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diff --git a/include/linux/ieee80211-s1g.h b/include/linux/ieee80211-s1g.h
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+/* SPDX-License-Identifier: GPL-2.0-only */
+/*
+ * IEEE 802.11 S1G definitions
+ *
+ * Copyright (c) 2001-2002, SSH Communications Security Corp and Jouni Malinen
+ * <jkmaline@cc.hut.fi>
+ * Copyright (c) 2002-2003, Jouni Malinen <jkmaline@cc.hut.fi>
+ * Copyright (c) 2005, Devicescape Software, Inc.
+ * Copyright (c) 2006, Michael Wu <flamingice@sourmilk.net>
+ * Copyright (c) 2013 - 2014 Intel Mobile Communications GmbH
+ * Copyright (c) 2016 - 2017 Intel Deutschland GmbH
+ * Copyright (c) 2018 - 2025 Intel Corporation
+ */
+
+#ifndef LINUX_IEEE80211_S1G_H
+#define LINUX_IEEE80211_S1G_H
+
+#include <linux/types.h>
+#include <linux/if_ether.h>
+
+/* bits unique to S1G beacon frame control */
+#define IEEE80211_S1G_BCN_NEXT_TBTT 0x100
+#define IEEE80211_S1G_BCN_CSSID 0x200
+#define IEEE80211_S1G_BCN_ANO 0x400
+
+/* see 802.11ah-2016 9.9 NDP CMAC frames */
+#define IEEE80211_S1G_1MHZ_NDP_BITS 25
+#define IEEE80211_S1G_1MHZ_NDP_BYTES 4
+#define IEEE80211_S1G_2MHZ_NDP_BITS 37
+#define IEEE80211_S1G_2MHZ_NDP_BYTES 5
+
+/**
+ * ieee80211_is_s1g_beacon - check if IEEE80211_FTYPE_EXT &&
+ * IEEE80211_STYPE_S1G_BEACON
+ * @fc: frame control bytes in little-endian byteorder
+ * Return: whether or not the frame is an S1G beacon
+ */
+static inline bool ieee80211_is_s1g_beacon(__le16 fc)
+{
+ return (fc & cpu_to_le16(IEEE80211_FCTL_FTYPE |
+ IEEE80211_FCTL_STYPE)) ==
+ cpu_to_le16(IEEE80211_FTYPE_EXT | IEEE80211_STYPE_S1G_BEACON);
+}
+
+/**
+ * ieee80211_s1g_has_next_tbtt - check if IEEE80211_S1G_BCN_NEXT_TBTT
+ * @fc: frame control bytes in little-endian byteorder
+ * Return: whether or not the frame contains the variable-length
+ * next TBTT field
+ */
+static inline bool ieee80211_s1g_has_next_tbtt(__le16 fc)
+{
+ return ieee80211_is_s1g_beacon(fc) &&
+ (fc & cpu_to_le16(IEEE80211_S1G_BCN_NEXT_TBTT));
+}
+
+/**
+ * ieee80211_s1g_has_ano - check if IEEE80211_S1G_BCN_ANO
+ * @fc: frame control bytes in little-endian byteorder
+ * Return: whether or not the frame contains the variable-length
+ * ANO field
+ */
+static inline bool ieee80211_s1g_has_ano(__le16 fc)
+{
+ return ieee80211_is_s1g_beacon(fc) &&
+ (fc & cpu_to_le16(IEEE80211_S1G_BCN_ANO));
+}
+
+/**
+ * ieee80211_s1g_has_cssid - check if IEEE80211_S1G_BCN_CSSID
+ * @fc: frame control bytes in little-endian byteorder
+ * Return: whether or not the frame contains the variable-length
+ * compressed SSID field
+ */
+static inline bool ieee80211_s1g_has_cssid(__le16 fc)
+{
+ return ieee80211_is_s1g_beacon(fc) &&
+ (fc & cpu_to_le16(IEEE80211_S1G_BCN_CSSID));
+}
+
+/**
+ * enum ieee80211_s1g_chanwidth - S1G channel widths
+ * These are defined in IEEE802.11-2016ah Table 10-20
+ * as BSS Channel Width
+ *
+ * @IEEE80211_S1G_CHANWIDTH_1MHZ: 1MHz operating channel
+ * @IEEE80211_S1G_CHANWIDTH_2MHZ: 2MHz operating channel
+ * @IEEE80211_S1G_CHANWIDTH_4MHZ: 4MHz operating channel
+ * @IEEE80211_S1G_CHANWIDTH_8MHZ: 8MHz operating channel
+ * @IEEE80211_S1G_CHANWIDTH_16MHZ: 16MHz operating channel
+ */
+enum ieee80211_s1g_chanwidth {
+ IEEE80211_S1G_CHANWIDTH_1MHZ = 0,
+ IEEE80211_S1G_CHANWIDTH_2MHZ = 1,
+ IEEE80211_S1G_CHANWIDTH_4MHZ = 3,
+ IEEE80211_S1G_CHANWIDTH_8MHZ = 7,
+ IEEE80211_S1G_CHANWIDTH_16MHZ = 15,
+};
+
+/**
+ * enum ieee80211_s1g_pri_chanwidth - S1G primary channel widths
+ * described in IEEE80211-2024 Table 10-39.
+ *
+ * @IEEE80211_S1G_PRI_CHANWIDTH_2MHZ: 2MHz primary channel
+ * @IEEE80211_S1G_PRI_CHANWIDTH_1MHZ: 1MHz primary channel
+ */
+enum ieee80211_s1g_pri_chanwidth {
+ IEEE80211_S1G_PRI_CHANWIDTH_2MHZ = 0,
+ IEEE80211_S1G_PRI_CHANWIDTH_1MHZ = 1,
+};
+
+/**
+ * struct ieee80211_s1g_bcn_compat_ie - S1G Beacon Compatibility element
+ * @compat_info: Compatibility Information
+ * @beacon_int: Beacon Interval
+ * @tsf_completion: TSF Completion
+ *
+ * This structure represents the payload of the "S1G Beacon
+ * Compatibility element" as described in IEEE Std 802.11-2020 section
+ * 9.4.2.196.
+ */
+struct ieee80211_s1g_bcn_compat_ie {
+ __le16 compat_info;
+ __le16 beacon_int;
+ __le32 tsf_completion;
+} __packed;
+
+/**
+ * struct ieee80211_s1g_oper_ie - S1G Operation element
+ * @ch_width: S1G Operation Information Channel Width
+ * @oper_class: S1G Operation Information Operating Class
+ * @primary_ch: S1G Operation Information Primary Channel Number
+ * @oper_ch: S1G Operation Information Channel Center Frequency
+ * @basic_mcs_nss: Basic S1G-MCS and NSS Set
+ *
+ * This structure represents the payload of the "S1G Operation
+ * element" as described in IEEE Std 802.11-2020 section 9.4.2.212.
+ */
+struct ieee80211_s1g_oper_ie {
+ u8 ch_width;
+ u8 oper_class;
+ u8 primary_ch;
+ u8 oper_ch;
+ __le16 basic_mcs_nss;
+} __packed;
+
+/**
+ * struct ieee80211_aid_response_ie - AID Response element
+ * @aid: AID/Group AID
+ * @switch_count: AID Switch Count
+ * @response_int: AID Response Interval
+ *
+ * This structure represents the payload of the "AID Response element"
+ * as described in IEEE Std 802.11-2020 section 9.4.2.194.
+ */
+struct ieee80211_aid_response_ie {
+ __le16 aid;
+ u8 switch_count;
+ __le16 response_int;
+} __packed;
+
+struct ieee80211_s1g_cap {
+ u8 capab_info[10];
+ u8 supp_mcs_nss[5];
+} __packed;
+
+/**
+ * ieee80211_s1g_optional_len - determine length of optional S1G beacon fields
+ * @fc: frame control bytes in little-endian byteorder
+ * Return: total length in bytes of the optional fixed-length fields
+ *
+ * S1G beacons may contain up to three optional fixed-length fields that
+ * precede the variable-length elements. Whether these fields are present
+ * is indicated by flags in the frame control field.
+ *
+ * From IEEE 802.11-2024 section 9.3.4.3:
+ * - Next TBTT field may be 0 or 3 bytes
+ * - Short SSID field may be 0 or 4 bytes
+ * - Access Network Options (ANO) field may be 0 or 1 byte
+ */
+static inline size_t
+ieee80211_s1g_optional_len(__le16 fc)
+{
+ size_t len = 0;
+
+ if (ieee80211_s1g_has_next_tbtt(fc))
+ len += 3;
+
+ if (ieee80211_s1g_has_cssid(fc))
+ len += 4;
+
+ if (ieee80211_s1g_has_ano(fc))
+ len += 1;
+
+ return len;
+}
+
+/* S1G Capabilities Information field */
+#define IEEE80211_S1G_CAPABILITY_LEN 15
+
+#define S1G_CAP0_S1G_LONG BIT(0)
+#define S1G_CAP0_SGI_1MHZ BIT(1)
+#define S1G_CAP0_SGI_2MHZ BIT(2)
+#define S1G_CAP0_SGI_4MHZ BIT(3)
+#define S1G_CAP0_SGI_8MHZ BIT(4)
+#define S1G_CAP0_SGI_16MHZ BIT(5)
+#define S1G_CAP0_SUPP_CH_WIDTH GENMASK(7, 6)
+
+#define S1G_SUPP_CH_WIDTH_2 0
+#define S1G_SUPP_CH_WIDTH_4 1
+#define S1G_SUPP_CH_WIDTH_8 2
+#define S1G_SUPP_CH_WIDTH_16 3
+#define S1G_SUPP_CH_WIDTH_MAX(cap) ((1 << FIELD_GET(S1G_CAP0_SUPP_CH_WIDTH, \
+ cap[0])) << 1)
+
+#define S1G_CAP1_RX_LDPC BIT(0)
+#define S1G_CAP1_TX_STBC BIT(1)
+#define S1G_CAP1_RX_STBC BIT(2)
+#define S1G_CAP1_SU_BFER BIT(3)
+#define S1G_CAP1_SU_BFEE BIT(4)
+#define S1G_CAP1_BFEE_STS GENMASK(7, 5)
+
+#define S1G_CAP2_SOUNDING_DIMENSIONS GENMASK(2, 0)
+#define S1G_CAP2_MU_BFER BIT(3)
+#define S1G_CAP2_MU_BFEE BIT(4)
+#define S1G_CAP2_PLUS_HTC_VHT BIT(5)
+#define S1G_CAP2_TRAVELING_PILOT GENMASK(7, 6)
+
+#define S1G_CAP3_RD_RESPONDER BIT(0)
+#define S1G_CAP3_HT_DELAYED_BA BIT(1)
+#define S1G_CAP3_MAX_MPDU_LEN BIT(2)
+#define S1G_CAP3_MAX_AMPDU_LEN_EXP GENMASK(4, 3)
+#define S1G_CAP3_MIN_MPDU_START GENMASK(7, 5)
+
+#define S1G_CAP4_UPLINK_SYNC BIT(0)
+#define S1G_CAP4_DYNAMIC_AID BIT(1)
+#define S1G_CAP4_BAT BIT(2)
+#define S1G_CAP4_TIME_ADE BIT(3)
+#define S1G_CAP4_NON_TIM BIT(4)
+#define S1G_CAP4_GROUP_AID BIT(5)
+#define S1G_CAP4_STA_TYPE GENMASK(7, 6)
+
+#define S1G_CAP5_CENT_AUTH_CONTROL BIT(0)
+#define S1G_CAP5_DIST_AUTH_CONTROL BIT(1)
+#define S1G_CAP5_AMSDU BIT(2)
+#define S1G_CAP5_AMPDU BIT(3)
+#define S1G_CAP5_ASYMMETRIC_BA BIT(4)
+#define S1G_CAP5_FLOW_CONTROL BIT(5)
+#define S1G_CAP5_SECTORIZED_BEAM GENMASK(7, 6)
+
+#define S1G_CAP6_OBSS_MITIGATION BIT(0)
+#define S1G_CAP6_FRAGMENT_BA BIT(1)
+#define S1G_CAP6_NDP_PS_POLL BIT(2)
+#define S1G_CAP6_RAW_OPERATION BIT(3)
+#define S1G_CAP6_PAGE_SLICING BIT(4)
+#define S1G_CAP6_TXOP_SHARING_IMP_ACK BIT(5)
+#define S1G_CAP6_VHT_LINK_ADAPT GENMASK(7, 6)
+
+#define S1G_CAP7_TACK_AS_PS_POLL BIT(0)
+#define S1G_CAP7_DUP_1MHZ BIT(1)
+#define S1G_CAP7_MCS_NEGOTIATION BIT(2)
+#define S1G_CAP7_1MHZ_CTL_RESPONSE_PREAMBLE BIT(3)
+#define S1G_CAP7_NDP_BFING_REPORT_POLL BIT(4)
+#define S1G_CAP7_UNSOLICITED_DYN_AID BIT(5)
+#define S1G_CAP7_SECTOR_TRAINING_OPERATION BIT(6)
+#define S1G_CAP7_TEMP_PS_MODE_SWITCH BIT(7)
+
+#define S1G_CAP8_TWT_GROUPING BIT(0)
+#define S1G_CAP8_BDT BIT(1)
+#define S1G_CAP8_COLOR GENMASK(4, 2)
+#define S1G_CAP8_TWT_REQUEST BIT(5)
+#define S1G_CAP8_TWT_RESPOND BIT(6)
+#define S1G_CAP8_PV1_FRAME BIT(7)
+
+#define S1G_CAP9_LINK_ADAPT_PER_CONTROL_RESPONSE BIT(0)
+
+#define S1G_OPER_CH_WIDTH_PRIMARY BIT(0)
+#define S1G_OPER_CH_WIDTH_OPER GENMASK(4, 1)
+#define S1G_OPER_CH_PRIMARY_LOCATION BIT(5)
+
+#define S1G_2M_PRIMARY_LOCATION_LOWER 0
+#define S1G_2M_PRIMARY_LOCATION_UPPER 1
+
+#define LISTEN_INT_USF GENMASK(15, 14)
+#define LISTEN_INT_UI GENMASK(13, 0)
+
+#define IEEE80211_MAX_USF FIELD_MAX(LISTEN_INT_USF)
+#define IEEE80211_MAX_UI FIELD_MAX(LISTEN_INT_UI)
+
+/* S1G encoding types */
+#define IEEE80211_S1G_TIM_ENC_MODE_BLOCK 0
+#define IEEE80211_S1G_TIM_ENC_MODE_SINGLE 1
+#define IEEE80211_S1G_TIM_ENC_MODE_OLB 2
+
+enum ieee80211_s1g_actioncode {
+ WLAN_S1G_AID_SWITCH_REQUEST,
+ WLAN_S1G_AID_SWITCH_RESPONSE,
+ WLAN_S1G_SYNC_CONTROL,
+ WLAN_S1G_STA_INFO_ANNOUNCE,
+ WLAN_S1G_EDCA_PARAM_SET,
+ WLAN_S1G_EL_OPERATION,
+ WLAN_S1G_TWT_SETUP,
+ WLAN_S1G_TWT_TEARDOWN,
+ WLAN_S1G_SECT_GROUP_ID_LIST,
+ WLAN_S1G_SECT_ID_FEEDBACK,
+ WLAN_S1G_TWT_INFORMATION = 11,
+};
+
+/**
+ * ieee80211_is_s1g_short_beacon - check if frame is an S1G short beacon
+ * @fc: frame control bytes in little-endian byteorder
+ * @variable: pointer to the beacon frame elements
+ * @variable_len: length of the frame elements
+ * Return: whether or not the frame is an S1G short beacon. As per
+ * IEEE80211-2024 11.1.3.10.1, The S1G beacon compatibility element shall
+ * always be present as the first element in beacon frames generated at a
+ * TBTT (Target Beacon Transmission Time), so any frame not containing
+ * this element must have been generated at a TSBTT (Target Short Beacon
+ * Transmission Time) that is not a TBTT. Additionally, short beacons are
+ * prohibited from containing the S1G beacon compatibility element as per
+ * IEEE80211-2024 9.3.4.3 Table 9-76, so if we have an S1G beacon with
+ * either no elements or the first element is not the beacon compatibility
+ * element, we have a short beacon.
+ */
+static inline bool ieee80211_is_s1g_short_beacon(__le16 fc, const u8 *variable,
+ size_t variable_len)
+{
+ if (!ieee80211_is_s1g_beacon(fc))
+ return false;
+
+ /*
+ * If the frame does not contain at least 1 element (this is perfectly
+ * valid in a short beacon) and is an S1G beacon, we have a short
+ * beacon.
+ */
+ if (variable_len < 2)
+ return true;
+
+ return variable[0] != WLAN_EID_S1G_BCN_COMPAT;
+}
+
+struct s1g_tim_aid {
+ u16 aid;
+ u8 target_blk; /* Target block index */
+ u8 target_subblk; /* Target subblock index */
+ u8 target_subblk_bit; /* Target subblock bit */
+};
+
+struct s1g_tim_enc_block {
+ u8 enc_mode;
+ bool inverse;
+ const u8 *ptr;
+ u8 len;
+
+ /*
+ * For an OLB encoded block that spans multiple blocks, this
+ * is the offset into the span described by that encoded block.
+ */
+ u8 olb_blk_offset;
+};
+
+/*
+ * Helper routines to quickly extract the length of an encoded block. Validation
+ * is also performed to ensure the length extracted lies within the TIM.
+ */
+
+static inline int ieee80211_s1g_len_bitmap(const u8 *ptr, const u8 *end)
+{
+ u8 blkmap;
+ u8 n_subblks;
+
+ if (ptr >= end)
+ return -EINVAL;
+
+ blkmap = *ptr;
+ n_subblks = hweight8(blkmap);
+
+ if (ptr + 1 + n_subblks > end)
+ return -EINVAL;
+
+ return 1 + n_subblks;
+}
+
+static inline int ieee80211_s1g_len_single(const u8 *ptr, const u8 *end)
+{
+ return (ptr + 1 > end) ? -EINVAL : 1;
+}
+
+static inline int ieee80211_s1g_len_olb(const u8 *ptr, const u8 *end)
+{
+ if (ptr >= end)
+ return -EINVAL;
+
+ return (ptr + 1 + *ptr > end) ? -EINVAL : 1 + *ptr;
+}
+
+/*
+ * Enumerate all encoded blocks until we find the encoded block that describes
+ * our target AID. OLB is a special case as a single encoded block can describe
+ * multiple blocks as a single encoded block.
+ */
+static inline int ieee80211_s1g_find_target_block(struct s1g_tim_enc_block *enc,
+ const struct s1g_tim_aid *aid,
+ const u8 *ptr, const u8 *end)
+{
+ /* need at least block-control octet */
+ while (ptr + 1 <= end) {
+ u8 ctrl = *ptr++;
+ u8 mode = ctrl & 0x03;
+ bool contains, inverse = ctrl & BIT(2);
+ u8 span, blk_off = ctrl >> 3;
+ int len;
+
+ switch (mode) {
+ case IEEE80211_S1G_TIM_ENC_MODE_BLOCK:
+ len = ieee80211_s1g_len_bitmap(ptr, end);
+ contains = blk_off == aid->target_blk;
+ break;
+ case IEEE80211_S1G_TIM_ENC_MODE_SINGLE:
+ len = ieee80211_s1g_len_single(ptr, end);
+ contains = blk_off == aid->target_blk;
+ break;
+ case IEEE80211_S1G_TIM_ENC_MODE_OLB:
+ len = ieee80211_s1g_len_olb(ptr, end);
+ /*
+ * An OLB encoded block can describe more then one
+ * block, meaning an encoded OLB block can span more
+ * then a single block.
+ */
+ if (len > 0) {
+ /* Minus one for the length octet */
+ span = DIV_ROUND_UP(len - 1, 8);
+ /*
+ * Check if our target block lies within the
+ * block span described by this encoded block.
+ */
+ contains = (aid->target_blk >= blk_off) &&
+ (aid->target_blk < blk_off + span);
+ }
+ break;
+ default:
+ return -EOPNOTSUPP;
+ }
+
+ if (len < 0)
+ return len;
+
+ if (contains) {
+ enc->enc_mode = mode;
+ enc->inverse = inverse;
+ enc->ptr = ptr;
+ enc->len = (u8)len;
+ enc->olb_blk_offset = blk_off;
+ return 0;
+ }
+
+ ptr += len;
+ }
+
+ return -ENOENT;
+}
+
+static inline bool ieee80211_s1g_parse_bitmap(struct s1g_tim_enc_block *enc,
+ struct s1g_tim_aid *aid)
+{
+ const u8 *ptr = enc->ptr;
+ u8 blkmap = *ptr++;
+
+ /*
+ * If our block bitmap does not contain a set bit that corresponds
+ * to our AID, it could mean a variety of things depending on if
+ * the encoding mode is inverted or not.
+ *
+ * 1. If inverted, it means the entire subblock is present and hence
+ * our AID has been set.
+ * 2. If not inverted, it means our subblock is not present and hence
+ * it is all zero meaning our AID is not set.
+ */
+ if (!(blkmap & BIT(aid->target_subblk)))
+ return enc->inverse;
+
+ /*
+ * Increment ptr by the number of set subblocks that appear before our
+ * target subblock. If our target subblock is 0, do nothing as ptr
+ * already points to our target subblock.
+ */
+ if (aid->target_subblk)
+ ptr += hweight8(blkmap & GENMASK(aid->target_subblk - 1, 0));
+
+ return !!(*ptr & BIT(aid->target_subblk_bit)) ^ enc->inverse;
+}
+
+static inline bool ieee80211_s1g_parse_single(struct s1g_tim_enc_block *enc,
+ struct s1g_tim_aid *aid)
+{
+ /*
+ * Single AID mode describes, as the name suggests, a single AID
+ * within the block described by the encoded block. The octet
+ * contains the 6 LSBs of the AID described in the block. The other
+ * 2 bits are reserved. When inversed, every single AID described
+ * by the current block have buffered traffic except for the AID
+ * described in the single AID octet.
+ */
+ return ((*enc->ptr & 0x3f) == (aid->aid & 0x3f)) ^ enc->inverse;
+}
+
+static inline bool ieee80211_s1g_parse_olb(struct s1g_tim_enc_block *enc,
+ struct s1g_tim_aid *aid)
+{
+ const u8 *ptr = enc->ptr;
+ u8 blk_len = *ptr++;
+ /*
+ * Given an OLB encoded block that describes multiple blocks,
+ * calculate the offset into the span. Then calculate the
+ * subblock location normally.
+ */
+ u16 span_offset = aid->target_blk - enc->olb_blk_offset;
+ u16 subblk_idx = span_offset * 8 + aid->target_subblk;
+
+ if (subblk_idx >= blk_len)
+ return enc->inverse;
+
+ return !!(ptr[subblk_idx] & BIT(aid->target_subblk_bit)) ^ enc->inverse;
+}
+
+/*
+ * An S1G PVB has 3 non optional encoding types, each that can be inverted.
+ * An S1G PVB is constructed with zero or more encoded block subfields. Each
+ * encoded block represents a single "block" of AIDs (64), and each encoded
+ * block can contain one of the 3 encoding types alongside a single bit for
+ * whether the bits should be inverted.
+ *
+ * As the standard makes no guarantee about the ordering of encoded blocks,
+ * we must parse every encoded block in the worst case scenario given an
+ * AID that lies within the last block.
+ */
+static inline bool ieee80211_s1g_check_tim(const struct ieee80211_tim_ie *tim,
+ u8 tim_len, u16 aid)
+{
+ int err;
+ struct s1g_tim_aid target_aid;
+ struct s1g_tim_enc_block enc_blk;
+
+ if (tim_len < 3)
+ return false;
+
+ target_aid.aid = aid;
+ target_aid.target_blk = (aid >> 6) & 0x1f;
+ target_aid.target_subblk = (aid >> 3) & 0x7;
+ target_aid.target_subblk_bit = aid & 0x7;
+
+ /*
+ * Find our AIDs target encoded block and fill &enc_blk with the
+ * encoded blocks information. If no entry is found or an error
+ * occurs return false.
+ */
+ err = ieee80211_s1g_find_target_block(&enc_blk, &target_aid,
+ tim->virtual_map,
+ (const u8 *)tim + tim_len + 2);
+ if (err)
+ return false;
+
+ switch (enc_blk.enc_mode) {
+ case IEEE80211_S1G_TIM_ENC_MODE_BLOCK:
+ return ieee80211_s1g_parse_bitmap(&enc_blk, &target_aid);
+ case IEEE80211_S1G_TIM_ENC_MODE_SINGLE:
+ return ieee80211_s1g_parse_single(&enc_blk, &target_aid);
+ case IEEE80211_S1G_TIM_ENC_MODE_OLB:
+ return ieee80211_s1g_parse_olb(&enc_blk, &target_aid);
+ default:
+ return false;
+ }
+}
+
+#endif /* LINUX_IEEE80211_H */
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