
FL("Set HDD connState to eConnectionState_NotConnected"));
hdd_conn_set_connection_state(pAdapter, eConnectionState_NotConnected);
#if LINUX_VERSION_CODE >= KERNEL_VERSION(3, 11, 0)
/* Sending disconnect event to userspace for kernel version < 3.11
* is handled by __cfg80211_disconnect call to __cfg80211_disconnected
*/
hddLog(LOG1, FL("Send disconnected event to userspace"));
cfg80211_disconnected(pAdapter->dev, WLAN_REASON_UNSPECIFIED,
NULL, 0, GFP_KERNEL);
#endif
return result;
}
/**
* __wlan_hdd_cfg80211_disconnect() - cfg80211 disconnect api
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @reason: Disconnect reason code
*
* This function is used to issue a disconnect request to SME
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_disconnect(struct wiphy *wiphy,
struct net_device *dev, u16 reason)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
int status;
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
#ifdef FEATURE_WLAN_TDLS
uint8_t staIdx;
#endif
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_DISCONNECT,
pAdapter->sessionId, reason));
hddLog(LOG1, FL("Device_mode %s(%d) reason code(%d)"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode, reason);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
/* Issue disconnect request to SME, if station is in connected state */
if ((pHddStaCtx->conn_info.connState == eConnectionState_Associated) ||
(pHddStaCtx->conn_info.connState == eConnectionState_Connecting)) {
eCsrRoamDisconnectReason reasonCode =
eCSR_DISCONNECT_REASON_UNSPECIFIED;
hdd_scaninfo_t *pScanInfo;
switch (reason) {
case WLAN_REASON_MIC_FAILURE:
reasonCode = eCSR_DISCONNECT_REASON_MIC_ERROR;
break;
case WLAN_REASON_DISASSOC_DUE_TO_INACTIVITY:
case WLAN_REASON_DISASSOC_AP_BUSY:
case WLAN_REASON_CLASS3_FRAME_FROM_NONASSOC_STA:
reasonCode = eCSR_DISCONNECT_REASON_DISASSOC;
break;
case WLAN_REASON_PREV_AUTH_NOT_VALID:
case WLAN_REASON_CLASS2_FRAME_FROM_NONAUTH_STA:
reasonCode = eCSR_DISCONNECT_REASON_DEAUTH;
break;
case WLAN_REASON_DEAUTH_LEAVING:
reasonCode =
pHddCtx->config->
gEnableDeauthToDisassocMap ?
eCSR_DISCONNECT_REASON_STA_HAS_LEFT :
eCSR_DISCONNECT_REASON_DEAUTH;
break;
case WLAN_REASON_DISASSOC_STA_HAS_LEFT:
reasonCode = eCSR_DISCONNECT_REASON_STA_HAS_LEFT;
break;
default:
reasonCode = eCSR_DISCONNECT_REASON_UNSPECIFIED;
break;
}
hddLog(LOG1,
FL("convert to internal reason %d to reasonCode %d"),
reason, reasonCode);
pHddStaCtx->conn_info.connState = eConnectionState_NotConnected;
pScanInfo = &pAdapter->scan_info;
if (pScanInfo->mScanPending) {
hddLog(LOG1,
FL("Disconnect is in progress, Aborting Scan"));
hdd_abort_mac_scan(pHddCtx, pAdapter->sessionId,
eCSR_SCAN_ABORT_DEFAULT);
}
#ifdef FEATURE_WLAN_TDLS
/* First clean up the tdls peers if any */
for (staIdx = 0; staIdx < pHddCtx->max_num_tdls_sta; staIdx++) {
if ((pHddCtx->tdlsConnInfo[staIdx].sessionId ==
pAdapter->sessionId)
&& (pHddCtx->tdlsConnInfo[staIdx].staId)) {
uint8_t *mac;
mac =
pHddCtx->tdlsConnInfo[staIdx].peerMac.bytes;
hddLog(LOG1,
"%s: call sme_delete_tdls_peer_sta staId %d sessionId %d "
MAC_ADDRESS_STR, __func__,
pHddCtx->tdlsConnInfo[staIdx].staId,
pAdapter->sessionId,
MAC_ADDR_ARRAY(mac));
sme_delete_tdls_peer_sta(WLAN_HDD_GET_HAL_CTX
(pAdapter),
pAdapter->sessionId, mac);
}
}
#endif
hddLog(LOG1, FL("Disconnecting with reasoncode:%u"),
reasonCode);
status = wlan_hdd_disconnect(pAdapter, reasonCode);
if (0 != status) {
hddLog(LOGE,
FL("failure, returned %d"), status);
return -EINVAL;
}
} else {
hddLog(LOGE,
FL("unexpected cfg disconnect called while in state (%d)"),
pHddStaCtx->conn_info.connState);
}
return status;
}
/**
* wlan_hdd_cfg80211_disconnect() - cfg80211 disconnect api
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @reason: Disconnect reason code
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_disconnect(struct wiphy *wiphy,
struct net_device *dev, u16 reason)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_disconnect(wiphy, dev, reason);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* wlan_hdd_cfg80211_set_privacy_ibss() - set ibss privacy
* @pAdapter: Pointer to adapter
* @param: Pointer to IBSS parameters
*
* This function is used to initialize the security settings in IBSS mode
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_set_privacy_ibss(hdd_adapter_t *pAdapter,
struct cfg80211_ibss_params
*params)
{
int status = 0;
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
eCsrEncryptionType encryptionType = eCSR_ENCRYPT_TYPE_NONE;
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
ENTER();
pWextState->wpaVersion = IW_AUTH_WPA_VERSION_DISABLED;
cdf_mem_zero(&pHddStaCtx->ibss_enc_key, sizeof(tCsrRoamSetKey));
pHddStaCtx->ibss_enc_key_installed = 0;
if (params->ie_len && (NULL != params->ie)) {
if (wlan_hdd_cfg80211_get_ie_ptr(params->ie,
params->ie_len, WLAN_EID_RSN)) {
pWextState->wpaVersion = IW_AUTH_WPA_VERSION_WPA2;
encryptionType = eCSR_ENCRYPT_TYPE_AES;
} else if (hdd_is_wpaie_present(params->ie, params->ie_len)) {
tDot11fIEWPA dot11WPAIE;
tHalHandle halHandle = WLAN_HDD_GET_HAL_CTX(pAdapter);
u8 *ie;
memset(&dot11WPAIE, 0, sizeof(dot11WPAIE));
ie = wlan_hdd_cfg80211_get_ie_ptr(params->ie,
params->ie_len,
DOT11F_EID_WPA);
if (NULL != ie) {
pWextState->wpaVersion =
IW_AUTH_WPA_VERSION_WPA;
/* Unpack the WPA IE */
/* Skip past the EID byte and length byte - and four byte WiFi OUI */
dot11f_unpack_ie_wpa((tpAniSirGlobal) halHandle,
&ie[2 + 4],
ie[1] - 4, &dot11WPAIE);
/*Extract the multicast cipher, the encType for unicast
cipher for wpa-none is none */
encryptionType =
hdd_translate_wpa_to_csr_encryption_type
(dot11WPAIE.multicast_cipher);
}
}
status =
wlan_hdd_cfg80211_set_ie(pAdapter, params->ie,
params->ie_len);
if (0 > status) {
hddLog(LOGE, FL("failed to parse WPA/RSN IE"));
return status;
}
}
pWextState->roamProfile.AuthType.authType[0] =
pHddStaCtx->conn_info.authType = eCSR_AUTH_TYPE_OPEN_SYSTEM;
if (params->privacy) {
/* Security enabled IBSS, At this time there is no information
* available about the security paramters, so initialise the
* encryption type to eCSR_ENCRYPT_TYPE_WEP40_STATICKEY.
* The correct security parameters will be updated later in
* wlan_hdd_cfg80211_add_key Hal expects encryption type to be
* set inorder enable privacy bit in beacons
*/
encryptionType = eCSR_ENCRYPT_TYPE_WEP40_STATICKEY;
}
hddLog(LOG2, FL("encryptionType=%d"), encryptionType);
pHddStaCtx->conn_info.ucEncryptionType = encryptionType;
pWextState->roamProfile.EncryptionType.numEntries = 1;
pWextState->roamProfile.EncryptionType.encryptionType[0] =
encryptionType;
return status;
}
/**
* __wlan_hdd_cfg80211_join_ibss() - join ibss
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @param: Pointer to IBSS join parameters
*
* This function is used to create/join an IBSS network
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_join_ibss(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_ibss_params *params)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
tCsrRoamProfile *pRoamProfile;
int status;
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
struct cdf_mac_addr bssid;
u8 channelNum = 0;
p_cds_contextType p_cds_context;
ENTER();
p_cds_context = cds_get_global_context();
if (!p_cds_context) {
hdd_err("Invalid CDS context");
return -EINVAL;
}
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_JOIN_IBSS,
pAdapter->sessionId, pAdapter->device_mode));
hddLog(LOG1, FL("Device_mode %s(%d)"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
if (NULL !=
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 8, 0))
params->chandef.chan)
#else
params->channel)
#endif
{
uint32_t numChans = WNI_CFG_VALID_CHANNEL_LIST_LEN;
uint8_t validChan[WNI_CFG_VALID_CHANNEL_LIST_LEN];
tHalHandle hHal = WLAN_HDD_GET_HAL_CTX(pAdapter);
int indx;
/* Get channel number */
channelNum = ieee80211_frequency_to_channel(
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 8, 0))
params->
chandef.
chan->
center_freq);
#else
params->
channel->
center_freq);
#endif
if (0 != sme_cfg_get_str(hHal, WNI_CFG_VALID_CHANNEL_LIST,
validChan, &numChans)) {
hddLog(LOGE, FL("No valid channel list"));
return -EOPNOTSUPP;
}
for (indx = 0; indx < numChans; indx++) {
if (channelNum == validChan[indx]) {
break;
}
}
if (indx >= numChans) {
hddLog(LOGE,
FL("Not valid Channel %d"), channelNum);
return -EINVAL;
}
}
if (!cds_allow_concurrency(pHddCtx, CDS_IBSS_MODE, channelNum,
HW_MODE_20_MHZ)) {
hdd_err("This concurrency combination is not allowed");
return -ECONNREFUSED;
}
if (pHddCtx->config->policy_manager_enabled) {
status = cdf_event_reset(
&p_cds_context->connection_update_done_evt);
if (!CDF_IS_STATUS_SUCCESS(status))
hdd_err("ERR: clear event failed");
status = cds_current_connections_update(pHddCtx,
channelNum);
if (CDF_STATUS_E_FAILURE == status) {
hdd_err("ERROR: connections update failed!!");
return -EINVAL;
}
if (CDF_STATUS_SUCCESS == status) {
status = cdf_wait_single_event(
&p_cds_context->connection_update_done_evt,
CONNECTION_UPDATE_TIMEOUT);
if (!CDF_IS_STATUS_SUCCESS(status)) {
hdd_err("ERROR: cdf wait for event failed!!");
return -EINVAL;
}
}
}
/*Try disconnecting if already in connected state */
status = wlan_hdd_try_disconnect(pAdapter);
if (0 > status) {
hddLog(LOGE,
FL("Failed to disconnect the existing IBSS connection"));
return -EALREADY;
}
pRoamProfile = &pWextState->roamProfile;
if (eCSR_BSS_TYPE_START_IBSS != pRoamProfile->BSSType) {
hddLog(LOGE,
FL("Interface type is not set to IBSS"));
return -EINVAL;
}
/* enable selected protection checks in IBSS mode */
pRoamProfile->cfg_protection = IBSS_CFG_PROTECTION_ENABLE_MASK;
if (CDF_STATUS_E_FAILURE == sme_cfg_set_int(pHddCtx->hHal,
WNI_CFG_IBSS_ATIM_WIN_SIZE,
pHddCtx->config->
ibssATIMWinSize)) {
hddLog(LOGE,
FL("Could not pass on WNI_CFG_IBSS_ATIM_WIN_SIZE to CCM"));
}
/* BSSID is provided by upper layers hence no need to AUTO generate */
if (NULL != params->bssid) {
if (sme_cfg_set_int(pHddCtx->hHal, WNI_CFG_IBSS_AUTO_BSSID, 0)
== CDF_STATUS_E_FAILURE) {
hddLog(LOGE,
FL("ccmCfgStInt failed for WNI_CFG_IBSS_AUTO_BSSID"));
return -EIO;
}
cdf_mem_copy(bssid.bytes, params->bssid, CDF_MAC_ADDR_SIZE);
} else if (pHddCtx->config->isCoalesingInIBSSAllowed == 0) {
if (sme_cfg_set_int(pHddCtx->hHal, WNI_CFG_IBSS_AUTO_BSSID, 0)
== CDF_STATUS_E_FAILURE) {
hddLog(LOGE,
FL("ccmCfgStInt failed for WNI_CFG_IBSS_AUTO_BSSID"));
return -EIO;
}
cdf_copy_macaddr(&bssid, &pHddCtx->config->IbssBssid);
}
if ((params->beacon_interval > CFG_BEACON_INTERVAL_MIN)
&& (params->beacon_interval <= CFG_BEACON_INTERVAL_MAX))
pRoamProfile->beaconInterval = params->beacon_interval;
else {
pRoamProfile->beaconInterval = CFG_BEACON_INTERVAL_DEFAULT;
hddLog(LOG2,
FL("input beacon interval %d TU is invalid, use default %d TU"),
params->beacon_interval, pRoamProfile->beaconInterval);
}
/* Set Channel */
if (channelNum) {
/* Set the Operational Channel */
hddLog(LOG2, FL("set channel %d"), channelNum);
pRoamProfile->ChannelInfo.numOfChannels = 1;
pHddStaCtx->conn_info.operationChannel = channelNum;
pRoamProfile->ChannelInfo.ChannelList =
&pHddStaCtx->conn_info.operationChannel;
}
/* Initialize security parameters */
status = wlan_hdd_cfg80211_set_privacy_ibss(pAdapter, params);
if (status < 0) {
hddLog(LOGE,
FL("failed to set security parameters"));
return status;
}
/* Issue connect start */
status = wlan_hdd_cfg80211_connect_start(pAdapter, params->ssid,
params->ssid_len,
bssid.bytes,
NULL,
pHddStaCtx->conn_info.
operationChannel);
if (0 > status) {
hddLog(LOGE, FL("connect failed"));
return status;
}
return 0;
}
/**
* wlan_hdd_cfg80211_join_ibss() - join ibss
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @param: Pointer to IBSS join parameters
*
* This function is used to create/join an IBSS network
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_join_ibss(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_ibss_params *params)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_join_ibss(wiphy, dev, params);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_leave_ibss() - leave ibss
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
*
* This function is used to leave an IBSS network
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_leave_ibss(struct wiphy *wiphy,
struct net_device *dev)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_wext_state_t *pWextState = WLAN_HDD_GET_WEXT_STATE_PTR(pAdapter);
tCsrRoamProfile *pRoamProfile;
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
int status;
CDF_STATUS hal_status;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_LEAVE_IBSS,
pAdapter->sessionId,
eCSR_DISCONNECT_REASON_IBSS_LEAVE));
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
hddLog(LOG1, FL("Device_mode %s(%d)"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
if (NULL == pWextState) {
hddLog(LOGE, FL("Data Storage Corruption"));
return -EIO;
}
pRoamProfile = &pWextState->roamProfile;
/* Issue disconnect only if interface type is set to IBSS */
if (eCSR_BSS_TYPE_START_IBSS != pRoamProfile->BSSType) {
hddLog(LOGE,
FL("BSS Type is not set to IBSS"));
return -EINVAL;
}
/* Issue Disconnect request */
INIT_COMPLETION(pAdapter->disconnect_comp_var);
hal_status = sme_roam_disconnect(WLAN_HDD_GET_HAL_CTX(pAdapter),
pAdapter->sessionId,
eCSR_DISCONNECT_REASON_IBSS_LEAVE);
if (!CDF_IS_STATUS_SUCCESS(hal_status)) {
hddLog(LOGE,
FL("sme_roam_disconnect failed hal_status(%d)"),
hal_status);
return -EAGAIN;
}
return 0;
}
/**
* wlan_hdd_cfg80211_leave_ibss() - leave ibss
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
*
* This function is used to leave an IBSS network
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_leave_ibss(struct wiphy *wiphy,
struct net_device *dev)
{
int ret = 0;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_leave_ibss(wiphy, dev);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_set_wiphy_params() - set wiphy parameters
* @wiphy: Pointer to wiphy
* @changed: Parameters changed
*
* This function is used to set the phy parameters. RTS Threshold/FRAG
* Threshold/Retry Count etc.
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_set_wiphy_params(struct wiphy *wiphy,
u32 changed)
{
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
tHalHandle hHal = pHddCtx->hHal;
int status;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_SET_WIPHY_PARAMS,
NO_SESSION, wiphy->rts_threshold));
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE,
FL("HDD context is not valid"));
return status;
}
if (changed & WIPHY_PARAM_RTS_THRESHOLD) {
u32 rts_threshold = (wiphy->rts_threshold == -1) ?
WNI_CFG_RTS_THRESHOLD_STAMAX : wiphy->rts_threshold;
if ((WNI_CFG_RTS_THRESHOLD_STAMIN > rts_threshold) ||
(WNI_CFG_RTS_THRESHOLD_STAMAX < rts_threshold)) {
hddLog(LOGE,
FL("Invalid RTS Threshold value %u"),
rts_threshold);
return -EINVAL;
}
if (0 != sme_cfg_set_int(hHal, WNI_CFG_RTS_THRESHOLD,
rts_threshold)) {
hddLog(LOGE,
FL("sme_cfg_set_int failed for rts_threshold value %u"),
rts_threshold);
return -EIO;
}
hddLog(LOG2, FL("set rts threshold %u"), rts_threshold);
}
if (changed & WIPHY_PARAM_FRAG_THRESHOLD) {
u16 frag_threshold = (wiphy->frag_threshold == -1) ?
WNI_CFG_FRAGMENTATION_THRESHOLD_STAMAX :
wiphy->frag_threshold;
if ((WNI_CFG_FRAGMENTATION_THRESHOLD_STAMIN > frag_threshold) ||
(WNI_CFG_FRAGMENTATION_THRESHOLD_STAMAX < frag_threshold)) {
hddLog(LOGE,
FL("Invalid frag_threshold value %hu"),
frag_threshold);
return -EINVAL;
}
if (0 != sme_cfg_set_int(hHal, WNI_CFG_FRAGMENTATION_THRESHOLD,
frag_threshold)) {
hddLog(LOGE,
FL("sme_cfg_set_int failed for frag_threshold value %hu"),
frag_threshold);
return -EIO;
}
hddLog(LOG2, FL("set frag threshold %hu"), frag_threshold);
}
if ((changed & WIPHY_PARAM_RETRY_SHORT)
|| (changed & WIPHY_PARAM_RETRY_LONG)) {
u8 retry_value = (changed & WIPHY_PARAM_RETRY_SHORT) ?
wiphy->retry_short : wiphy->retry_long;
if ((WNI_CFG_LONG_RETRY_LIMIT_STAMIN > retry_value) ||
(WNI_CFG_LONG_RETRY_LIMIT_STAMAX < retry_value)) {
hddLog(LOGE,
FL("Invalid Retry count %hu"), retry_value);
return -EINVAL;
}
if (changed & WIPHY_PARAM_RETRY_SHORT) {
if (0 != sme_cfg_set_int(hHal,
WNI_CFG_LONG_RETRY_LIMIT,
retry_value)) {
hddLog(LOGE,
FL("sme_cfg_set_int failed for long retry count %hu"),
retry_value);
return -EIO;
}
hddLog(LOG2,
FL("set long retry count %hu"), retry_value);
} else if (changed & WIPHY_PARAM_RETRY_SHORT) {
if (0 != sme_cfg_set_int(hHal,
WNI_CFG_SHORT_RETRY_LIMIT,
retry_value)) {
hddLog(LOGE,
FL("sme_cfg_set_int failed for short retry count %hu"),
retry_value);
return -EIO;
}
hddLog(LOG2,
FL("set short retry count %hu"), retry_value);
}
}
return 0;
}
/**
* wlan_hdd_cfg80211_set_wiphy_params() - set wiphy parameters
* @wiphy: Pointer to wiphy
* @changed: Parameters changed
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_set_wiphy_params(struct wiphy *wiphy, u32 changed)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_wiphy_params(wiphy, changed);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_set_default_mgmt_key() - dummy implementation of set default mgmt
* key
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @key_index: Key index
*
* Return: 0
*/
static int __wlan_hdd_set_default_mgmt_key(struct wiphy *wiphy,
struct net_device *netdev,
u8 key_index)
{
ENTER();
return 0;
}
/**
* wlan_hdd_set_default_mgmt_key() - SSR wrapper for
* wlan_hdd_set_default_mgmt_key
* @wiphy: pointer to wiphy
* @netdev: pointer to net_device structure
* @key_index: key index
*
* Return: 0 on success, error number on failure
*/
static int wlan_hdd_set_default_mgmt_key(struct wiphy *wiphy,
struct net_device *netdev,
u8 key_index)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_set_default_mgmt_key(wiphy, netdev, key_index);
cds_ssr_unprotect(__func__);
return ret;
}
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 4, 0))
/**
* __wlan_hdd_set_txq_params() - dummy implementation of set tx queue params
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @params: Pointer to tx queue parameters
*
* Return: 0
*/
static int __wlan_hdd_set_txq_params(struct wiphy *wiphy,
struct net_device *dev,
struct ieee80211_txq_params *params)
{
ENTER();
return 0;
}
#else
/**
* __wlan_hdd_set_txq_params() - dummy implementation of set tx queue params
* @wiphy: Pointer to wiphy
* @params: Pointer to tx queue parameters
*
* Return: 0
*/
static int __wlan_hdd_set_txq_params(struct wiphy *wiphy,
struct ieee80211_txq_params *params)
{
ENTER();
return 0;
}
#endif /* LINUX_VERSION_CODE */
/**
* wlan_hdd_set_txq_params() - SSR wrapper for wlan_hdd_set_txq_params
* @wiphy: pointer to wiphy
* @netdev: pointer to net_device structure
* @params: pointer to ieee80211_txq_params
*
* Return: 0 on success, error number on failure
*/
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 4, 0)) || defined(WITH_BACKPORTS)
static int wlan_hdd_set_txq_params(struct wiphy *wiphy,
struct net_device *dev,
struct ieee80211_txq_params *params)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_set_txq_params(wiphy, dev, params);
cds_ssr_unprotect(__func__);
return ret;
}
#else
static int wlan_hdd_set_txq_params(struct wiphy *wiphy,
struct ieee80211_txq_params *params)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_set_txq_params(wiphy, params);
cds_ssr_unprotect(__func__);
return ret;
}
#endif /* LINUX_VERSION_CODE */
/**
* __wlan_hdd_cfg80211_del_station() - delete station v2
* @wiphy: Pointer to wiphy
* @param: Pointer to delete station parameter
*
* Return: 0 for success, non-zero for failure
*/
static
int __wlan_hdd_cfg80211_del_station(struct wiphy *wiphy,
struct net_device *dev,
struct tagCsrDelStaParams *pDelStaParams)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx;
CDF_STATUS cdf_status = CDF_STATUS_E_FAILURE;
hdd_hostapd_state_t *hapd_state;
int status;
uint8_t staId;
uint8_t *mac;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_DEL_STA,
pAdapter->sessionId, pAdapter->device_mode));
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
mac = (uint8_t *) pDelStaParams->peerMacAddr.bytes;
if ((WLAN_HDD_SOFTAP == pAdapter->device_mode) ||
(WLAN_HDD_P2P_GO == pAdapter->device_mode)) {
hapd_state = WLAN_HDD_GET_HOSTAP_STATE_PTR(pAdapter);
if (!hapd_state) {
hddLog(LOGE, "%s: Hostapd State is Null", __func__);
return 0;
}
if (cdf_is_macaddr_broadcast((struct cdf_mac_addr *) mac)) {
uint16_t i;
for (i = 0; i < WLAN_MAX_STA_COUNT; i++) {
if ((pAdapter->aStaInfo[i].isUsed) &&
(!pAdapter->aStaInfo[i].
isDeauthInProgress)) {
cdf_mem_copy(
mac,
pAdapter->aStaInfo[i].
macAddrSTA.bytes,
ETHER_ADDR_LEN);
if (hdd_ipa_uc_is_enabled(pHddCtx)) {
hdd_ipa_wlan_evt(pAdapter,
pAdapter->
aStaInfo[i].
ucSTAId,
WLAN_CLIENT_DISCONNECT,
mac);
}
hddLog(LOG1,
FL("Delete STA with MAC::"
MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(mac));
if (pHddCtx->dev_dfs_cac_status ==
DFS_CAC_IN_PROGRESS)
goto fn_end;
cdf_event_reset(&hapd_state->cdf_event);
hdd_softap_sta_disassoc(pAdapter,
mac);
cdf_status =
hdd_softap_sta_deauth(pAdapter,
pDelStaParams);
if (CDF_IS_STATUS_SUCCESS(cdf_status)) {
pAdapter->aStaInfo[i].
isDeauthInProgress = true;
cdf_status =
cdf_wait_single_event(
&hapd_state->cdf_event,
1000);
if (!CDF_IS_STATUS_SUCCESS(
cdf_status))
hddLog(LOGE,
"%s: Deauth wait time expired",
__func__);
}
}
}
} else {
cdf_status =
hdd_softap_get_sta_id(pAdapter,
(struct cdf_mac_addr *) mac,
&staId);
if (!CDF_IS_STATUS_SUCCESS(cdf_status)) {
hddLog(LOG1,
FL("Skip DEL STA as this is not used::"
MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(mac));
return -ENOENT;
}
if (hdd_ipa_uc_is_enabled(pHddCtx)) {
hdd_ipa_wlan_evt(pAdapter, staId,
WLAN_CLIENT_DISCONNECT, mac);
}
if (pAdapter->aStaInfo[staId].isDeauthInProgress ==
true) {
hddLog(LOG1,
FL("Skip DEL STA as deauth is in progress::"
MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(mac));
return -ENOENT;
}
pAdapter->aStaInfo[staId].isDeauthInProgress = true;
hddLog(LOG1,
FL("Delete STA with MAC::" MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(mac));
/* Case: SAP in ACS selected DFS ch and client connected
* Now Radar detected. Then if random channel is another
* DFS ch then new CAC is initiated and no TX allowed.
* So do not send any mgmt frames as it will timeout
* during CAC.
*/
if (pHddCtx->dev_dfs_cac_status == DFS_CAC_IN_PROGRESS)
goto fn_end;
cdf_event_reset(&hapd_state->cdf_event);
hdd_softap_sta_disassoc(pAdapter, mac);
cdf_status = hdd_softap_sta_deauth(pAdapter,
pDelStaParams);
if (!CDF_IS_STATUS_SUCCESS(cdf_status)) {
pAdapter->aStaInfo[staId].isDeauthInProgress =
false;
hddLog(LOG1,
FL("STA removal failed for ::"
MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(mac));
return -ENOENT;
} else {
cdf_status = cdf_wait_single_event(
&hapd_state->cdf_event,
1000);
if (!CDF_IS_STATUS_SUCCESS(cdf_status))
hddLog(LOGE,
"%s: Deauth wait time expired",
__func__);
}
}
}
fn_end:
EXIT();
return 0;
}
#ifdef CFG80211_DEL_STA_V2
/**
* wlan_hdd_cfg80211_del_station() - delete station v2
* @wiphy: Pointer to wiphy
* @param: Pointer to delete station parameter
*
* Return: 0 for success, non-zero for failure
*/
int wlan_hdd_cfg80211_del_station(struct wiphy *wiphy,
struct net_device *dev,
struct station_del_parameters *param)
#else
/**
* wlan_hdd_cfg80211_del_station() - delete station
* @wiphy: Pointer to wiphy
* @mac: Pointer to station mac address
*
* Return: 0 for success, non-zero for failure
*/
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 16, 0))
int wlan_hdd_cfg80211_del_station(struct wiphy *wiphy,
struct net_device *dev,
const uint8_t *mac)
#else
int wlan_hdd_cfg80211_del_station(struct wiphy *wiphy,
struct net_device *dev,
uint8_t *mac)
#endif
#endif
{
int ret;
struct tagCsrDelStaParams delStaParams;
cds_ssr_protect(__func__);
#ifdef CFG80211_DEL_STA_V2
if (NULL == param) {
hddLog(LOGE, FL("Invalid argumet passed"));
return -EINVAL;
}
wlansap_populate_del_sta_params(param->mac, param->reason_code,
param->subtype, &delStaParams);
#else
wlansap_populate_del_sta_params(mac, eSIR_MAC_DEAUTH_LEAVING_BSS_REASON,
(SIR_MAC_MGMT_DEAUTH >> 4),
&delStaParams);
#endif
ret = __wlan_hdd_cfg80211_del_station(wiphy, dev, &delStaParams);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_add_station() - add station
* @wiphy: Pointer to wiphy
* @mac: Pointer to station mac address
* @pmksa: Pointer to add station parameter
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_add_station(struct wiphy *wiphy,
struct net_device *dev,
const uint8_t *mac,
struct station_parameters *params)
{
int status = -EPERM;
#ifdef FEATURE_WLAN_TDLS
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
u32 mask, set;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_ADD_STA,
pAdapter->sessionId, params->listen_interval));
if (0 != wlan_hdd_validate_context(pHddCtx)) {
hddLog(LOGE, FL("HDD context is not valid"));
return -EINVAL;
}
mask = params->sta_flags_mask;
set = params->sta_flags_set;
hddLog(LOG1, FL("mask 0x%x set 0x%x " MAC_ADDRESS_STR), mask, set,
MAC_ADDR_ARRAY(mac));
if (mask & BIT(NL80211_STA_FLAG_TDLS_PEER)) {
if (set & BIT(NL80211_STA_FLAG_TDLS_PEER)) {
status =
wlan_hdd_tdls_add_station(wiphy, dev, mac, 0, NULL);
}
}
#endif
return status;
}
/**
* wlan_hdd_cfg80211_add_station() - add station
* @wiphy: Pointer to wiphy
* @mac: Pointer to station mac address
* @pmksa: Pointer to add station parameter
*
* Return: 0 for success, non-zero for failure
*/
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 16, 0))
static int wlan_hdd_cfg80211_add_station(struct wiphy *wiphy,
struct net_device *dev,
const uint8_t *mac,
struct station_parameters *params)
#else
static int wlan_hdd_cfg80211_add_station(struct wiphy *wiphy,
struct net_device *dev, uint8_t *mac,
struct station_parameters *params)
#endif
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_add_station(wiphy, dev, mac, params);
cds_ssr_unprotect(__func__);
return ret;
}
#ifdef FEATURE_WLAN_LFR
/**
* __wlan_hdd_cfg80211_set_pmksa() - set pmksa
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @pmksa: Pointer to set pmksa parameter
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_set_pmksa(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_pmksa *pmksa)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
tHalHandle halHandle;
CDF_STATUS result = CDF_STATUS_SUCCESS;
int status;
tPmkidCacheInfo pmk_id;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
if (!pmksa) {
hddLog(LOGE, FL("pmksa is NULL"));
return -EINVAL;
}
if (!pmksa->bssid || !pmksa->pmkid) {
hddLog(LOGE, FL("pmksa->bssid(%p) or pmksa->pmkid(%p) is NULL"),
pmksa->bssid, pmksa->pmkid);
return -EINVAL;
}
hddLog(LOGW, FL("set PMKSA for " MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(pmksa->bssid));
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
halHandle = WLAN_HDD_GET_HAL_CTX(pAdapter);
cdf_mem_copy(pmk_id.BSSID.bytes, pmksa->bssid, ETHER_ADDR_LEN);
cdf_mem_copy(pmk_id.PMKID, pmksa->pmkid, CSR_RSN_PMKID_SIZE);
/* Add to the PMKSA ID Cache in CSR */
result = sme_roam_set_pmkid_cache(halHandle, pAdapter->sessionId,
&pmk_id, 1, false);
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_SET_PMKSA,
pAdapter->sessionId, result));
return CDF_IS_STATUS_SUCCESS(result) ? 0 : -EINVAL;
}
/**
* wlan_hdd_cfg80211_set_pmksa() - set pmksa
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @pmksa: Pointer to set pmksa parameter
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_set_pmksa(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_pmksa *pmksa)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_pmksa(wiphy, dev, pmksa);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_del_pmksa() - delete pmksa
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @pmksa: Pointer to pmksa parameter
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_del_pmksa(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_pmksa *pmksa)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
tHalHandle halHandle;
int status = 0;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
if (!pmksa) {
hddLog(LOGE, FL("pmksa is NULL"));
return -EINVAL;
}
if (!pmksa->bssid) {
hddLog(LOGE, FL("pmksa->bssid is NULL"));
return -EINVAL;
}
hddLog(CDF_TRACE_LEVEL_DEBUG, FL("Deleting PMKSA for " MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(pmksa->bssid));
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
halHandle = WLAN_HDD_GET_HAL_CTX(pAdapter);
/* Delete the PMKID CSR cache */
if (CDF_STATUS_SUCCESS !=
sme_roam_del_pmkid_from_cache(halHandle,
pAdapter->sessionId, pmksa->bssid,
false)) {
hddLog(LOGE, FL("Failed to delete PMKSA for " MAC_ADDRESS_STR),
MAC_ADDR_ARRAY(pmksa->bssid));
status = -EINVAL;
}
return status;
}
/**
* wlan_hdd_cfg80211_del_pmksa() - delete pmksa
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @pmksa: Pointer to pmksa parameter
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_del_pmksa(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_pmksa *pmksa)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_del_pmksa(wiphy, dev, pmksa);
cds_ssr_unprotect(__func__);
return ret;
}
/**
* __wlan_hdd_cfg80211_flush_pmksa() - flush pmksa
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_flush_pmksa(struct wiphy *wiphy,
struct net_device *dev)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
tHalHandle halHandle;
int status = 0;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
hddLog(LOGW, FL("Flushing PMKSA"));
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
/* Retrieve halHandle */
halHandle = WLAN_HDD_GET_HAL_CTX(pAdapter);
/* Flush the PMKID cache in CSR */
if (CDF_STATUS_SUCCESS !=
sme_roam_del_pmkid_from_cache(halHandle, pAdapter->sessionId, NULL,
true)) {
hddLog(LOGE, FL("Cannot flush PMKIDCache"));
status = -EINVAL;
}
return status;
}
/**
* wlan_hdd_cfg80211_flush_pmksa() - flush pmksa
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_flush_pmksa(struct wiphy *wiphy,
struct net_device *dev)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_flush_pmksa(wiphy, dev);
cds_ssr_unprotect(__func__);
return ret;
}
#endif
#if defined(WLAN_FEATURE_VOWIFI_11R) && defined(KERNEL_SUPPORT_11R_CFG80211)
/**
* __wlan_hdd_cfg80211_update_ft_ies() - update fast transition ies
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @ftie: Pointer to fast transition ie parameter
*
* Return: 0 for success, non-zero for failure
*/
static int
__wlan_hdd_cfg80211_update_ft_ies(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_update_ft_ies_params *ftie)
{
hdd_context_t *hdd_ctx = wiphy_priv(wiphy);
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_station_ctx_t *pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
int status;
status = wlan_hdd_validate_context(hdd_ctx);
if (status)
return status;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_UPDATE_FT_IES,
pAdapter->sessionId, pHddStaCtx->conn_info.connState));
/* Added for debug on reception of Re-assoc Req. */
if (eConnectionState_Associated != pHddStaCtx->conn_info.connState) {
hddLog(LOGE,
FL("Called with Ie of length = %zu when not associated"),
ftie->ie_len);
hddLog(LOGE, FL("Should be Re-assoc Req IEs"));
}
#ifdef WLAN_FEATURE_VOWIFI_11R_DEBUG
hddLog(LOG1, FL("%s called with Ie of length = %zu"), __func__,
ftie->ie_len);
#endif
/* Pass the received FT IEs to SME */
sme_set_ft_ies(WLAN_HDD_GET_HAL_CTX(pAdapter), pAdapter->sessionId,
(const u8 *)ftie->ie, ftie->ie_len);
return 0;
}
/**
* wlan_hdd_cfg80211_update_ft_ies() - update fast transition ies
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @ftie: Pointer to fast transition ie parameter
*
* Return: 0 for success, non-zero for failure
*/
static int
wlan_hdd_cfg80211_update_ft_ies(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_update_ft_ies_params *ftie)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_update_ft_ies(wiphy, dev, ftie);
cds_ssr_unprotect(__func__);
return ret;
}
#endif
#ifdef WLAN_FEATURE_GTK_OFFLOAD
/**
* wlan_hdd_cfg80211_update_replay_counter_callback() - replay counter callback
* @callbackContext: Callback context
* @pGtkOffloadGetInfoRsp: Pointer to gtk offload response parameter
*
* Callback rountine called upon receiving response for get offload info
*
* Return: none
*/
void wlan_hdd_cfg80211_update_replay_counter_callback(void *callbackContext,
tpSirGtkOffloadGetInfoRspParams
pGtkOffloadGetInfoRsp)
{
hdd_adapter_t *pAdapter = (hdd_adapter_t *) callbackContext;
uint8_t tempReplayCounter[8];
hdd_station_ctx_t *pHddStaCtx;
ENTER();
if (NULL == pAdapter) {
hddLog(LOGE, FL("HDD adapter is Null"));
return;
}
if (NULL == pGtkOffloadGetInfoRsp) {
hddLog(LOGE, FL("pGtkOffloadGetInfoRsp is Null"));
return;
}
if (CDF_STATUS_SUCCESS != pGtkOffloadGetInfoRsp->ulStatus) {
hddLog(LOGE, FL("wlan Failed to get replay counter value"));
return;
}
pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
/* Update replay counter */
pHddStaCtx->gtkOffloadReqParams.ullKeyReplayCounter =
pGtkOffloadGetInfoRsp->ullKeyReplayCounter;
{
/* changing from little to big endian since supplicant
* works on big endian format
*/
int i;
uint8_t *p =
(uint8_t *) &pGtkOffloadGetInfoRsp->ullKeyReplayCounter;
for (i = 0; i < 8; i++) {
tempReplayCounter[7 - i] = (uint8_t) p[i];
}
}
/* Update replay counter to NL */
cfg80211_gtk_rekey_notify(pAdapter->dev, pGtkOffloadGetInfoRsp->bssId,
tempReplayCounter, GFP_KERNEL);
}
/**
* __wlan_hdd_cfg80211_set_rekey_data() - set rekey data
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @data: Pointer to rekey data
*
* This function is used to offload GTK rekeying job to the firmware.
*
* Return: 0 for success, non-zero for failure
*/
int __wlan_hdd_cfg80211_set_rekey_data(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_gtk_rekey_data *data)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
hdd_station_ctx_t *pHddStaCtx;
tHalHandle hHal;
int result;
tSirGtkOffloadParams hddGtkOffloadReqParams;
CDF_STATUS status = CDF_STATUS_E_FAILURE;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
MTRACE(cdf_trace(CDF_MODULE_ID_HDD,
TRACE_CODE_HDD_CFG80211_SET_REKEY_DATA,
pAdapter->sessionId, pAdapter->device_mode));
result = wlan_hdd_validate_context(pHddCtx);
if (0 != result) {
hddLog(LOGE, FL("HDD context is not valid"));
return result;
}
pHddStaCtx = WLAN_HDD_GET_STATION_CTX_PTR(pAdapter);
hHal = WLAN_HDD_GET_HAL_CTX(pAdapter);
if (NULL == hHal) {
hddLog(LOGE, FL("HAL context is Null!!!"));
return -EAGAIN;
}
pHddStaCtx->gtkOffloadReqParams.ulFlags = GTK_OFFLOAD_ENABLE;
memcpy(pHddStaCtx->gtkOffloadReqParams.aKCK, data->kck,
NL80211_KCK_LEN);
memcpy(pHddStaCtx->gtkOffloadReqParams.aKEK, data->kek,
NL80211_KEK_LEN);
memcpy(pHddStaCtx->gtkOffloadReqParams.bssId,
&pHddStaCtx->conn_info.bssId, CDF_MAC_ADDR_SIZE);
{
/* changing from big to little endian since driver
* works on little endian format
*/
uint8_t *p =
(uint8_t *) &pHddStaCtx->gtkOffloadReqParams.
ullKeyReplayCounter;
int i;
for (i = 0; i < 8; i++) {
p[7 - i] = data->replay_ctr[i];
}
}
if (true == pHddCtx->hdd_wlan_suspended) {
/* if wlan is suspended, enable GTK offload directly from here */
memcpy(&hddGtkOffloadReqParams,
&pHddStaCtx->gtkOffloadReqParams,
sizeof(tSirGtkOffloadParams));
status =
sme_set_gtk_offload(hHal, &hddGtkOffloadReqParams,
pAdapter->sessionId);
if (CDF_STATUS_SUCCESS != status) {
hddLog(LOGE, FL("sme_set_gtk_offload failed, status(%d)"),
status);
return -EINVAL;
}
hddLog(LOG1, FL("sme_set_gtk_offload successful"));
} else {
hddLog(LOG1,
FL("wlan not suspended GTKOffload request is stored"));
}
return result;
}
/**
* wlan_hdd_cfg80211_set_rekey_data() - set rekey data
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @data: Pointer to rekey data
*
* This function is used to offload GTK rekeying job to the firmware.
*
* Return: 0 for success, non-zero for failure
*/
int wlan_hdd_cfg80211_set_rekey_data(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_gtk_rekey_data *data)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_rekey_data(wiphy, dev, data);
cds_ssr_unprotect(__func__);
return ret;
}
#endif /*WLAN_FEATURE_GTK_OFFLOAD */
/**
* __wlan_hdd_cfg80211_set_mac_acl() - set access control policy
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @param: Pointer to access control parameter
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_set_mac_acl(struct wiphy *wiphy,
struct net_device *dev,
const struct cfg80211_acl_data *params)
{
int i;
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_hostapd_state_t *pHostapdState;
tsap_Config_t *pConfig;
v_CONTEXT_t p_cds_context = NULL;
hdd_context_t *pHddCtx;
int status;
CDF_STATUS cdf_status = CDF_STATUS_SUCCESS;
ENTER();
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
if (NULL == params) {
hddLog(LOGE, FL("params is Null"));
return -EINVAL;
}
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
p_cds_context = pHddCtx->pcds_context;
pHostapdState = WLAN_HDD_GET_HOSTAP_STATE_PTR(pAdapter);
if (NULL == pHostapdState) {
hddLog(LOGE, FL("pHostapdState is Null"));
return -EINVAL;
}
hddLog(LOGE, "acl policy: = %d no acl entries = %d", params->acl_policy,
params->n_acl_entries);
if (WLAN_HDD_SOFTAP == pAdapter->device_mode) {
pConfig = &pAdapter->sessionCtx.ap.sapConfig;
/* default value */
pConfig->num_accept_mac = 0;
pConfig->num_deny_mac = 0;
/**
* access control policy
* @NL80211_ACL_POLICY_ACCEPT_UNLESS_LISTED: Deny stations which are
* listed in hostapd.deny file.
* @NL80211_ACL_POLICY_DENY_UNLESS_LISTED: Allow stations which are
* listed in hostapd.accept file.
*/
if (NL80211_ACL_POLICY_DENY_UNLESS_LISTED == params->acl_policy) {
pConfig->SapMacaddr_acl = eSAP_DENY_UNLESS_ACCEPTED;
} else if (NL80211_ACL_POLICY_ACCEPT_UNLESS_LISTED ==
params->acl_policy) {
pConfig->SapMacaddr_acl = eSAP_ACCEPT_UNLESS_DENIED;
} else {
hddLog(LOGE, FL("Acl Policy : %d is not supported"),
params->acl_policy);
return -ENOTSUPP;
}
if (eSAP_DENY_UNLESS_ACCEPTED == pConfig->SapMacaddr_acl) {
pConfig->num_accept_mac = params->n_acl_entries;
for (i = 0; i < params->n_acl_entries; i++) {
hddLog(LOG1,
FL("** Add ACL MAC entry %i in WhiletList :"
MAC_ADDRESS_STR), i,
MAC_ADDR_ARRAY(
params->mac_addrs[i].addr));
cdf_mem_copy(&pConfig->accept_mac[i],
params->mac_addrs[i].addr,
sizeof(qcmacaddr));
}
} else if (eSAP_ACCEPT_UNLESS_DENIED == pConfig->SapMacaddr_acl) {
pConfig->num_deny_mac = params->n_acl_entries;
for (i = 0; i < params->n_acl_entries; i++) {
hddLog(LOG1,
FL("** Add ACL MAC entry %i in BlackList :"
MAC_ADDRESS_STR), i,
MAC_ADDR_ARRAY(
params->mac_addrs[i].addr));
cdf_mem_copy(&pConfig->deny_mac[i],
params->mac_addrs[i].addr,
sizeof(qcmacaddr));
}
}
#ifdef WLAN_FEATURE_MBSSID
cdf_status =
wlansap_set_mac_acl(WLAN_HDD_GET_SAP_CTX_PTR(pAdapter),
pConfig);
#else
cdf_status = wlansap_set_mac_acl(p_cds_context, pConfig);
#endif
if (!CDF_IS_STATUS_SUCCESS(cdf_status)) {
hddLog(LOGE, FL("SAP Set Mac Acl fail"));
return -EINVAL;
}
} else {
hddLog(LOG1, FL("Invalid device_mode %s(%d)"),
hdd_device_mode_to_string(pAdapter->device_mode),
pAdapter->device_mode);
return -EINVAL;
}
return 0;
}
/**
* wlan_hdd_cfg80211_set_mac_acl() - SSR wrapper for
* __wlan_hdd_cfg80211_set_mac_acl
* @wiphy: pointer to wiphy structure
* @dev: pointer to net_device
* @params: pointer to cfg80211_acl_data
*
* Return; 0 on success, error number otherwise
*/
static int
wlan_hdd_cfg80211_set_mac_acl(struct wiphy *wiphy,
struct net_device *dev,
const struct cfg80211_acl_data *params)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_mac_acl(wiphy, dev, params);
cds_ssr_unprotect(__func__);
return ret;
}
#ifdef WLAN_NL80211_TESTMODE
#ifdef FEATURE_WLAN_LPHB
/**
* wlan_hdd_cfg80211_lphb_ind_handler() - handle low power heart beat indication
* @pHddCtx: Pointer to hdd context
* @lphbInd: Pointer to low power heart beat indication parameter
*
* Return: none
*/
void wlan_hdd_cfg80211_lphb_ind_handler(void *pHddCtx, tSirLPHBInd *lphbInd)
{
struct sk_buff *skb;
hddLog(LOGE, FL("LPHB indication arrived"));
if (0 != wlan_hdd_validate_context((hdd_context_t *) pHddCtx)) {
hddLog(LOGE, FL("invalid argument pHddCtx"));
return;
}
if (NULL == lphbInd) {
hddLog(LOGE, FL("invalid argument lphbInd"));
return;
}
skb = cfg80211_testmode_alloc_event_skb(((hdd_context_t *) pHddCtx)->
wiphy, sizeof(tSirLPHBInd),
GFP_ATOMIC);
if (!skb) {
hddLog(LOGE, FL("LPHB timeout, NL buffer alloc fail"));
return;
}
if (nla_put_u32(skb, WLAN_HDD_TM_ATTR_CMD, WLAN_HDD_TM_CMD_WLAN_HB)) {
hddLog(LOGE, FL("WLAN_HDD_TM_ATTR_CMD put fail"));
goto nla_put_failure;
}
if (nla_put_u32(skb, WLAN_HDD_TM_ATTR_TYPE, lphbInd->protocolType)) {
hddLog(LOGE, FL("WLAN_HDD_TM_ATTR_TYPE put fail"));
goto nla_put_failure;
}
if (nla_put(skb, WLAN_HDD_TM_ATTR_DATA, sizeof(tSirLPHBInd), lphbInd)) {
hddLog(LOGE, FL("WLAN_HDD_TM_ATTR_DATA put fail"));
goto nla_put_failure;
}
cfg80211_testmode_event(skb, GFP_ATOMIC);
return;
nla_put_failure:
hddLog(LOGE, FL("NLA Put fail"));
kfree_skb(skb);
return;
}
#endif /* FEATURE_WLAN_LPHB */
/**
* __wlan_hdd_cfg80211_testmode() - test mode
* @wiphy: Pointer to wiphy
* @data: Data pointer
* @len: Data length
*
* Return: 0 for success, non-zero for failure
*/
static int __wlan_hdd_cfg80211_testmode(struct wiphy *wiphy,
void *data, int len)
{
struct nlattr *tb[WLAN_HDD_TM_ATTR_MAX + 1];
int err;
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
err = wlan_hdd_validate_context(pHddCtx);
if (err)
return err;
err = nla_parse(tb, WLAN_HDD_TM_ATTR_MAX, data,
len, wlan_hdd_tm_policy);
if (err) {
hddLog(LOGE, FL("Testmode INV ATTR"));
return err;
}
if (!tb[WLAN_HDD_TM_ATTR_CMD]) {
hddLog(LOGE, FL("Testmode INV CMD"));
return -EINVAL;
}
switch (nla_get_u32(tb[WLAN_HDD_TM_ATTR_CMD])) {
#ifdef FEATURE_WLAN_LPHB
/* Low Power Heartbeat configuration request */
case WLAN_HDD_TM_CMD_WLAN_HB:
{
int buf_len;
void *buf;
tSirLPHBReq *hb_params = NULL;
tSirLPHBReq *hb_params_temp = NULL;
CDF_STATUS smeStatus;
if (!tb[WLAN_HDD_TM_ATTR_DATA]) {
hddLog(LOGE, FL("Testmode INV DATA"));
return -EINVAL;
}
buf = nla_data(tb[WLAN_HDD_TM_ATTR_DATA]);
buf_len = nla_len(tb[WLAN_HDD_TM_ATTR_DATA]);
hb_params_temp = (tSirLPHBReq *) buf;
if ((hb_params_temp->cmd == LPHB_SET_TCP_PARAMS_INDID)
&& (hb_params_temp->params.lphbTcpParamReq.
timePeriodSec == 0))
return -EINVAL;
hb_params =
(tSirLPHBReq *) cdf_mem_malloc(sizeof(tSirLPHBReq));
if (NULL == hb_params) {
hddLog(LOGE, FL("Request Buffer Alloc Fail"));
return -ENOMEM;
}
cdf_mem_copy(hb_params, buf, buf_len);
smeStatus =
sme_lphb_config_req((tHalHandle) (pHddCtx->hHal),
hb_params,
wlan_hdd_cfg80211_lphb_ind_handler);
if (CDF_STATUS_SUCCESS != smeStatus) {
hddLog(LOGE, "LPHB Config Fail, disable");
cdf_mem_free(hb_params);
}
return 0;
}
#endif /* FEATURE_WLAN_LPHB */
#if defined(QCA_WIFI_FTM)
case WLAN_HDD_TM_CMD_WLAN_FTM:
{
int buf_len;
void *buf;
CDF_STATUS status;
if (!tb[WLAN_HDD_TM_ATTR_DATA]) {
hddLog(LOGE,
FL
("WLAN_HDD_TM_ATTR_DATA attribute is invalid"));
return -EINVAL;
}
buf = nla_data(tb[WLAN_HDD_TM_ATTR_DATA]);
buf_len = nla_len(tb[WLAN_HDD_TM_ATTR_DATA]);
pr_info("****FTM Tx cmd len = %d*****\n", buf_len);
status = wlan_hdd_ftm_testmode_cmd(buf, buf_len);
if (status != CDF_STATUS_SUCCESS)
err = -EBUSY;
break;
}
#endif
default:
hddLog(LOGE, FL("command %d not supported"),
nla_get_u32(tb[WLAN_HDD_TM_ATTR_CMD]));
return -EOPNOTSUPP;
}
return err;
}
/**
* wlan_hdd_cfg80211_testmode() - test mode
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @data: Data pointer
* @len: Data length
*
* Return: 0 for success, non-zero for failure
*/
static int wlan_hdd_cfg80211_testmode(struct wiphy *wiphy,
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 12, 0))
struct wireless_dev *wdev,
#endif
void *data, int len)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_testmode(wiphy, data, len);
cds_ssr_unprotect(__func__);
return ret;
}
#if defined(QCA_WIFI_FTM)
/**
* wlan_hdd_testmode_rx_event() - test mode rx event handler
* @buf: Pointer to buffer
* @buf_len: Buffer length
*
* Return: none
*/
void wlan_hdd_testmode_rx_event(void *buf, size_t buf_len)
{
struct sk_buff *skb;
hdd_context_t *hdd_ctx;
if (!buf || !buf_len) {
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_ERROR,
"%s: buf or buf_len invalid, buf = %p buf_len = %zu",
__func__, buf, buf_len);
return;
}
hdd_ctx = cds_get_context(CDF_MODULE_ID_HDD);
if (!hdd_ctx) {
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_ERROR,
"%s: hdd context invalid", __func__);
return;
}
skb = cfg80211_testmode_alloc_event_skb(hdd_ctx->wiphy,
buf_len, GFP_KERNEL);
if (!skb) {
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_ERROR,
"%s: failed to allocate testmode rx skb!", __func__);
return;
}
if (nla_put_u32(skb, WLAN_HDD_TM_ATTR_CMD, WLAN_HDD_TM_CMD_WLAN_FTM) ||
nla_put(skb, WLAN_HDD_TM_ATTR_DATA, buf_len, buf))
goto nla_put_failure;
pr_info("****FTM Rx cmd len = %zu*****\n", buf_len);
cfg80211_testmode_event(skb, GFP_KERNEL);
return;
nla_put_failure:
kfree_skb(skb);
CDF_TRACE(CDF_MODULE_ID_HDD, CDF_TRACE_LEVEL_ERROR,
"%s: nla_put failed on testmode rx skb!", __func__);
}
#endif
#endif /* CONFIG_NL80211_TESTMODE */
#ifdef QCA_HT_2040_COEX
/**
* __wlan_hdd_cfg80211_set_ap_channel_width() - set ap channel bandwidth
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @chandef: Pointer to channel definition parameter
*
* Return: 0 for success, non-zero for failure
*/
static int
__wlan_hdd_cfg80211_set_ap_channel_width(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_chan_def *chandef)
{
hdd_adapter_t *pAdapter = WLAN_HDD_GET_PRIV_PTR(dev);
hdd_context_t *pHddCtx;
CDF_STATUS status;
tSmeConfigParams sme_config;
bool cbModeChange;
if (CDF_FTM_MODE == hdd_get_conparam()) {
hddLog(LOGE, FL("Command not allowed in FTM mode"));
return -EINVAL;
}
pHddCtx = WLAN_HDD_GET_CTX(pAdapter);
status = wlan_hdd_validate_context(pHddCtx);
if (0 != status) {
hddLog(LOGE, FL("HDD context is not valid"));
return status;
}
cdf_mem_zero(&sme_config, sizeof(tSmeConfigParams));
sme_get_config_param(pHddCtx->hHal, &sme_config);
switch (chandef->width) {
case NL80211_CHAN_WIDTH_20:
if (sme_config.csrConfig.channelBondingMode24GHz !=
eCSR_INI_SINGLE_CHANNEL_CENTERED) {
sme_config.csrConfig.channelBondingMode24GHz =
eCSR_INI_SINGLE_CHANNEL_CENTERED;
sme_update_config(pHddCtx->hHal, &sme_config);
cbModeChange = true;
}
break;
case NL80211_CHAN_WIDTH_40:
if (sme_config.csrConfig.channelBondingMode24GHz ==
eCSR_INI_SINGLE_CHANNEL_CENTERED) {
if (NL80211_CHAN_HT40MINUS ==
cfg80211_get_chandef_type(chandef))
sme_config.csrConfig.channelBondingMode24GHz =
eCSR_INI_DOUBLE_CHANNEL_HIGH_PRIMARY;
else
sme_config.csrConfig.channelBondingMode24GHz =
eCSR_INI_DOUBLE_CHANNEL_LOW_PRIMARY;
sme_update_config(pHddCtx->hHal, &sme_config);
cbModeChange = true;
}
break;
default:
hddLog(LOGE, FL("Error!!! Invalid HT20/40 mode !"));
return -EINVAL;
}
if (!cbModeChange)
return 0;
if (WLAN_HDD_SOFTAP != pAdapter->device_mode)
return 0;
hddLog(LOG1, FL("Channel bonding changed to %d"),
sme_config.csrConfig.channelBondingMode24GHz);
/* Change SAP ht2040 mode */
status = hdd_set_sap_ht2040_mode(pAdapter,
cfg80211_get_chandef_type(chandef));
if (status != CDF_STATUS_SUCCESS) {
hddLog(LOGE, FL("Error!!! Cannot set SAP HT20/40 mode!"));
return -EINVAL;
}
return 0;
}
/**
* wlan_hdd_cfg80211_set_ap_channel_width() - set ap channel bandwidth
* @wiphy: Pointer to wiphy
* @dev: Pointer to network device
* @chandef: Pointer to channel definition parameter
*
* Return: 0 for success, non-zero for failure
*/
static int
wlan_hdd_cfg80211_set_ap_channel_width(struct wiphy *wiphy,
struct net_device *dev,
struct cfg80211_chan_def *chandef)
{
int ret;
cds_ssr_protect(__func__);
ret = __wlan_hdd_cfg80211_set_ap_channel_width(wiphy, dev, chandef);
cds_ssr_unprotect(__func__);
return ret;
}
#endif
/**
* wlan_hdd_convert_nl_iftype_to_hdd_type() - provides the type
* translation from NL to policy manager type
* @type: Generic connection mode type defined in NL
*
*
* This function provides the type translation
*
* Return: cds_con_mode enum
*/
enum cds_con_mode wlan_hdd_convert_nl_iftype_to_hdd_type(
enum nl80211_iftype type)
{
enum cds_con_mode mode = CDS_MAX_NUM_OF_MODE;
switch (type) {
case NL80211_IFTYPE_STATION:
mode = CDS_STA_MODE;
break;
case NL80211_IFTYPE_P2P_CLIENT:
mode = CDS_P2P_CLIENT_MODE;
break;
case NL80211_IFTYPE_P2P_GO:
mode = CDS_P2P_GO_MODE;
break;
case NL80211_IFTYPE_AP:
mode = CDS_SAP_MODE;
break;
case NL80211_IFTYPE_ADHOC:
mode = CDS_IBSS_MODE;
break;
default:
hddLog(LOGE, FL("Unsupported interface type (%d)"),
type);
}
return mode;
}
/**
* struct cfg80211_ops - cfg80211_ops
*
* @add_virtual_intf: Add virtual interface
* @del_virtual_intf: Delete virtual interface
* @change_virtual_intf: Change virtual interface
* @change_station: Change station
* @add_beacon: Add beacon in sap mode
* @del_beacon: Delete beacon in sap mode
* @set_beacon: Set beacon in sap mode
* @start_ap: Start ap
* @change_beacon: Change beacon
* @stop_ap: Stop ap
* @change_bss: Change bss
* @add_key: Add key
* @get_key: Get key
* @del_key: Delete key
* @set_default_key: Set default key
* @set_channel: Set channel
* @scan: Scan
* @connect: Connect
* @disconnect: Disconnect
* @join_ibss = Join ibss
* @leave_ibss = Leave ibss
* @set_wiphy_params = Set wiphy params
* @set_tx_power = Set tx power
* @get_tx_power = get tx power
* @remain_on_channel = Remain on channel
* @cancel_remain_on_channel = Cancel remain on channel
* @mgmt_tx = Tx management frame
* @mgmt_tx_cancel_wait = Cancel management tx wait
* @set_default_mgmt_key = Set default management key
* @set_txq_params = Set tx queue parameters
* @get_station = Get station
* @set_power_mgmt = Set power management
* @del_station = Delete station
* @add_station = Add station
* @set_pmksa = Set pmksa
* @del_pmksa = Delete pmksa
* @flush_pmksa = Flush pmksa
* @update_ft_ies = Update FT IEs
* @tdls_mgmt = Tdls management
* @tdls_oper = Tdls operation
* @set_rekey_data = Set rekey data
* @sched_scan_start = Scheduled scan start
* @sched_scan_stop = Scheduled scan stop
* @resume = Resume wlan
* @suspend = Suspend wlan
* @set_mac_acl = Set mac acl
* @testmode_cmd = Test mode command
* @set_ap_chanwidth = Set AP channel bandwidth
* @dump_survey = Dump survey
* @key_mgmt_set_pmk = Set pmk key management
*/
static struct cfg80211_ops wlan_hdd_cfg80211_ops = {
.add_virtual_intf = wlan_hdd_add_virtual_intf,
.del_virtual_intf = wlan_hdd_del_virtual_intf,
.change_virtual_intf = wlan_hdd_cfg80211_change_iface,
.change_station = wlan_hdd_change_station,
#if (LINUX_VERSION_CODE < KERNEL_VERSION(3, 4, 0))
.add_beacon = wlan_hdd_cfg80211_add_beacon,
.del_beacon = wlan_hdd_cfg80211_del_beacon,
.set_beacon = wlan_hdd_cfg80211_set_beacon,
#else
.start_ap = wlan_hdd_cfg80211_start_ap,
.change_beacon = wlan_hdd_cfg80211_change_beacon,
.stop_ap = wlan_hdd_cfg80211_stop_ap,
#endif
.change_bss = wlan_hdd_cfg80211_change_bss,
.add_key = wlan_hdd_cfg80211_add_key,
.get_key = wlan_hdd_cfg80211_get_key,
.del_key = wlan_hdd_cfg80211_del_key,
.set_default_key = wlan_hdd_cfg80211_set_default_key,
.scan = wlan_hdd_cfg80211_scan,
.connect = wlan_hdd_cfg80211_connect,
.disconnect = wlan_hdd_cfg80211_disconnect,
.join_ibss = wlan_hdd_cfg80211_join_ibss,
.leave_ibss = wlan_hdd_cfg80211_leave_ibss,
.set_wiphy_params = wlan_hdd_cfg80211_set_wiphy_params,
.set_tx_power = wlan_hdd_cfg80211_set_txpower,
.get_tx_power = wlan_hdd_cfg80211_get_txpower,
.remain_on_channel = wlan_hdd_cfg80211_remain_on_channel,
.cancel_remain_on_channel = wlan_hdd_cfg80211_cancel_remain_on_channel,
.mgmt_tx = wlan_hdd_mgmt_tx,
.mgmt_tx_cancel_wait = wlan_hdd_cfg80211_mgmt_tx_cancel_wait,
.set_default_mgmt_key = wlan_hdd_set_default_mgmt_key,
.set_txq_params = wlan_hdd_set_txq_params,
.get_station = wlan_hdd_cfg80211_get_station,
.set_power_mgmt = wlan_hdd_cfg80211_set_power_mgmt,
.del_station = wlan_hdd_cfg80211_del_station,
.add_station = wlan_hdd_cfg80211_add_station,
#ifdef FEATURE_WLAN_LFR
.set_pmksa = wlan_hdd_cfg80211_set_pmksa,
.del_pmksa = wlan_hdd_cfg80211_del_pmksa,
.flush_pmksa = wlan_hdd_cfg80211_flush_pmksa,
#endif
#if defined(WLAN_FEATURE_VOWIFI_11R) && defined(KERNEL_SUPPORT_11R_CFG80211)
.update_ft_ies = wlan_hdd_cfg80211_update_ft_ies,
#endif
#ifdef FEATURE_WLAN_TDLS
.tdls_mgmt = wlan_hdd_cfg80211_tdls_mgmt,
.tdls_oper = wlan_hdd_cfg80211_tdls_oper,
#endif
#ifdef WLAN_FEATURE_GTK_OFFLOAD
.set_rekey_data = wlan_hdd_cfg80211_set_rekey_data,
#endif /* WLAN_FEATURE_GTK_OFFLOAD */
#ifdef FEATURE_WLAN_SCAN_PNO
.sched_scan_start = wlan_hdd_cfg80211_sched_scan_start,
.sched_scan_stop = wlan_hdd_cfg80211_sched_scan_stop,
#endif /*FEATURE_WLAN_SCAN_PNO */
.resume = wlan_hdd_cfg80211_resume_wlan,
.suspend = wlan_hdd_cfg80211_suspend_wlan,
.set_mac_acl = wlan_hdd_cfg80211_set_mac_acl,
#ifdef WLAN_NL80211_TESTMODE
.testmode_cmd = wlan_hdd_cfg80211_testmode,
#endif
#ifdef QCA_HT_2040_COEX
.set_ap_chanwidth = wlan_hdd_cfg80211_set_ap_channel_width,
#endif
.dump_survey = wlan_hdd_cfg80211_dump_survey,
};