platform_hardware_libhardwa.../include/hardware_legacy/wifi_hal.h
Isaac Chiou 4172a388c7 Add HAL APIs and configurations for Tx power limits
To lower the instantaneous battery current draw of WiFi, we provide
a way to allow PowerManager to enable/disable Tx power limits.
In this CL,
we define an API in WiFi HAL, and can be referenced by Broadcom HAL.

Bug: 215193418
Test: New APIs work fine
Change-Id: I907687a4d71f48869617edc6e013639dfbccb851
2022-04-21 11:17:02 +08:00

1042 lines
48 KiB
C
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/*
* Copyright (C) 2016 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#ifndef __WIFI_HAL_H__
#define __WIFI_HAL_H__
#ifdef __cplusplus
extern "C"
{
#endif
#include <stdint.h>
#define IFNAMSIZ 16
/* typedefs */
typedef unsigned char byte;
typedef unsigned char u8;
typedef signed char s8;
typedef uint16_t u16;
typedef uint32_t u32;
typedef int32_t s32;
typedef uint64_t u64;
typedef int64_t s64;
typedef int wifi_request_id;
typedef int wifi_channel; // indicates channel frequency in MHz
typedef int wifi_rssi;
typedef int wifi_radio;
typedef byte mac_addr[6];
typedef byte oui[3];
typedef int64_t wifi_timestamp; // In microseconds (us)
typedef int64_t wifi_timespan; // In picoseconds (ps)
typedef uint64_t feature_set;
/* forward declarations */
struct wifi_info;
struct wifi_interface_info;
typedef struct wifi_info *wifi_handle;
typedef struct wifi_interface_info *wifi_interface_handle;
/* WiFi Common definitions */
/* channel operating width */
typedef enum {
WIFI_CHAN_WIDTH_20 = 0,
WIFI_CHAN_WIDTH_40 = 1,
WIFI_CHAN_WIDTH_80 = 2,
WIFI_CHAN_WIDTH_160 = 3,
WIFI_CHAN_WIDTH_80P80 = 4,
WIFI_CHAN_WIDTH_5 = 5,
WIFI_CHAN_WIDTH_10 = 6,
WIFI_CHAN_WIDTH_320 = 7,
WIFI_CHAN_WIDTH_INVALID = -1
} wifi_channel_width;
/* Pre selected Power scenarios to be applied from BDF file */
typedef enum {
WIFI_POWER_SCENARIO_INVALID = -2,
WIFI_POWER_SCENARIO_DEFAULT = -1,
WIFI_POWER_SCENARIO_VOICE_CALL = 0,
WIFI_POWER_SCENARIO_ON_HEAD_CELL_OFF = 1,
WIFI_POWER_SCENARIO_ON_HEAD_CELL_ON = 2,
WIFI_POWER_SCENARIO_ON_BODY_CELL_OFF = 3,
WIFI_POWER_SCENARIO_ON_BODY_CELL_ON = 4,
WIFI_POWER_SCENARIO_ON_BODY_BT = 5,
WIFI_POWER_SCENARIO_ON_HEAD_HOTSPOT = 6,
WIFI_POWER_SCENARIO_ON_HEAD_HOTSPOT_MMW = 7,
WIFI_POWER_SCENARIO_ON_BODY_CELL_ON_BT = 8,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT = 9,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT_BT = 10,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT_MMW = 11,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT_BT_MMW = 12,
WIFI_POWER_SCENARIO_ON_HEAD_CELL_OFF_UNFOLDED = 13,
WIFI_POWER_SCENARIO_ON_HEAD_CELL_ON_UNFOLDED = 14,
WIFI_POWER_SCENARIO_ON_HEAD_HOTSPOT_UNFOLDED = 15,
WIFI_POWER_SCENARIO_ON_HEAD_HOTSPOT_MMW_UNFOLDED = 16,
WIFI_POWER_SCENARIO_ON_BODY_CELL_OFF_UNFOLDED = 17,
WIFI_POWER_SCENARIO_ON_BODY_BT_UNFOLDED = 18,
WIFI_POWER_SCENARIO_ON_BODY_CELL_ON_UNFOLDED = 19,
WIFI_POWER_SCENARIO_ON_BODY_CELL_ON_BT_UNFOLDED = 20,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT_UNFOLDED = 21,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT_BT_UNFOLDED = 22,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT_MMW_UNFOLDED = 23,
WIFI_POWER_SCENARIO_ON_BODY_HOTSPOT_BT_MMW_UNFOLDED = 24,
} wifi_power_scenario;
typedef enum {
WIFI_LATENCY_MODE_NORMAL = 0,
WIFI_LATENCY_MODE_LOW = 1,
} wifi_latency_mode;
/* Wifi Thermal mitigation modes */
typedef enum {
WIFI_MITIGATION_NONE = 0,
WIFI_MITIGATION_LIGHT = 1,
WIFI_MITIGATION_MODERATE = 2,
WIFI_MITIGATION_SEVERE = 3,
WIFI_MITIGATION_CRITICAL = 4,
WIFI_MITIGATION_EMERGENCY = 5,
} wifi_thermal_mode;
/*
* Wifi voice over IP mode
* may add new modes later, for example, voice + video over IP mode.
*/
typedef enum {
WIFI_VOIP_MODE_OFF = 0,
WIFI_VOIP_MODE_ON = 1,
} wifi_voip_mode;
/* List of interface types supported */
typedef enum {
WIFI_INTERFACE_TYPE_STA = 0,
WIFI_INTERFACE_TYPE_AP = 1,
WIFI_INTERFACE_TYPE_P2P = 2,
WIFI_INTERFACE_TYPE_NAN = 3,
} wifi_interface_type;
/*
* enum wlan_mac_band - Band information corresponding to the WLAN MAC.
*/
typedef enum {
/* WLAN MAC Operates in 2.4 GHz Band */
WLAN_MAC_2_4_BAND = 1 << 0,
/* WLAN MAC Operates in 5 GHz Band */
WLAN_MAC_5_0_BAND = 1 << 1,
/* WLAN MAC Operates in 6 GHz Band */
WLAN_MAC_6_0_BAND = 1 << 2,
/* WLAN MAC Operates in 60 GHz Band */
WLAN_MAC_60_0_BAND = 1 << 3,
} wlan_mac_band;
/* List of chre nan rtt state */
typedef enum {
CHRE_PREEMPTED = 0,
CHRE_UNAVAILABLE = 1,
CHRE_AVAILABLE = 2,
} chre_nan_rtt_state;
typedef struct {
wifi_channel_width width;
int center_frequency0;
int center_frequency1;
int primary_frequency;
} wifi_channel_spec;
/*
* wifi_usable_channel specifies a channel frequency, bandwidth, and bitmask
* of modes allowed on the channel.
*/
typedef struct {
/* Channel frequency in MHz */
wifi_channel freq;
/* Channel operating width (20, 40, 80, 160, 320 etc.) */
wifi_channel_width width;
/* BIT MASK of BIT(WIFI_INTERFACE_*) represented by |wifi_interface_mode|
* Bitmask does not represent concurrency.
* Examples:
* - If a channel is usable only for STA, then only the WIFI_INTERFACE_STA
* bit would be set for that channel.
* - If 5GHz SAP is not allowed, then none of the 5GHz channels will have
* WIFI_INTERFACE_SOFTAP bit set.
* Note: TDLS bit is set only if there is a STA connection. TDLS bit is set
* on non-STA channels only if TDLS off channel is supported.
*/
u32 iface_mode_mask;
} wifi_usable_channel;
/*
* wifi_usable_channel_filter
*/
typedef enum {
/* Filter Wifi channels that should be avoided due to cellular coex
* restrictions. Some Wifi channels can have extreme interference
* from/to cellular due to short frequency separation with neighboring
* cellular channels or when there is harmonic and intermodulation
* interference. Channels which only have some performance degradation
* (e.g. power back off is sufficient to deal with coexistence issue)
* can be included and should not be filtered out.
*/
WIFI_USABLE_CHANNEL_FILTER_CELLULAR_COEXISTENCE = 1 << 0,
/* Filter channels due to concurrency state.
* Examples:
* - 5GHz SAP operation may be supported in standalone mode, but if
* there is STA connection on 5GHz DFS channel, none of the 5GHz
* channels are usable for SAP if device does not support DFS SAP mode.
* - P2P GO may not be supported on indoor channels in EU during
* standalone mode but if there is a STA connection on indoor channel,
* P2P GO may be supported by some vendors on the same STA channel.
*/
WIFI_USABLE_CHANNEL_FILTER_CONCURRENCY = 1 << 1,
/* This Filter queries Wifi channels and bands that are supported for
* NAN3.1 Instant communication mode. This filter should only be applied to NAN interface.
* If 5G is supported default discovery channel 149/44 is considered,
* If 5G is not supported then channel 6 has to be considered.
* Based on regulatory domain if channel 149 and 44 are restricted, channel 6 should
* be considered for instant communication channel
*/
WIFI_USABLE_CHANNEL_FILTER_NAN_INSTANT_MODE = 1 << 2,
} wifi_usable_channel_filter;
typedef enum {
WIFI_SUCCESS = 0,
WIFI_ERROR_NONE = 0,
WIFI_ERROR_UNKNOWN = -1,
WIFI_ERROR_UNINITIALIZED = -2,
WIFI_ERROR_NOT_SUPPORTED = -3,
WIFI_ERROR_NOT_AVAILABLE = -4, // Not available right now, but try later
WIFI_ERROR_INVALID_ARGS = -5,
WIFI_ERROR_INVALID_REQUEST_ID = -6,
WIFI_ERROR_TIMED_OUT = -7,
WIFI_ERROR_TOO_MANY_REQUESTS = -8, // Too many instances of this request
WIFI_ERROR_OUT_OF_MEMORY = -9,
WIFI_ERROR_BUSY = -10,
} wifi_error;
typedef enum {
WIFI_ACCESS_CATEGORY_BEST_EFFORT = 0,
WIFI_ACCESS_CATEGORY_BACKGROUND = 1,
WIFI_ACCESS_CATEGORY_VIDEO = 2,
WIFI_ACCESS_CATEGORY_VOICE = 3
} wifi_access_category;
/* Antenna configuration */
typedef enum {
WIFI_ANTENNA_UNSPECIFIED = 0,
WIFI_ANTENNA_1X1 = 1,
WIFI_ANTENNA_2X2 = 2,
WIFI_ANTENNA_3X3 = 3,
WIFI_ANTENNA_4X4 = 4,
} wifi_antenna_configuration;
/* Wifi Radio configuration */
typedef struct {
/* Operating band */
wlan_mac_band band;
/* Antenna configuration */
wifi_antenna_configuration antenna_cfg;
} wifi_radio_configuration;
/* WiFi Radio Combination */
typedef struct {
u32 num_radio_configurations;
wifi_radio_configuration radio_configurations[];
} wifi_radio_combination;
/* WiFi Radio combinations matrix */
/* For Example in case of a chip which has two radios, where one radio is
* capable of 2.4GHz 2X2 only and another radio which is capable of either
* 5GHz or 6GHz 2X2, number of possible radio combinations in this case
* are 5 and possible combinations are
* {{{2G 2X2}}, //Standalone 2G
* {{5G 2X2}}, //Standalone 5G
* {{6G 2X2}}, //Standalone 6G
* {{2G 2X2}, {5G 2X2}}, //2G+5G DBS
* {{2G 2X2}, {6G 2X2}}} //2G+6G DBS
* Note: Since this chip doesnt support 5G+6G simultaneous operation
* as there is only one radio which can support both, So it can only
* do MCC 5G+6G. This table should not get populated with possible MCC
* configurations. This is only for simultaneous radio configurations
* (such as Standalone, multi band simultaneous or single band simultaneous).
*/
typedef struct {
u32 num_radio_combinations;
/* Each row represents possible radio combinations */
wifi_radio_combination radio_combinations[];
} wifi_radio_combination_matrix;
/* Initialize/Cleanup */
wifi_error wifi_initialize(wifi_handle *handle);
/**
* wifi_wait_for_driver
* Function should block until the driver is ready to proceed.
* Any errors from this function is considered fatal & will fail the HAL startup sequence.
*
* on success returns WIFI_SUCCESS
* on failure returns WIFI_ERROR_TIMED_OUT
*/
wifi_error wifi_wait_for_driver_ready(void);
typedef void (*wifi_cleaned_up_handler) (wifi_handle handle);
void wifi_cleanup(wifi_handle handle, wifi_cleaned_up_handler handler);
void wifi_event_loop(wifi_handle handle);
/* Error handling */
void wifi_get_error_info(wifi_error err, const char **msg); // return a pointer to a static string
/* Feature enums */
#define WIFI_FEATURE_INFRA (uint64_t)0x1 // Basic infrastructure mode
#define WIFI_FEATURE_INFRA_5G (uint64_t)0x2 // Support for 5 GHz Band
#define WIFI_FEATURE_HOTSPOT (uint64_t)0x4 // Support for GAS/ANQP
#define WIFI_FEATURE_P2P (uint64_t)0x8 // Wifi-Direct
#define WIFI_FEATURE_SOFT_AP (uint64_t)0x10 // Soft AP
#define WIFI_FEATURE_GSCAN (uint64_t)0x20 // Google-Scan APIs
#define WIFI_FEATURE_NAN (uint64_t)0x40 // Neighbor Awareness Networking
#define WIFI_FEATURE_D2D_RTT (uint64_t)0x80 // Device-to-device RTT
#define WIFI_FEATURE_D2AP_RTT (uint64_t)0x100 // Device-to-AP RTT
#define WIFI_FEATURE_BATCH_SCAN (uint64_t)0x200 // Batched Scan (legacy)
#define WIFI_FEATURE_PNO (uint64_t)0x400 // Preferred network offload
#define WIFI_FEATURE_ADDITIONAL_STA (uint64_t)0x800 // Support for two STAs
#define WIFI_FEATURE_TDLS (uint64_t)0x1000 // Tunnel directed link setup
#define WIFI_FEATURE_TDLS_OFFCHANNEL (uint64_t)0x2000 // Support for TDLS off channel
#define WIFI_FEATURE_EPR (uint64_t)0x4000 // Enhanced power reporting
#define WIFI_FEATURE_AP_STA (uint64_t)0x8000 // Support for AP STA Concurrency
#define WIFI_FEATURE_LINK_LAYER_STATS (uint64_t)0x10000 // Link layer stats collection
#define WIFI_FEATURE_LOGGER (uint64_t)0x20000 // WiFi Logger
#define WIFI_FEATURE_HAL_EPNO (uint64_t)0x40000 // WiFi PNO enhanced
#define WIFI_FEATURE_RSSI_MONITOR (uint64_t)0x80000 // RSSI Monitor
#define WIFI_FEATURE_MKEEP_ALIVE (uint64_t)0x100000 // WiFi mkeep_alive
#define WIFI_FEATURE_CONFIG_NDO (uint64_t)0x200000 // ND offload configure
#define WIFI_FEATURE_TX_TRANSMIT_POWER (uint64_t)0x400000 // Capture Tx transmit power levels
#define WIFI_FEATURE_CONTROL_ROAMING (uint64_t)0x800000 // Enable/Disable firmware roaming
#define WIFI_FEATURE_IE_WHITELIST (uint64_t)0x1000000 // Support Probe IE white listing
#define WIFI_FEATURE_SCAN_RAND (uint64_t)0x2000000 // Support MAC & Probe Sequence Number randomization
#define WIFI_FEATURE_SET_TX_POWER_LIMIT (uint64_t)0x4000000 // Support Tx Power Limit setting
#define WIFI_FEATURE_USE_BODY_HEAD_SAR (uint64_t)0x8000000 // Support Using Body/Head Proximity for SAR
#define WIFI_FEATURE_DYNAMIC_SET_MAC (uint64_t)0x10000000 // Support changing MAC address without iface reset(down and up)
#define WIFI_FEATURE_SET_LATENCY_MODE (uint64_t)0x40000000 // Support Latency mode setting
#define WIFI_FEATURE_P2P_RAND_MAC (uint64_t)0x80000000 // Support P2P MAC randomization
#define WIFI_FEATURE_INFRA_60G (uint64_t)0x100000000 // Support for 60GHz Band
// Add more features here
#define IS_MASK_SET(mask, flags) (((flags) & (mask)) == (mask))
#define IS_SUPPORTED_FEATURE(feature, featureSet) IS_MASK_SET(feature, featureSet)
/* Feature set */
wifi_error wifi_get_supported_feature_set(wifi_interface_handle handle, feature_set *set);
/*
* Each row represents a valid feature combination;
* all other combinations are invalid!
*/
wifi_error wifi_get_concurrency_matrix(wifi_interface_handle handle, int set_size_max,
feature_set set[], int *set_size);
/* multiple interface support */
wifi_error wifi_get_ifaces(wifi_handle handle, int *num_ifaces, wifi_interface_handle **ifaces);
wifi_error wifi_get_iface_name(wifi_interface_handle iface, char *name, size_t size);
wifi_interface_handle wifi_get_iface_handle(wifi_handle handle, char *name);
/* STA + STA support - Supported if WIFI_FEATURE_ADDITIONAL_STA is set */
/**
* Invoked to indicate that the provided iface is the primary STA iface when there are more
* than 1 STA iface concurrently active.
*
* Note: If the wifi firmware/chip cannot support multiple instances of any offload
* (like roaming, APF, rssi threshold, etc), the firmware should ensure that these
* offloads are at least enabled for the primary interface. If the new primary interface is
* already connected to a network, the firmware must switch all the offloads on
* this new interface without disconnecting.
*/
wifi_error wifi_multi_sta_set_primary_connection(wifi_handle handle, wifi_interface_handle iface);
/**
* When there are 2 or more simultaneous STA connections, this use case hint indicates what
* use-case is being enabled by the framework. This use case hint can be used by the firmware
* to modify various firmware configurations like:
* - Allowed BSSIDs the firmware can choose for the initial connection/roaming attempts.
* - Duty cycle to choose for the 2 STA connections if the radio is in MCC mode.
* - Whether roaming, APF and other offloads needs to be enabled or not.
*
* Note:
* - This will be invoked before an active wifi connection is established on the second interface.
* - This use-case hint is implicitly void when the second STA interface is brought down.
*/
typedef enum {
/**
* Usage:
* - This will be sent down for make before break use-case.
* - Platform is trying to speculatively connect to a second network and evaluate it without
* disrupting the primary connection.
*
* Requirements for Firmware:
* - Do not reduce the number of tx/rx chains of primary connection.
* - If using MCC, should set the MCC duty cycle of the primary connection to be higher than
* the secondary connection (maybe 70/30 split).
* - Should pick the best BSSID for the secondary STA (disregard the chip mode) independent of
* the primary STA:
* - Dont optimize for DBS vs MCC/SCC
* - Should not impact the primary connections bssid selection:
* - Dont downgrade chains of the existing primary connection.
* - Dont optimize for DBS vs MCC/SCC.
*/
WIFI_DUAL_STA_TRANSIENT_PREFER_PRIMARY = 0,
/**
* Usage:
* - This will be sent down for any app requested peer to peer connections.
* - In this case, both the connections needs to be allocated equal resources.
* - For the peer to peer use case, BSSID for the secondary connection will be chosen by the
* framework.
*
* Requirements for Firmware:
* - Can choose MCC or DBS mode depending on the MCC efficiency and HW capability.
* - If using MCC, set the MCC duty cycle of the primary connection to be equal to the secondary
* connection.
* - Prefer BSSID candidates which will help provide the best "overall" performance for both the
* connections.
*/
WIFI_DUAL_STA_NON_TRANSIENT_UNBIASED = 1
} wifi_multi_sta_use_case;
wifi_error wifi_multi_sta_set_use_case(wifi_handle handle, wifi_multi_sta_use_case use_case);
/* Configuration events */
typedef struct {
void (*on_country_code_changed)(char code[2]); // We can get this from supplicant too
// More event handlers
} wifi_event_handler;
typedef struct {
char iface_name[IFNAMSIZ + 1];
wifi_channel channel;
} wifi_iface_info;
typedef struct {
u32 wlan_mac_id;
/* BIT MASK of BIT(WLAN_MAC*) as represented by wlan_mac_band */
u32 mac_band;
/* Represents the connected Wi-Fi interfaces associated with each MAC */
int num_iface;
wifi_iface_info *iface_info;
} wifi_mac_info;
typedef struct {
void (*on_radio_mode_change)(wifi_request_id id, unsigned num_mac,
wifi_mac_info *mac_info);
} wifi_radio_mode_change_handler;
typedef struct {
void (*on_rssi_threshold_breached)(wifi_request_id id, u8 *cur_bssid, s8 cur_rssi);
} wifi_rssi_event_handler;
typedef struct {
void (*on_subsystem_restart)(const char* error);
} wifi_subsystem_restart_handler;
typedef struct {
void (*on_chre_nan_rtt_change)(chre_nan_rtt_state state);
} wifi_chre_handler;
wifi_error wifi_set_iface_event_handler(wifi_request_id id, wifi_interface_handle iface, wifi_event_handler eh);
wifi_error wifi_reset_iface_event_handler(wifi_request_id id, wifi_interface_handle iface);
wifi_error wifi_set_nodfs_flag(wifi_interface_handle handle, u32 nodfs);
wifi_error wifi_select_tx_power_scenario(wifi_interface_handle handle, wifi_power_scenario scenario);
wifi_error wifi_reset_tx_power_scenario(wifi_interface_handle handle);
wifi_error wifi_set_latency_mode(wifi_interface_handle handle, wifi_latency_mode mode);
wifi_error wifi_map_dscp_access_category(wifi_handle handle,
uint32_t start, uint32_t end,
uint32_t access_category);
wifi_error wifi_reset_dscp_mapping(wifi_handle handle);
wifi_error wifi_set_subsystem_restart_handler(wifi_handle handle,
wifi_subsystem_restart_handler handler);
/**
* Wifi HAL Thermal Mitigation API
*
* wifi_handle : wifi global handle (note: this is not a interface specific
* command). Mitigation is expected to be applied across all active interfaces
* The implementation and the mitigation action mapping to each mode is chip
* specific. Mitigation will be active until Wifi is turned off or
* WIFI_MITIGATION_NONE mode is sent
*
* mode: Thermal mitigation mode
* WIFI_MITIGATION_NONE : Clear all Wifi thermal mitigation actions
* WIFI_MITIGATION_LIGHT : Light Throttling where UX is not impacted
* WIFI_MITIGATION_MODERATE : Moderate throttling where UX not largely impacted
* WIFI_MITIGATION_SEVERE : Severe throttling where UX is largely impacted
* WIFI_MITIGATION_CRITICAL : Platform has done everything to reduce power
* WIFI_MITIGATION_EMERGENCY: Key components in platform are shutting down
*
* completion_window
* Deadline (in milliseconds) to complete this request, value 0 implies apply
* immediately. Deadline is basically a relaxed limit and allows vendors to
* apply the mitigation within the window (if it cannot apply immediately)
*
* Return
* WIFI_ERROR_NOT_SUPPORTED : Chip does not support thermal mitigation
* WIFI_ERROR_BUSY : Mitigation is supported, but retry later
* WIFI_ERROR_NONE : Mitigation request has been accepted
*/
wifi_error wifi_set_thermal_mitigation_mode(wifi_handle handle,
wifi_thermal_mode mode,
u32 completion_window);
typedef struct rx_data_cnt_details_t {
int rx_unicast_cnt; /*Total rx unicast packet which woke up host */
int rx_multicast_cnt; /*Total rx multicast packet which woke up host */
int rx_broadcast_cnt; /*Total rx broadcast packet which woke up host */
} RX_DATA_WAKE_CNT_DETAILS;
typedef struct rx_wake_pkt_type_classification_t {
int icmp_pkt; /*wake icmp packet count */
int icmp6_pkt; /*wake icmp6 packet count */
int icmp6_ra; /*wake icmp6 RA packet count */
int icmp6_na; /*wake icmp6 NA packet count */
int icmp6_ns; /*wake icmp6 NS packet count */
//ToDo: Any more interesting classification to add?
} RX_WAKE_PKT_TYPE_CLASSFICATION;
typedef struct rx_multicast_cnt_t{
int ipv4_rx_multicast_addr_cnt; /*Rx wake packet was ipv4 multicast */
int ipv6_rx_multicast_addr_cnt; /*Rx wake packet was ipv6 multicast */
int other_rx_multicast_addr_cnt;/*Rx wake packet was non-ipv4 and non-ipv6*/
} RX_MULTICAST_WAKE_DATA_CNT;
/*
* Structure holding all the driver/firmware wake count reasons.
*
* Buffers for the array fields (cmd_event_wake_cnt/driver_fw_local_wake_cnt)
* are allocated and freed by the framework. The size of each allocated
* array is indicated by the corresponding |_cnt| field. HAL needs to fill in
* the corresponding |_used| field to indicate the number of elements used in
* the array.
*/
typedef struct wlan_driver_wake_reason_cnt_t {
int total_cmd_event_wake; /* Total count of cmd event wakes */
int *cmd_event_wake_cnt; /* Individual wake count array, each index a reason */
int cmd_event_wake_cnt_sz; /* Max number of cmd event wake reasons */
int cmd_event_wake_cnt_used; /* Number of cmd event wake reasons specific to the driver */
int total_driver_fw_local_wake; /* Total count of drive/fw wakes, for local reasons */
int *driver_fw_local_wake_cnt; /* Individual wake count array, each index a reason */
int driver_fw_local_wake_cnt_sz; /* Max number of local driver/fw wake reasons */
int driver_fw_local_wake_cnt_used; /* Number of local driver/fw wake reasons specific to the driver */
int total_rx_data_wake; /* total data rx packets, that woke up host */
RX_DATA_WAKE_CNT_DETAILS rx_wake_details;
RX_WAKE_PKT_TYPE_CLASSFICATION rx_wake_pkt_classification_info;
RX_MULTICAST_WAKE_DATA_CNT rx_multicast_wake_pkt_info;
} WLAN_DRIVER_WAKE_REASON_CNT;
/* Wi-Fi coex channel avoidance support */
#define WIFI_COEX_NO_POWER_CAP (int32_t)0x7FFFFFF
typedef enum {
WIFI_AWARE = 1 << 0,
SOFTAP = 1 << 1,
WIFI_DIRECT = 1 << 2
} wifi_coex_restriction;
/**
* Representation of a Wi-Fi channel to be avoided for Wi-Fi coex channel avoidance.
*
* band is represented as an WLAN_MAC* enum value defined in wlan_mac_band.
* If power_cap_dbm is WIFI_COEX_NO_POWER_CAP, then no power cap should be applied if the specified
* channel is used.
*/
typedef struct {
wlan_mac_band band;
u32 channel;
s32 power_cap_dbm;
} wifi_coex_unsafe_channel;
/* include various feature headers */
#include "gscan.h"
#include "link_layer_stats.h"
#include "rtt.h"
#include "tdls.h"
#include "wifi_logger.h"
#include "wifi_config.h"
#include "wifi_nan.h"
#include "wifi_offload.h"
#include "roam.h"
#include "wifi_twt.h"
//wifi HAL function pointer table
typedef struct {
wifi_error (* wifi_initialize) (wifi_handle *);
wifi_error (* wifi_wait_for_driver_ready) (void);
void (* wifi_cleanup) (wifi_handle, wifi_cleaned_up_handler);
void (*wifi_event_loop)(wifi_handle);
void (* wifi_get_error_info) (wifi_error , const char **);
wifi_error (* wifi_get_supported_feature_set) (wifi_interface_handle, feature_set *);
wifi_error (* wifi_get_concurrency_matrix) (wifi_interface_handle, int, feature_set *, int *);
wifi_error (* wifi_set_scanning_mac_oui) (wifi_interface_handle, unsigned char *);
wifi_error (* wifi_get_supported_channels)(wifi_handle, int *, wifi_channel *);
wifi_error (* wifi_is_epr_supported)(wifi_handle);
wifi_error (* wifi_get_ifaces) (wifi_handle , int *, wifi_interface_handle **);
wifi_error (* wifi_get_iface_name) (wifi_interface_handle, char *name, size_t);
wifi_error (* wifi_set_iface_event_handler) (wifi_request_id,wifi_interface_handle ,
wifi_event_handler);
wifi_error (* wifi_reset_iface_event_handler) (wifi_request_id, wifi_interface_handle);
wifi_error (* wifi_start_gscan) (wifi_request_id, wifi_interface_handle, wifi_scan_cmd_params,
wifi_scan_result_handler);
wifi_error (* wifi_stop_gscan)(wifi_request_id, wifi_interface_handle);
wifi_error (* wifi_get_cached_gscan_results)(wifi_interface_handle, byte, int,
wifi_cached_scan_results *, int *);
wifi_error (* wifi_set_bssid_hotlist)(wifi_request_id, wifi_interface_handle,
wifi_bssid_hotlist_params, wifi_hotlist_ap_found_handler);
wifi_error (* wifi_reset_bssid_hotlist)(wifi_request_id, wifi_interface_handle);
wifi_error (* wifi_set_significant_change_handler)(wifi_request_id, wifi_interface_handle,
wifi_significant_change_params, wifi_significant_change_handler);
wifi_error (* wifi_reset_significant_change_handler)(wifi_request_id, wifi_interface_handle);
wifi_error (* wifi_get_gscan_capabilities)(wifi_interface_handle, wifi_gscan_capabilities *);
wifi_error (* wifi_set_link_stats) (wifi_interface_handle, wifi_link_layer_params);
wifi_error (* wifi_get_link_stats) (wifi_request_id,wifi_interface_handle,
wifi_stats_result_handler);
wifi_error (* wifi_clear_link_stats)(wifi_interface_handle,u32, u32 *, u8, u8 *);
wifi_error (* wifi_get_valid_channels)(wifi_interface_handle,int, int, wifi_channel *, int *);
wifi_error (* wifi_rtt_range_request)(wifi_request_id, wifi_interface_handle, unsigned,
wifi_rtt_config[], wifi_rtt_event_handler);
wifi_error (* wifi_rtt_range_cancel)(wifi_request_id, wifi_interface_handle, unsigned,
mac_addr[]);
wifi_error (* wifi_get_rtt_capabilities)(wifi_interface_handle, wifi_rtt_capabilities *);
wifi_error (* wifi_rtt_get_responder_info)(wifi_interface_handle iface,
wifi_rtt_responder *responder_info);
wifi_error (* wifi_enable_responder)(wifi_request_id id, wifi_interface_handle iface,
wifi_channel_info channel_hint, unsigned max_duration_seconds,
wifi_rtt_responder *responder_info);
wifi_error (* wifi_disable_responder)(wifi_request_id id, wifi_interface_handle iface);
wifi_error (* wifi_set_nodfs_flag)(wifi_interface_handle, u32);
wifi_error (* wifi_start_logging)(wifi_interface_handle, u32, u32, u32, u32, char *);
wifi_error (* wifi_set_epno_list)(wifi_request_id, wifi_interface_handle,
const wifi_epno_params *, wifi_epno_handler);
wifi_error (* wifi_reset_epno_list)(wifi_request_id, wifi_interface_handle);
wifi_error (* wifi_set_country_code)(wifi_interface_handle, const char *);
wifi_error (* wifi_get_firmware_memory_dump)( wifi_interface_handle iface,
wifi_firmware_memory_dump_handler handler);
wifi_error (* wifi_set_log_handler)(wifi_request_id id, wifi_interface_handle iface,
wifi_ring_buffer_data_handler handler);
wifi_error (* wifi_reset_log_handler)(wifi_request_id id, wifi_interface_handle iface);
wifi_error (* wifi_set_alert_handler)(wifi_request_id id, wifi_interface_handle iface,
wifi_alert_handler handler);
wifi_error (* wifi_reset_alert_handler)(wifi_request_id id, wifi_interface_handle iface);
wifi_error (* wifi_get_firmware_version)(wifi_interface_handle iface, char *buffer,
int buffer_size);
wifi_error (* wifi_get_ring_buffers_status)(wifi_interface_handle iface,
u32 *num_rings, wifi_ring_buffer_status *status);
wifi_error (* wifi_get_logger_supported_feature_set)(wifi_interface_handle iface,
unsigned int *support);
wifi_error (* wifi_get_ring_data)(wifi_interface_handle iface, char *ring_name);
wifi_error (* wifi_enable_tdls)(wifi_interface_handle, mac_addr, wifi_tdls_params *,
wifi_tdls_handler);
wifi_error (* wifi_disable_tdls)(wifi_interface_handle, mac_addr);
wifi_error (*wifi_get_tdls_status) (wifi_interface_handle, mac_addr, wifi_tdls_status *);
wifi_error (*wifi_get_tdls_capabilities)(wifi_interface_handle iface,
wifi_tdls_capabilities *capabilities);
wifi_error (* wifi_get_driver_version)(wifi_interface_handle iface, char *buffer,
int buffer_size);
wifi_error (* wifi_set_passpoint_list)(wifi_request_id id, wifi_interface_handle iface,
int num, wifi_passpoint_network *networks, wifi_passpoint_event_handler handler);
wifi_error (* wifi_reset_passpoint_list)(wifi_request_id id, wifi_interface_handle iface);
wifi_error (*wifi_set_lci) (wifi_request_id id, wifi_interface_handle iface,
wifi_lci_information *lci);
wifi_error (*wifi_set_lcr) (wifi_request_id id, wifi_interface_handle iface,
wifi_lcr_information *lcr);
wifi_error (*wifi_start_sending_offloaded_packet)(wifi_request_id id,
wifi_interface_handle iface, u16 ether_type, u8 *ip_packet,
u16 ip_packet_len, u8 *src_mac_addr, u8 *dst_mac_addr,
u32 period_msec);
wifi_error (*wifi_stop_sending_offloaded_packet)(wifi_request_id id,
wifi_interface_handle iface);
wifi_error (*wifi_start_rssi_monitoring)(wifi_request_id id, wifi_interface_handle
iface, s8 max_rssi, s8 min_rssi, wifi_rssi_event_handler eh);
wifi_error (*wifi_stop_rssi_monitoring)(wifi_request_id id, wifi_interface_handle iface);
wifi_error (*wifi_get_wake_reason_stats)(wifi_interface_handle iface,
WLAN_DRIVER_WAKE_REASON_CNT *wifi_wake_reason_cnt);
wifi_error (*wifi_configure_nd_offload)(wifi_interface_handle iface, u8 enable);
wifi_error (*wifi_get_driver_memory_dump)(wifi_interface_handle iface,
wifi_driver_memory_dump_callbacks callbacks);
wifi_error (*wifi_start_pkt_fate_monitoring)(wifi_interface_handle iface);
wifi_error (*wifi_get_tx_pkt_fates)(wifi_interface_handle handle,
wifi_tx_report *tx_report_bufs,
size_t n_requested_fates,
size_t *n_provided_fates);
wifi_error (*wifi_get_rx_pkt_fates)(wifi_interface_handle handle,
wifi_rx_report *rx_report_bufs,
size_t n_requested_fates,
size_t *n_provided_fates);
/* NAN functions */
wifi_error (*wifi_nan_enable_request)(transaction_id id,
wifi_interface_handle iface,
NanEnableRequest* msg);
wifi_error (*wifi_nan_disable_request)(transaction_id id,
wifi_interface_handle iface);
wifi_error (*wifi_nan_publish_request)(transaction_id id,
wifi_interface_handle iface,
NanPublishRequest* msg);
wifi_error (*wifi_nan_publish_cancel_request)(transaction_id id,
wifi_interface_handle iface,
NanPublishCancelRequest* msg);
wifi_error (*wifi_nan_subscribe_request)(transaction_id id,
wifi_interface_handle iface,
NanSubscribeRequest* msg);
wifi_error (*wifi_nan_subscribe_cancel_request)(transaction_id id,
wifi_interface_handle iface,
NanSubscribeCancelRequest* msg);
wifi_error (*wifi_nan_transmit_followup_request)(transaction_id id,
wifi_interface_handle iface,
NanTransmitFollowupRequest* msg);
wifi_error (*wifi_nan_stats_request)(transaction_id id,
wifi_interface_handle iface,
NanStatsRequest* msg);
wifi_error (*wifi_nan_config_request)(transaction_id id,
wifi_interface_handle iface,
NanConfigRequest* msg);
wifi_error (*wifi_nan_tca_request)(transaction_id id,
wifi_interface_handle iface,
NanTCARequest* msg);
wifi_error (*wifi_nan_beacon_sdf_payload_request)(transaction_id id,
wifi_interface_handle iface,
NanBeaconSdfPayloadRequest* msg);
wifi_error (*wifi_nan_register_handler)(wifi_interface_handle iface,
NanCallbackHandler handlers);
wifi_error (*wifi_nan_get_version)(wifi_handle handle,
NanVersion* version);
wifi_error (*wifi_nan_get_capabilities)(transaction_id id,
wifi_interface_handle iface);
wifi_error (*wifi_nan_data_interface_create)(transaction_id id,
wifi_interface_handle iface,
char *iface_name);
wifi_error (*wifi_nan_data_interface_delete)(transaction_id id,
wifi_interface_handle iface,
char *iface_name);
wifi_error (*wifi_nan_data_request_initiator)(
transaction_id id, wifi_interface_handle iface,
NanDataPathInitiatorRequest *msg);
wifi_error (*wifi_nan_data_indication_response)(
transaction_id id, wifi_interface_handle iface,
NanDataPathIndicationResponse *msg);
wifi_error (*wifi_nan_data_end)(transaction_id id,
wifi_interface_handle iface,
NanDataPathEndRequest *msg);
wifi_error (*wifi_select_tx_power_scenario)(wifi_interface_handle iface,
wifi_power_scenario scenario);
wifi_error (*wifi_reset_tx_power_scenario)(wifi_interface_handle iface);
/**
* Returns the chipset's hardware filtering capabilities:
* @param version pointer to version of the packet filter interpreter
*                supported, filled in upon return. 0 indicates no support.
* @param max_len pointer to maximum size of the filter bytecode, filled in
*                upon return.
*/
wifi_error (*wifi_get_packet_filter_capabilities)(wifi_interface_handle handle,
u32 *version, u32 *max_len);
/**
    * Programs the packet filter.
* @param program pointer to the program byte-code.
* @param len length of the program byte-code.
    */
wifi_error (*wifi_set_packet_filter)(wifi_interface_handle handle,
const u8 *program, u32 len);
wifi_error (*wifi_read_packet_filter)(wifi_interface_handle handle,
u32 src_offset, u8 *host_dst,
u32 length);
wifi_error (*wifi_get_roaming_capabilities)(wifi_interface_handle handle,
wifi_roaming_capabilities *caps);
wifi_error (*wifi_enable_firmware_roaming)(wifi_interface_handle handle,
fw_roaming_state_t state);
wifi_error (*wifi_configure_roaming)(wifi_interface_handle handle,
wifi_roaming_config *roaming_config);
wifi_error (*wifi_set_radio_mode_change_handler)(wifi_request_id id, wifi_interface_handle
iface, wifi_radio_mode_change_handler eh);
wifi_error (*wifi_set_latency_mode)(wifi_interface_handle iface,
wifi_latency_mode mode);
wifi_error (*wifi_set_thermal_mitigation_mode)(wifi_handle handle,
wifi_thermal_mode mode,
u32 completion_window);
wifi_error (*wifi_map_dscp_access_category)(wifi_handle handle,
u32 start, u32 end,
u32 access_category);
wifi_error (*wifi_reset_dscp_mapping)(wifi_handle handle);
wifi_error (*wifi_virtual_interface_create)(wifi_handle handle, const char* ifname,
wifi_interface_type iface_type);
wifi_error (*wifi_virtual_interface_delete)(wifi_handle handle, const char* ifname);
wifi_error (*wifi_set_subsystem_restart_handler)(wifi_handle handle,
wifi_subsystem_restart_handler handler);
/**
* Allow vendor HAL to choose interface name when creating
* an interface. This can be implemented by chips with their
* own interface naming policy.
* If not implemented, the default naming will be used.
*/
wifi_error (*wifi_get_supported_iface_name)(wifi_handle handle, u32 iface_type,
char *name, size_t len);
/**
* Perform early initialization steps that are needed when WIFI
* is disabled.
* If the function returns failure, it means the vendor HAL is unusable
* (for example, if chip hardware is not installed) and no further
* functions should be called.
*/
wifi_error (*wifi_early_initialize)(void);
/**
* Get supported feature set which are chip-global, that is
* not dependent on any created interface.
*/
wifi_error (*wifi_get_chip_feature_set)(wifi_handle handle, feature_set *set);
/**
* Invoked to indicate that the provided iface is the primary STA iface when there are more
* than 1 STA iface concurrently active.
*/
wifi_error (*wifi_multi_sta_set_primary_connection)(wifi_handle handle,
wifi_interface_handle iface);
/**
* When there are 2 simultaneous STA connections, this use case hint
* indicates what STA + STA use-case is being enabled by the framework.
*/
wifi_error (*wifi_multi_sta_set_use_case)(wifi_handle handle,
wifi_multi_sta_use_case use_case);
/**
* Invoked to indicate that the following list of wifi_coex_unsafe_channel should be avoided
* with the specified restrictions.
* @param unsafeChannels list of current |wifi_coex_unsafe_channel| to avoid.
* @param restrictions bitmask of |wifi_coex_restriction| indicating wifi interfaces to
* restrict from the current unsafe channels.
*/
wifi_error (*wifi_set_coex_unsafe_channels)(wifi_handle handle, u32 num_channels,
wifi_coex_unsafe_channel *unsafeChannels,
u32 restrictions);
/**
* Invoked to set voip optimization mode for the provided STA iface
*/
wifi_error (*wifi_set_voip_mode)(wifi_interface_handle iface, wifi_voip_mode mode);
/**@brief twt_register_handler
* Request to register TWT callback before sending any TWT request
* @param wifi_interface_handle:
* @param TwtCallbackHandler: callback function pointers
* @return Synchronous wifi_error
*/
wifi_error (*wifi_twt_register_handler)(wifi_interface_handle iface,
TwtCallbackHandler handler);
/**@brief twt_get_capability
* Request TWT capability
* @param wifi_interface_handle:
* @return Synchronous wifi_error and TwtCapabilitySet
*/
wifi_error (*wifi_twt_get_capability)(wifi_interface_handle iface,
TwtCapabilitySet* twt_cap_set);
/**@brief twt_setup_request
* Request to send TWT setup frame
* @param wifi_interface_handle:
* @param TwtSetupRequest: detailed parameters of setup request
* @return Synchronous wifi_error
* @return Asynchronous EventTwtSetupResponse CB return TwtSetupResponse
*/
wifi_error (*wifi_twt_setup_request)(wifi_interface_handle iface,
TwtSetupRequest* msg);
/**@brief twt_teardown_request
* Request to send TWT teardown frame
* @param wifi_interface_handle:
* @param TwtTeardownRequest: detailed parameters of teardown request
* @return Synchronous wifi_error
* @return Asynchronous EventTwtTeardownCompletion CB return TwtTeardownCompletion
* TwtTeardownCompletion may also be received due to other events
* like CSA, BTCX, TWT scheduler, MultiConnection, peer-initiated teardown, etc.
*/
wifi_error (*wifi_twt_teardown_request)(wifi_interface_handle iface,
TwtTeardownRequest* msg);
/**@brief twt_info_frame_request
* Request to send TWT info frame
* @param wifi_interface_handle:
* @param TwtInfoFrameRequest: detailed parameters in info frame
* @return Synchronous wifi_error
* @return Asynchronous EventTwtInfoFrameReceived CB return TwtInfoFrameReceived
* Driver may also receive Peer-initiated TwtInfoFrame
*/
wifi_error (*wifi_twt_info_frame_request)(wifi_interface_handle iface,
TwtInfoFrameRequest* msg);
/**@brief twt_get_stats
* Request to get TWT stats
* @param wifi_interface_handle:
* @param config_id: configuration ID of TWT request
* @return Synchronous wifi_error and TwtStats
*/
wifi_error (*wifi_twt_get_stats)(wifi_interface_handle iface, u8 config_id,
TwtStats* stats);
/**@brief twt_clear_stats
* Request to clear TWT stats
* @param wifi_interface_handle:
* @param config_id: configuration ID of TWT request
* @return Synchronous wifi_error
*/
wifi_error (*wifi_twt_clear_stats)(wifi_interface_handle iface, u8 config_id);
/**
* Invoked to set DTIM configuration when the host is in the suspend mode
* @param wifi_interface_handle:
* @param multiplier: when STA in the power saving mode, the wake up interval will be set to
* 1) multiplier * DTIM period if multiplier > 0.
* 2) the device default value if multiplier <=0
* Some implementations may apply an additional cap to wake up interval in the case of 1).
*/
wifi_error (*wifi_set_dtim_config)(wifi_interface_handle handle, u32 multiplier);
/**@brief wifi_get_usable_channels
* Request list of usable channels for the requested bands and modes. Usable
* implies channel is allowed as per regulatory for the current country code
* and not restricted due to other hard limitations (e.g. DFS, Coex) In
* certain modes (e.g. STA+SAP) there could be other hard restrictions
* since MCC operation many not be supported by SAP. This API also allows
* driver to return list of usable channels for each mode uniquely to
* distinguish cases where only a limited set of modes are allowed on
* a given channel e.g. srd channels may be supported for P2P but not
* for SAP or P2P-Client may be allowed on an indoor channel but P2P-GO
* may not be allowed. This API is not interface specific and will be
* used to query capabilities of driver in terms of what modes (STA, SAP,
* P2P_CLI, P2P_GO, NAN, TDLS) can be supported on each of the channels.
* @param handle global wifi_handle
* @param band_mask BIT MASK of WLAN_MAC* as represented by |wlan_mac_band|
* @param iface_mode_mask BIT MASK of BIT(WIFI_INTERFACE_*) represented by
* |wifi_interface_mode|. Bitmask respresents all the modes that the
* caller is interested in (e.g. STA, SAP, WFD-CLI, WFD-GO, TDLS, NAN).
* Note: Bitmask does not represent concurrency matrix. If the caller
* is interested in CLI, GO modes, the iface_mode_mask would be set
* to WIFI_INTERFACE_P2P_CLIENT|WIFI_INTERFACE_P2P_GO.
* @param filter_mask BIT MASK of WIFI_USABLE_CHANNEL_FILTER_* represented by
* |wifi_usable_channel_filter|. Indicates if the channel list should
* be filtered based on additional criteria. If filter_mask is not
* specified, driver should return list of usable channels purely
* based on regulatory constraints.
* @param max_size maximum number of |wifi_usable_channel|
* @param size actual number of |wifi_usable_channel| entries returned by driver
* @param channels list of usable channels represented by |wifi_usable_channel|
*/
wifi_error (*wifi_get_usable_channels)(wifi_handle handle, u32 band_mask, u32 iface_mode_mask,
u32 filter_mask, u32 max_size, u32* size,
wifi_usable_channel* channels);
/**
* Trigger wifi subsystem restart to reload firmware
*/
wifi_error (*wifi_trigger_subsystem_restart)(wifi_handle handle);
/**
* Invoked to set that the device is operating in an indoor environment.
* @param handle global wifi_handle
* @param isIndoor: true if the device is operating in an indoor
* environment, false otherwise.
* @return Synchronous wifi_error
*/
wifi_error (*wifi_set_indoor_state)(wifi_handle handle, bool isIndoor);
/**@brief wifi_get_supported_radio_combinations_matrix
* Request all the possible radio combinations this device can offer.
* @param handle global wifi_handle
* @param max_size maximum size allocated for filling the wifi_radio_combination_matrix
* @param wifi_radio_combination_matrix to return all the possible radio
* combinations.
* @param size actual size of wifi_radio_combination_matrix returned from
* lower layer
*
*/
wifi_error (*wifi_get_supported_radio_combinations_matrix)(
wifi_handle handle, u32 max_size, u32 *size,
wifi_radio_combination_matrix *radio_combination_matrix);
/**@brief wifi_nan_rtt_chre_enable_request
* Request to enable CHRE NAN RTT
* @param transaction_id: NAN transaction id
* @param wifi_interface_handle
* @param NanEnableRequest request message
* @return Synchronous wifi_error
*/
wifi_error (*wifi_nan_rtt_chre_enable_request)(transaction_id id,
wifi_interface_handle iface,
NanEnableRequest* msg);
/**@brief wifi_nan_rtt_chre_disable_request
* Request to disable CHRE NAN RTT
* @param transaction_id: NAN transaction id
* @param wifi_interface_handle
* @return Synchronous wifi_error
*/
wifi_error (*wifi_nan_rtt_chre_disable_request)(transaction_id id, wifi_interface_handle iface);
/**@brief wifi_chre_register_handler
* register a handler to get the state of CHR
* @param wifi_interface_handle
* @param wifi_chre_handler: callback function pointer
* @return Synchronous wifi_error
*/
wifi_error (*wifi_chre_register_handler)(wifi_interface_handle iface,
wifi_chre_handler handler);
/**@brief wifi_enable_tx_power_limits
* Enable WiFi Tx power limis
* @param wifi_interface_handle
* @param isEnable : If enable TX limit or not
* @return Synchronous wifi_error
*/
wifi_error (*wifi_enable_tx_power_limits) (wifi_interface_handle iface,
bool isEnable);
/*
* when adding new functions make sure to add stubs in
* hal_tool.cpp::init_wifi_stub_hal_func_table
*/
} wifi_hal_fn;
wifi_error init_wifi_vendor_hal_func_table(wifi_hal_fn *fn);
typedef wifi_error (*init_wifi_vendor_hal_func_table_t)(wifi_hal_fn *fn);
#ifdef __cplusplus
}
#endif
#endif