nrf_wifi/src/wpa_supp_if.c

/*
 * Copyright (c) 2024 Nordic Semiconductor ASA
 *
 * SPDX-License-Identifier: Apache-2.0
 */

/**
 * @brief File containing WPA supplicant interface specific definitions for the
 * Zephyr OS layer of the Wi-Fi driver.
 */
#include <stdlib.h>

#include <zephyr/device.h>
#include <zephyr/logging/log.h>

#include "fmac_main.h"
#include "fmac_util.h"
#include "wifi_mgmt.h"
#include "wpa_supp_if.h"

LOG_MODULE_DECLARE(wifi_nrf, CONFIG_WIFI_NRF70_LOG_LEVEL);

K_SEM_DEFINE(wait_for_event_sem, 0, 1);
K_SEM_DEFINE(wait_for_scan_resp_sem, 0, 1);
static K_MUTEX_DEFINE(mgmt_tx_lock);

#define ACTION_FRAME_RESP_TIMEOUT_MS 5000
#define SET_IFACE_EVENT_TIMEOUT_MS 5000
#define CARR_ON_TIMEOUT_MS 5000

static int get_nrf_wifi_auth_type(int wpa_auth_alg)
{
	if (wpa_auth_alg & WPA_AUTH_ALG_OPEN) {
		return NRF_WIFI_AUTHTYPE_OPEN_SYSTEM;
	}
	if (wpa_auth_alg & WPA_AUTH_ALG_SHARED) {
		return NRF_WIFI_AUTHTYPE_SHARED_KEY;
	}
	if (wpa_auth_alg & WPA_AUTH_ALG_LEAP) {
		return NRF_WIFI_AUTHTYPE_NETWORK_EAP;
	}
	if (wpa_auth_alg & WPA_AUTH_ALG_FT) {
		return NRF_WIFI_AUTHTYPE_FT;
	}
	if (wpa_auth_alg & WPA_AUTH_ALG_SAE) {
		return NRF_WIFI_AUTHTYPE_SAE;
	}

	return NRF_WIFI_AUTHTYPE_MAX;
}

static unsigned int wpa_alg_to_cipher_suite(enum wpa_alg alg, size_t key_len)
{
	switch (alg) {
	case WPA_ALG_WEP:
		if (key_len == 5) {
			return RSN_CIPHER_SUITE_WEP40;
		}
		return RSN_CIPHER_SUITE_WEP104;
	case WPA_ALG_TKIP:
		return RSN_CIPHER_SUITE_TKIP;
	case WPA_ALG_CCMP:
		return RSN_CIPHER_SUITE_CCMP;
	case WPA_ALG_GCMP:
		return RSN_CIPHER_SUITE_GCMP;
	case WPA_ALG_CCMP_256:
		return RSN_CIPHER_SUITE_CCMP_256;
	case WPA_ALG_GCMP_256:
		return RSN_CIPHER_SUITE_GCMP_256;
	case WPA_ALG_BIP_CMAC_128:
		return RSN_CIPHER_SUITE_AES_128_CMAC;
	case WPA_ALG_BIP_GMAC_128:
		return RSN_CIPHER_SUITE_BIP_GMAC_128;
	case WPA_ALG_BIP_GMAC_256:
		return RSN_CIPHER_SUITE_BIP_GMAC_256;
	case WPA_ALG_BIP_CMAC_256:
		return RSN_CIPHER_SUITE_BIP_CMAC_256;
	case WPA_ALG_SMS4:
		return RSN_CIPHER_SUITE_SMS4;
	case WPA_ALG_KRK:
		return RSN_CIPHER_SUITE_KRK;
	case WPA_ALG_NONE:
		LOG_ERR("%s: Unexpected encryption algorithm %d", __func__, alg);
		return 0;
	}

	LOG_ERR("%s: Unsupported encryption algorithm %d", __func__, alg);
	return 0;
}

static enum chan_width drv2supp_chan_width(int width)
{
	switch (width) {
	case NRF_WIFI_CHAN_WIDTH_20_NOHT:
		return CHAN_WIDTH_20_NOHT;
	case NRF_WIFI_CHAN_WIDTH_20:
		return CHAN_WIDTH_20;
	case NRF_WIFI_CHAN_WIDTH_40:
		return CHAN_WIDTH_40;
	case NRF_WIFI_CHAN_WIDTH_80:
		return CHAN_WIDTH_80;
	case NRF_WIFI_CHAN_WIDTH_80P80:
		return CHAN_WIDTH_80P80;
	case NRF_WIFI_CHAN_WIDTH_160:
		return CHAN_WIDTH_160;
	default:
		break;
	}
	return CHAN_WIDTH_UNKNOWN;
}

void nrf_wifi_wpa_supp_event_proc_scan_start(void *if_priv)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;

	vif_ctx_zep = if_priv;

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.scan_start) {
		vif_ctx_zep->supp_callbk_fns.scan_start(vif_ctx_zep->supp_drv_if_ctx);
	}
}

void nrf_wifi_wpa_supp_event_proc_scan_done(void *if_priv,
					struct nrf_wifi_umac_event_trigger_scan *scan_done_event,
					unsigned int event_len,
					int aborted)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	union wpa_event_data event;
	struct scan_info *info = NULL;

	vif_ctx_zep = if_priv;

	memset(&event, 0, sizeof(event));

	info = &event.scan_info;

	info->aborted = aborted;
	info->external_scan = 0;
	info->nl_scan_event = 1;

	if (vif_ctx_zep->supp_drv_if_ctx &&
		vif_ctx_zep->supp_callbk_fns.scan_done) {
		vif_ctx_zep->supp_callbk_fns.scan_done(vif_ctx_zep->supp_drv_if_ctx,
			&event);
	}
	k_work_cancel_delayable(&vif_ctx_zep->scan_timeout_work);
	vif_ctx_zep->scan_in_progress = false;
	k_sem_give(&wait_for_scan_resp_sem);
}

void nrf_wifi_wpa_supp_event_proc_scan_res(void *if_priv,
					struct nrf_wifi_umac_event_new_scan_results *scan_res,
					unsigned int event_len,
					bool more_res)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct wpa_scan_res *r = NULL;
	const unsigned char *ie = NULL;
	const unsigned char *beacon_ie = NULL;
	unsigned int ie_len = 0;
	unsigned int beacon_ie_len = 0;
	unsigned char *pos = NULL;

	vif_ctx_zep = if_priv;

	if (scan_res->valid_fields & NRF_WIFI_EVENT_NEW_SCAN_RESULTS_IES_VALID) {
		ie = scan_res->ies;
		ie_len = scan_res->ies_len;
	}

	if (scan_res->valid_fields & NRF_WIFI_EVENT_NEW_SCAN_RESULTS_BEACON_IES_VALID) {
		beacon_ie = scan_res->ies + scan_res->ies_len;
		beacon_ie_len = scan_res->beacon_ies_len;
	}

	r = k_calloc(sizeof(*r) + ie_len + beacon_ie_len, sizeof(char));

	if (!r) {
		LOG_ERR("%s: Unable to allocate memory for scan result", __func__);
		return;
	}

	if (scan_res->valid_fields & NRF_WIFI_EVENT_NEW_SCAN_RESULTS_MAC_ADDR_VALID) {
		memcpy(r->bssid, scan_res->mac_addr, ETH_ALEN);
	}

	r->freq = scan_res->frequency;

	if (scan_res->valid_fields & NRF_WIFI_EVENT_NEW_SCAN_RESULTS_BEACON_INTERVAL_VALID) {
		r->beacon_int = scan_res->beacon_interval;
	}

	r->caps = scan_res->capability;

	r->flags |= WPA_SCAN_NOISE_INVALID;

	if (scan_res->signal.signal_type == NRF_WIFI_SIGNAL_TYPE_MBM) {
		r->level = scan_res->signal.signal.mbm_signal;
		r->level /= 100; /* mBm to dBm */
		r->flags |= (WPA_SCAN_LEVEL_DBM | WPA_SCAN_QUAL_INVALID);
	} else if (scan_res->signal.signal_type == NRF_WIFI_SIGNAL_TYPE_UNSPEC) {
		r->level = scan_res->signal.signal.unspec_signal;
		r->flags |= WPA_SCAN_QUAL_INVALID;
	} else {
		r->flags |= (WPA_SCAN_LEVEL_INVALID | WPA_SCAN_QUAL_INVALID);
	}

	if (scan_res->valid_fields & NRF_WIFI_EVENT_NEW_SCAN_RESULTS_IES_TSF_VALID) {
		r->tsf = scan_res->ies_tsf;
	}

	if (scan_res->valid_fields & NRF_WIFI_EVENT_NEW_SCAN_RESULTS_BEACON_IES_TSF_VALID) {
		if (scan_res->beacon_ies_tsf > r->tsf) {
			r->tsf = scan_res->beacon_ies_tsf;
		}
	}

	if (scan_res->seen_ms_ago) {
		r->age = scan_res->seen_ms_ago;
	}

	r->ie_len = ie_len;

	pos = (unsigned char *)(r + 1);

	if (ie) {
		memcpy(pos, ie, ie_len);

		pos += ie_len;
	}

	r->beacon_ie_len = beacon_ie_len;

	if (beacon_ie) {
		memcpy(pos, beacon_ie, beacon_ie_len);
	}

	if (scan_res->valid_fields & NRF_WIFI_EVENT_NEW_SCAN_RESULTS_STATUS_VALID) {
		switch (scan_res->status) {
		case NRF_WIFI_BSS_STATUS_ASSOCIATED:
			r->flags |= WPA_SCAN_ASSOCIATED;
			break;
		default:
			break;
		}
	}

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.scan_res) {
		vif_ctx_zep->supp_callbk_fns.scan_res(vif_ctx_zep->supp_drv_if_ctx, r, more_res);
	}

	if (!more_res) {
		vif_ctx_zep->scan_in_progress = false;
	}

	k_free(r);
}

void nrf_wifi_wpa_supp_event_proc_auth_resp(void *if_priv,
					    struct nrf_wifi_umac_event_mlme *auth_resp,
					    unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	union wpa_event_data event;
	const struct ieee80211_mgmt *mgmt = NULL;
	const unsigned char *frame = NULL;
	unsigned int frame_len = 0;

	vif_ctx_zep = if_priv;

	frame = auth_resp->frame.frame;
	frame_len = auth_resp->frame.frame_len;
	mgmt = (const struct ieee80211_mgmt *)frame;

	if (frame_len < 4 + (2 * NRF_WIFI_ETH_ADDR_LEN)) {
		LOG_ERR("%s: MLME event too short", __func__);
		return;
	}


	if (frame_len < 24 + sizeof(mgmt->u.auth)) {
		LOG_ERR("%s: Authentication response frame too short", __func__);
		return;
	}

	memset(&event, 0, sizeof(event));

	memcpy(event.auth.peer, mgmt->sa, ETH_ALEN);

	event.auth.auth_type = le_to_host16(mgmt->u.auth.auth_alg);

	event.auth.auth_transaction = le_to_host16(mgmt->u.auth.auth_transaction);

	event.auth.status_code = le_to_host16(mgmt->u.auth.status_code);

	if (frame_len > 24 + sizeof(mgmt->u.auth)) {
		event.auth.ies = mgmt->u.auth.variable;
		event.auth.ies_len = (frame_len - 24 - sizeof(mgmt->u.auth));
	}

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.auth_resp) {
		vif_ctx_zep->supp_callbk_fns.auth_resp(vif_ctx_zep->supp_drv_if_ctx, &event);
	}
}

void nrf_wifi_wpa_supp_event_proc_assoc_resp(void *if_priv,
					     struct nrf_wifi_umac_event_mlme *assoc_resp,
					     unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	union wpa_event_data event;
	const struct ieee80211_mgmt *mgmt = NULL;
	const unsigned char *frame = NULL;
	unsigned int frame_len = 0;
	unsigned short status = WLAN_STATUS_UNSPECIFIED_FAILURE;

	vif_ctx_zep = if_priv;

	frame = assoc_resp->frame.frame;
	frame_len = assoc_resp->frame.frame_len;
	mgmt = (const struct ieee80211_mgmt *)frame;

	if (frame_len < 24 + sizeof(mgmt->u.assoc_resp)) {
		LOG_ERR("%s: Association response frame too short", __func__);
		return;
	}

	memset(&event, 0, sizeof(event));

	status = le_to_host16(mgmt->u.assoc_resp.status_code);

	if (status != WLAN_STATUS_SUCCESS) {
		event.assoc_reject.bssid = mgmt->bssid;

		if (frame_len > 24 + sizeof(mgmt->u.assoc_resp)) {
			event.assoc_reject.resp_ies = (unsigned char *)mgmt->u.assoc_resp.variable;
			event.assoc_reject.resp_ies_len =
				(frame_len - 24 - sizeof(mgmt->u.assoc_resp));
		}

		event.assoc_reject.status_code = status;
	} else {
		event.assoc_info.addr = mgmt->bssid;
		event.assoc_info.resp_frame = frame;
		event.assoc_info.resp_frame_len = frame_len;
		event.assoc_info.freq = vif_ctx_zep->assoc_freq;

		if (frame_len > 24 + sizeof(mgmt->u.assoc_resp)) {
			event.assoc_info.resp_ies = (unsigned char *)mgmt->u.assoc_resp.variable;
			event.assoc_info.resp_ies_len =
				(frame_len - 24 - sizeof(mgmt->u.assoc_resp));
		}

		if (assoc_resp->req_ie_len > 0) {
			event.assoc_info.req_ies = (unsigned char *)assoc_resp->req_ie;
			event.assoc_info.req_ies_len = assoc_resp->req_ie_len;
		}

	}

	if (vif_ctx_zep->supp_drv_if_ctx &&
		vif_ctx_zep->supp_callbk_fns.assoc_resp) {
		vif_ctx_zep->supp_callbk_fns.assoc_resp(vif_ctx_zep->supp_drv_if_ctx,
			&event, status);
	}
}

void nrf_wifi_wpa_supp_event_proc_deauth(void *if_priv,
					 struct nrf_wifi_umac_event_mlme *deauth,
					 unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	union wpa_event_data event;
	const struct ieee80211_mgmt *mgmt = NULL;
	const unsigned char *frame = NULL;
	unsigned int frame_len = 0;

	vif_ctx_zep = if_priv;

	frame = deauth->frame.frame;
	frame_len = deauth->frame.frame_len;
	mgmt = (const struct ieee80211_mgmt *)frame;

	if (frame_len < 24 + sizeof(mgmt->u.deauth)) {
		LOG_ERR("%s: Deauthentication frame too short", __func__);
		return;
	}

	memset(&event, 0, sizeof(event));

	event.deauth_info.addr = &mgmt->sa[0];
	event.deauth_info.reason_code = le_to_host16(mgmt->u.deauth.reason_code);
	if (frame + frame_len > mgmt->u.deauth.variable) {
		event.deauth_info.ie = mgmt->u.deauth.variable;
		event.deauth_info.ie_len = (frame + frame_len - mgmt->u.deauth.variable);
	}

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.deauth) {
		vif_ctx_zep->supp_callbk_fns.deauth(vif_ctx_zep->supp_drv_if_ctx,
			&event, mgmt);
	}
}

void nrf_wifi_wpa_supp_event_proc_disassoc(void *if_priv,
					   struct nrf_wifi_umac_event_mlme *disassoc,
					   unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	union wpa_event_data event;
	const struct ieee80211_mgmt *mgmt = NULL;
	const unsigned char *frame = NULL;
	unsigned int frame_len = 0;

	vif_ctx_zep = if_priv;

	frame = disassoc->frame.frame;
	frame_len = disassoc->frame.frame_len;
	mgmt = (const struct ieee80211_mgmt *)frame;

	if (frame_len < 24 + sizeof(mgmt->u.disassoc)) {
		LOG_ERR("%s: Disassociation frame too short", __func__);
		return;
	}

	memset(&event, 0, sizeof(event));

	event.disassoc_info.addr = &mgmt->sa[0];
	event.disassoc_info.reason_code = le_to_host16(mgmt->u.disassoc.reason_code);
	if (frame + frame_len > mgmt->u.disassoc.variable) {
		event.disassoc_info.ie = mgmt->u.disassoc.variable;
		event.disassoc_info.ie_len = (frame + frame_len - mgmt->u.disassoc.variable);
	}

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.disassoc)	{
		vif_ctx_zep->supp_callbk_fns.disassoc(vif_ctx_zep->supp_drv_if_ctx, &event);
	}

	(void) nrf_wifi_twt_teardown_flows(vif_ctx_zep, 0, NRF_WIFI_MAX_TWT_FLOWS);
}

void *nrf_wifi_wpa_supp_dev_init(void *supp_drv_if_ctx, const char *iface_name,
				 struct zep_wpa_supp_dev_callbk_fns *supp_callbk_fns)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	const struct device *device = DEVICE_DT_GET(DT_CHOSEN(zephyr_wifi));

	if (!device) {
		LOG_ERR("%s: Interface %s not found", __func__, iface_name);
		return NULL;
	}

	vif_ctx_zep = device->data;

	if (!vif_ctx_zep || !vif_ctx_zep->rpu_ctx_zep) {
		LOG_ERR("%s: Interface %s not properly initialized", __func__, iface_name);
		return NULL;
	}

	/* Needed to make sure that during initialization, commands like setting regdomain
	 * does not access it.
	 */
	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	vif_ctx_zep->supp_drv_if_ctx = supp_drv_if_ctx;

	memcpy(&vif_ctx_zep->supp_callbk_fns, supp_callbk_fns,
	       sizeof(vif_ctx_zep->supp_callbk_fns));

	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return vif_ctx_zep;
}

void nrf_wifi_wpa_supp_dev_deinit(void *if_priv)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;

	vif_ctx_zep = if_priv;

	vif_ctx_zep->supp_drv_if_ctx = NULL;
}

int nrf_wifi_wpa_supp_scan2(void *if_priv, struct wpa_driver_scan_params *params)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_scan_info *scan_info = NULL;
	int indx = 0;
	int ret = -1;
	int num_freqs = 0;

	if (!if_priv || !params) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_ERR("%s: RPU context not initialized", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	if (vif_ctx_zep->scan_in_progress) {
		LOG_ERR("%s: Scan already in progress", __func__);
		ret = -EBUSY;
		goto out;
	}

	if (params->freqs) {
		for (indx = 0; params->freqs[indx]; indx++) {
			num_freqs++;
		}
	}

	scan_info = k_calloc(sizeof(*scan_info) + (num_freqs * sizeof(unsigned int)),
			     sizeof(char));

	if (!scan_info) {
		LOG_ERR("%s: Unable to allocate memory for scan info", __func__);
		ret = -ENOMEM;
		goto out;
	}

	memset(scan_info, 0x0, sizeof(*scan_info));

	if (params->freqs) {
		for (indx = 0; params->freqs[indx]; indx++) {
			scan_info->scan_params.center_frequency[indx] =
				params->freqs[indx];
		}
		scan_info->scan_params.num_scan_channels = indx;
	}

	if (params->filter_ssids) {
		scan_info->scan_params.num_scan_ssids = params->num_filter_ssids;

		for (indx = 0; indx < params->num_filter_ssids; indx++) {
			memcpy(scan_info->scan_params.scan_ssids[indx].nrf_wifi_ssid,
			       params->filter_ssids[indx].ssid,
			       params->filter_ssids[indx].ssid_len);

			scan_info->scan_params.scan_ssids[indx].nrf_wifi_ssid_len =
				params->filter_ssids[indx].ssid_len;
		}
	}

	scan_info->scan_reason = SCAN_CONNECT;

	/* Copy extra_ies */
	if (params->extra_ies_len && params->extra_ies_len <= NRF_WIFI_MAX_IE_LEN) {
		memcpy(scan_info->scan_params.ie.ie, params->extra_ies, params->extra_ies_len);
		scan_info->scan_params.ie.ie_len = params->extra_ies_len;
	} else if (params->extra_ies_len) {
		LOG_ERR("%s: extra_ies_len %d is greater than max IE len %d",
			__func__, params->extra_ies_len, NRF_WIFI_MAX_IE_LEN);
		goto out;
	}

	status = nrf_wifi_fmac_scan(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, scan_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: Scan trigger failed", __func__);
		goto out;
	}

	vif_ctx_zep->scan_type = SCAN_CONNECT;
	vif_ctx_zep->scan_in_progress = true;

	k_work_schedule(&vif_ctx_zep->scan_timeout_work,
		K_SECONDS(CONFIG_WIFI_NRF70_SCAN_TIMEOUT_S));

	ret = 0;
out:
	if (scan_info) {
		k_free(scan_info);
	}
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_scan_abort(void *if_priv)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int sem_ret;

	vif_ctx_zep = if_priv;
	if (!vif_ctx_zep) {
		LOG_ERR("%s: vif_ctx_zep is NULL", __func__);
		return -1;
	}
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return -1;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	if (!vif_ctx_zep->scan_in_progress) {
		LOG_ERR("%s:Ignore scan abort, no scan in progress", __func__);
		goto out;
	}

	status = nrf_wifi_fmac_abort_scan(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_abort_scan failed", __func__);
		goto out;
	}

	k_sem_reset(&wait_for_scan_resp_sem);
	sem_ret = k_sem_take(&wait_for_scan_resp_sem, K_MSEC(RPU_RESP_EVENT_TIMEOUT));
	if (sem_ret) {
		LOG_ERR("%s: Timedout waiting for scan abort response, ret = %d",
			    __func__, sem_ret);
		status = NRF_WIFI_STATUS_FAIL;
		goto out;
	}

out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return status;
}

int nrf_wifi_wpa_supp_scan_results_get(void *if_priv)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	int ret = -1;

	if (!if_priv) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	status = nrf_wifi_fmac_scan_res_get(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx,
					    SCAN_CONNECT);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_scan_res_get failed", __func__);
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_deauthenticate(void *if_priv, const char *addr, unsigned short reason_code)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_disconn_info deauth_info;
	int ret = -1;

	if ((!if_priv) || (!addr)) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	memset(&deauth_info, 0, sizeof(deauth_info));

	deauth_info.reason_code = reason_code;

	memcpy(deauth_info.mac_addr, addr, sizeof(deauth_info.mac_addr));

	status = nrf_wifi_fmac_deauth(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &deauth_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_deauth failed", __func__);
		goto out;
	}

	ret = nrf_wifi_twt_teardown_flows(vif_ctx_zep, 0, NRF_WIFI_MAX_TWT_FLOWS);
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_add_key(struct nrf_wifi_umac_key_info *key_info, enum wpa_alg alg,
			      int key_idx,
			      int defkey, const unsigned char *seq, size_t seq_len,
			      const unsigned char *key, size_t key_len)
{
	unsigned int suite = 0;

	suite = wpa_alg_to_cipher_suite(alg, key_len);

	if (!suite) {
		return -1;
	}

	if (defkey && alg == WPA_ALG_BIP_CMAC_128) {
		key_info->nrf_wifi_flags = NRF_WIFI_KEY_DEFAULT_MGMT;
	} else if (defkey) {
		key_info->nrf_wifi_flags = NRF_WIFI_KEY_DEFAULT;
	}

	key_info->key_idx = key_idx;
	key_info->cipher_suite = suite;

	if (key && key_len) {
		memcpy(key_info->key.nrf_wifi_key, key, key_len);
		key_info->key.nrf_wifi_key_len = key_len;
	}
	if (seq && seq_len) {
		memcpy(key_info->seq.nrf_wifi_seq, seq, seq_len);
		key_info->seq.nrf_wifi_seq_len = seq_len;
	}

	return 0;
}

int nrf_wifi_wpa_supp_authenticate(void *if_priv, struct wpa_driver_auth_params *params,
				struct wpa_bss *curr_bss)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_auth_info auth_info;
	int ret = -1;
	int type;
	int count = 0;
	int max_ie_len = 0;

	if ((!if_priv) || (!params)) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

#ifdef CONFIG_NRF70_RAW_DATA_RX
	if (vif_ctx_zep->if_type == NRF_WIFI_IFTYPE_MONITOR) {
		LOG_ERR("%s: Interface is in Monitor mode -  cannot connect to a BSS", __func__);
		goto out;
	}
#endif /* CONFIG_NRF70_RAW_DATA_RX */

	memset(&auth_info, 0, sizeof(auth_info));


	if (params->bssid) {
		memcpy(auth_info.nrf_wifi_bssid, params->bssid, ETH_ALEN);
	}

	if (params->freq) {
		auth_info.frequency = params->freq;
	}

	if (params->ssid) {
		memcpy(auth_info.ssid.nrf_wifi_ssid, params->ssid, params->ssid_len);

		auth_info.ssid.nrf_wifi_ssid_len = params->ssid_len;
	}

	if (params->ie) {
		max_ie_len = (params->ie_len > NRF_WIFI_MAX_IE_LEN) ?
			     NRF_WIFI_MAX_IE_LEN : params->ie_len;
		memcpy(&auth_info.ie.ie, params->ie, max_ie_len);
		auth_info.ie.ie_len = max_ie_len;
	} else {
		auth_info.scan_width = 0; /* hard coded */
		auth_info.nrf_wifi_signal = curr_bss->level;
		auth_info.capability = curr_bss->caps;
		auth_info.beacon_interval = curr_bss->beacon_int;
		auth_info.tsf = curr_bss->tsf;
		auth_info.from_beacon = 0; /* hard coded */
	}

	if (params->auth_data) {
		auth_info.sae.sae_data_len = params->auth_data_len;

		memcpy(auth_info.sae.sae_data, params->auth_data, params->auth_data_len);
	}

	type = get_nrf_wifi_auth_type(params->auth_alg);

	if (type != NRF_WIFI_AUTHTYPE_MAX) {
		auth_info.auth_type = type;
	}

	if (type == NRF_WIFI_AUTHTYPE_SHARED_KEY) {
		size_t key_len = params->wep_key_len[params->wep_tx_keyidx];
		struct nrf_wifi_umac_key_info *key_info = &auth_info.key_info;

		key_info->cipher_suite = wpa_alg_to_cipher_suite(params->auth_alg, key_len);
		memcpy(key_info->key.nrf_wifi_key,
			   params->wep_key[params->wep_tx_keyidx],
			   key_len);
		key_info->key.nrf_wifi_key_len = key_len;
		key_info->valid_fields |= NRF_WIFI_KEY_VALID | NRF_WIFI_KEY_IDX_VALID |
			NRF_WIFI_CIPHER_SUITE_VALID;
	}

	if (params->local_state_change) {
		auth_info.nrf_wifi_flags |= NRF_WIFI_CMD_AUTHENTICATE_LOCAL_STATE_CHANGE;
	}

	status = nrf_wifi_fmac_auth(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &auth_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: MLME command failed (auth): count=%d ret=%d", __func__, count, ret);
		count++;
		ret = -1;
	} else {
		LOG_DBG("%s:Authentication request sent successfully", __func__);
		ret = 0;
	}
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_associate(void *if_priv, struct wpa_driver_associate_params *params)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_assoc_info assoc_info;
	int ret = -1;

	if ((!if_priv) || (!params)) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	memset(&assoc_info, 0, sizeof(assoc_info));

	if (params->bssid) {
		memcpy(assoc_info.nrf_wifi_bssid, params->bssid, sizeof(assoc_info.nrf_wifi_bssid));
	}

	if (params->freq.freq) {
		assoc_info.center_frequency = params->freq.freq;
		vif_ctx_zep->assoc_freq = params->freq.freq;
	} else {
		vif_ctx_zep->assoc_freq = 0;
	}

	if (params->prev_bssid) {
		assoc_info.prev_bssid_flag = 1;
		memcpy(assoc_info.prev_bssid, params->prev_bssid, ETH_ALEN);
	}

	if (params->ssid) {
		assoc_info.ssid.nrf_wifi_ssid_len = params->ssid_len;

		memcpy(assoc_info.ssid.nrf_wifi_ssid, params->ssid, params->ssid_len);

	}

	if (params->wpa_ie) {
		assoc_info.wpa_ie.ie_len = params->wpa_ie_len;
		memcpy(assoc_info.wpa_ie.ie, params->wpa_ie, params->wpa_ie_len);
	}

	assoc_info.control_port = 1;

	if (params->mgmt_frame_protection == MGMT_FRAME_PROTECTION_REQUIRED) {
		assoc_info.use_mfp = NRF_WIFI_MFP_REQUIRED;
	}

	if (params->bss_max_idle_period) {
		assoc_info.bss_max_idle_time = params->bss_max_idle_period;
	}

	status = nrf_wifi_fmac_assoc(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &assoc_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: MLME command failed (assoc)", __func__);
	} else {
		LOG_DBG("%s: Association request sent successfully", __func__);
		ret = 0;
	}

out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_set_key(void *if_priv, const unsigned char *ifname, enum wpa_alg alg,
			      const unsigned char *addr, int key_idx, int set_tx,
			      const unsigned char *seq, size_t seq_len, const unsigned char *key,
			      size_t key_len, enum key_flag key_flag)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_key_info key_info;
	const unsigned char *mac_addr = NULL;
	unsigned int suite;
	int ret = -1;


	if ((!if_priv) || (!ifname)) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	/* Can happen in a positive case where "net if down" is completed, but WPA
	 * supplicant is still deleting keys.
	 */
	if (!rpu_ctx_zep->rpu_ctx) {
		goto out;
	}

	memset(&key_info, 0, sizeof(key_info));

	if (alg != WPA_ALG_NONE) {
		suite = wpa_alg_to_cipher_suite(alg, key_len);

		if (!suite) {
			goto out;
		}

		memcpy(key_info.key.nrf_wifi_key, key, key_len);

		key_info.key.nrf_wifi_key_len = key_len;
		key_info.cipher_suite = suite;

		key_info.valid_fields |= (NRF_WIFI_CIPHER_SUITE_VALID | NRF_WIFI_KEY_VALID);
	}

	if (seq && seq_len) {
		memcpy(key_info.seq.nrf_wifi_seq, seq, seq_len);

		key_info.seq.nrf_wifi_seq_len = seq_len;
		key_info.valid_fields |= NRF_WIFI_SEQ_VALID;
	}


	/* TODO: Implement/check set_tx */
	if (addr && !is_broadcast_ether_addr(addr)) {
		mac_addr = addr;
		key_info.key_type = NRF_WIFI_KEYTYPE_PAIRWISE;
		key_info.valid_fields |= NRF_WIFI_KEY_TYPE_VALID;
	} else if (addr && is_broadcast_ether_addr(addr)) {
		mac_addr = NULL;
		key_info.key_type = NRF_WIFI_KEYTYPE_GROUP;
		key_info.valid_fields |= NRF_WIFI_KEY_TYPE_VALID;
		key_info.nrf_wifi_flags |= NRF_WIFI_KEY_DEFAULT_TYPE_MULTICAST;
	}

	key_info.key_idx = key_idx;
	key_info.valid_fields |= NRF_WIFI_KEY_IDX_VALID;

	if (alg == WPA_ALG_NONE) {
		status = nrf_wifi_fmac_del_key(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx,
					       &key_info, mac_addr);

		if (status != NRF_WIFI_STATUS_SUCCESS) {
			LOG_ERR("%s: nrf_wifi_fmac_del_key failed", __func__);
		} else {
			ret = 0;
		}
	} else {
		status = nrf_wifi_fmac_add_key(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx,
					       &key_info, mac_addr);

		if (status != NRF_WIFI_STATUS_SUCCESS) {
			LOG_ERR("%s: nrf_wifi_fmac_add_key failed", __func__);
		} else {
			ret = 0;
		}
	}

	/*
	 * If we failed or don't need to set the default TX key (below),
	 * we're done here.
	 */
	if (ret || !set_tx || alg == WPA_ALG_NONE) {
		goto out;
	}


	memset(&key_info, 0, sizeof(key_info));

	key_info.key_idx = key_idx;
	key_info.valid_fields |= NRF_WIFI_KEY_IDX_VALID;

	if (alg == WPA_ALG_BIP_CMAC_128 || alg == WPA_ALG_BIP_GMAC_128 ||
	    alg == WPA_ALG_BIP_GMAC_256 || alg == WPA_ALG_BIP_CMAC_256) {
		key_info.nrf_wifi_flags = NRF_WIFI_KEY_DEFAULT_MGMT;
	} else {
		key_info.nrf_wifi_flags = NRF_WIFI_KEY_DEFAULT;
	}

	if (addr && is_broadcast_ether_addr(addr)) {
		key_info.nrf_wifi_flags |= NRF_WIFI_KEY_DEFAULT_TYPE_MULTICAST;
	} else if (addr) {
		key_info.nrf_wifi_flags |= NRF_WIFI_KEY_DEFAULT_TYPE_UNICAST;
	}

	status = nrf_wifi_fmac_set_key(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &key_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_set_key failed", __func__);
		ret = -1;
	} else {
		ret = 0;
	}
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_set_supp_port(void *if_priv, int authorized, char *bssid)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_umac_chg_sta_info chg_sta_info;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ret = -1;

	if (!if_priv || !bssid) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	if (vif_ctx_zep->if_op_state != NRF_WIFI_FMAC_IF_OP_STATE_UP) {
		LOG_DBG("%s: Interface not UP, ignoring", __func__);
		ret = 0;
		goto out;
	}

	memset(&chg_sta_info, 0x0, sizeof(chg_sta_info));

	memcpy(chg_sta_info.mac_addr, bssid, ETH_ALEN);

	vif_ctx_zep->authorized = authorized;

	if (authorized) {
		/* BIT(NL80211_STA_FLAG_AUTHORIZED) */
		chg_sta_info.sta_flags2.nrf_wifi_mask = 1 << 1;
		/* BIT(NL80211_STA_FLAG_AUTHORIZED) */
		chg_sta_info.sta_flags2.nrf_wifi_set = 1 << 1;
	}

	status = nrf_wifi_fmac_chg_sta(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &chg_sta_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_chg_sta failed", __func__);
		ret = -1;
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_signal_poll(void *if_priv, struct wpa_signal_info *si, unsigned char *bssid)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_fmac_dev_ctx *fmac_dev_ctx = NULL;
	enum nrf_wifi_status ret = NRF_WIFI_STATUS_FAIL;
	int sem_ret;
	int rssi_record_elapsed_time_ms = 0;

	if (!if_priv || !si || !bssid) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	fmac_dev_ctx = rpu_ctx_zep->rpu_ctx;

	vif_ctx_zep->signal_info = si;

	rssi_record_elapsed_time_ms =
		nrf_wifi_osal_time_elapsed_us(vif_ctx_zep->rssi_record_timestamp_us) / 1000;

	if (rssi_record_elapsed_time_ms > CONFIG_NRF70_RSSI_STALE_TIMEOUT_MS) {
		ret = nrf_wifi_fmac_get_station(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, bssid);
		if (ret != NRF_WIFI_STATUS_SUCCESS) {
			LOG_ERR("%s: Failed to send get station info command", __func__);
			goto out;
		}

		sem_ret = k_sem_take(&wait_for_event_sem, K_MSEC(RPU_RESP_EVENT_TIMEOUT));
		if (sem_ret) {
			LOG_ERR("%s: Failed to get station info, ret = %d", __func__, sem_ret);
			ret = NRF_WIFI_STATUS_FAIL;
			goto out;
		}
	} else {
		si->data.signal = (int)vif_ctx_zep->rssi;
	}

	ret = nrf_wifi_fmac_get_interface(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx);
	if (ret != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: Failed to send get interface info command", __func__);
		goto out;
	}

	sem_ret = k_sem_take(&wait_for_event_sem, K_MSEC(RPU_RESP_EVENT_TIMEOUT));
	if (sem_ret) {
		LOG_ERR("%s: Failed to get interface info, ret = %d", __func__, sem_ret);
		ret = NRF_WIFI_STATUS_FAIL;
		goto out;
	}
	vif_ctx_zep->signal_info->frequency = vif_ctx_zep->assoc_freq;
out:
	vif_ctx_zep->signal_info = NULL;
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

void nrf_wifi_wpa_supp_event_proc_get_sta(void *if_priv,
					   struct nrf_wifi_umac_event_new_station *info,
					   unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct wpa_signal_info *signal_info = NULL;

	if (!if_priv || !info) {
		LOG_ERR("%s: Invalid params", __func__);
		goto out;
	}

	vif_ctx_zep = if_priv;
	if (!vif_ctx_zep) {
		LOG_ERR("%s: vif_ctx_zep is NULL", __func__);
		goto out;
	}

#ifdef CONFIG_NRF70_AP_MODE
	vif_ctx_zep->inactive_time_sec = info->sta_info.inactive_time;
#endif /* CONFIG_NRF70_AP_MODE */

	signal_info = vif_ctx_zep->signal_info;
	/* Semaphore timedout */
	if (!signal_info) {
		goto out;
	}

	if (info->sta_info.valid_fields & NRF_WIFI_STA_INFO_SIGNAL_VALID) {
		signal_info->data.signal = info->sta_info.signal;
	} else {
		signal_info->data.signal = 0;
	}

	if (info->sta_info.valid_fields & NRF_WIFI_STA_INFO_SIGNAL_AVG_VALID) {
		signal_info->data.avg_signal = info->sta_info.signal_avg;
	} else {
		signal_info->data.avg_signal = 0;
	}

	if (info->sta_info.valid_fields & NRF_WIFI_STA_INFO_RX_BEACON_SIGNAL_AVG_VALID) {
		signal_info->data.avg_beacon_signal = info->sta_info.rx_beacon_signal_avg;
	} else {
		signal_info->data.avg_beacon_signal = 0;
	}

	signal_info->data.current_tx_rate = 0;

	if (info->sta_info.valid_fields & NRF_WIFI_STA_INFO_TX_BITRATE_VALID) {
		if (info->sta_info.tx_bitrate.valid_fields & NRF_WIFI_RATE_INFO_BITRATE_VALID) {
			signal_info->data.current_tx_rate = info->sta_info.tx_bitrate.bitrate * 100;
		}
	}
out:
	k_sem_give(&wait_for_event_sem);
}

void nrf_wifi_wpa_supp_event_proc_get_if(void *if_priv,
					   struct nrf_wifi_interface_info *info,
					   unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_chan_definition *chan_def_info = NULL;
	struct wpa_signal_info *signal_info = NULL;

	if (!if_priv || !info) {
		LOG_ERR("%s: Invalid params", __func__);
		k_sem_give(&wait_for_event_sem);
		return;
	}

	vif_ctx_zep = if_priv;
	signal_info = vif_ctx_zep->signal_info;

	/* Semaphore timedout */
	if (!signal_info) {
		LOG_DBG("%s: Get interface Semaphore timedout", __func__);
		return;
	}

	chan_def_info = (struct nrf_wifi_chan_definition *)(&info->chan_def);
	signal_info->chanwidth = drv2supp_chan_width(chan_def_info->width);
	signal_info->center_frq1 = chan_def_info->center_frequency1;
	signal_info->center_frq2 = chan_def_info->center_frequency2;

	k_sem_give(&wait_for_event_sem);
}

void nrf_wifi_wpa_supp_event_mgmt_tx_status(void *if_priv,
		struct nrf_wifi_umac_event_mlme *mlme_event,
		unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	bool acked = false;

	if (!if_priv) {
		LOG_ERR("%s: Missing interface context", __func__);
		return;
	}

	vif_ctx_zep = if_priv;

	if (!mlme_event) {
		LOG_ERR("%s: Missing MLME event data", __func__);
		return;
	}

	acked = mlme_event->nrf_wifi_flags & NRF_WIFI_EVENT_MLME_ACK ? true : false;
	LOG_DBG("%s: Mgmt frame %llx tx status: %s",
		    __func__, mlme_event->cookie, acked ? "ACK" : "NOACK");

	if (vif_ctx_zep->supp_drv_if_ctx &&
		vif_ctx_zep->supp_callbk_fns.mgmt_tx_status) {
		vif_ctx_zep->supp_callbk_fns.mgmt_tx_status(vif_ctx_zep->supp_drv_if_ctx,
				mlme_event->frame.frame,
				mlme_event->frame.frame_len,
				acked);
	}
}

void nrf_wifi_wpa_supp_event_proc_unprot_mgmt(void *if_priv,
		struct nrf_wifi_umac_event_mlme *unprot_mgmt,
		unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	union wpa_event_data event;
	const struct ieee80211_mgmt *mgmt = NULL;
	const unsigned char *frame = NULL;
	unsigned int frame_len = 0;
	int cmd_evnt = 0;

	vif_ctx_zep = if_priv;

	frame = unprot_mgmt->frame.frame;
	frame_len = unprot_mgmt->frame.frame_len;

	mgmt = (const struct ieee80211_mgmt *)frame;
	cmd_evnt = ((struct nrf_wifi_umac_hdr *)unprot_mgmt)->cmd_evnt;

	if (frame_len < 24 + sizeof(mgmt->u.deauth)) {
		LOG_ERR("%s: Unprotected mgmt frame too short", __func__);
		return;
	}

	memset(&event, 0, sizeof(event));

	event.unprot_deauth.sa = &mgmt->sa[0];
	event.unprot_deauth.da = &mgmt->da[0];

	if (cmd_evnt == NRF_WIFI_UMAC_EVENT_UNPROT_DEAUTHENTICATE) {
		event.unprot_deauth.reason_code = le_to_host16(mgmt->u.deauth.reason_code);
		if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.unprot_deauth) {
			vif_ctx_zep->supp_callbk_fns.unprot_deauth(vif_ctx_zep->supp_drv_if_ctx,
									  &event);
		}
	} else if (cmd_evnt == NRF_WIFI_UMAC_EVENT_UNPROT_DISASSOCIATE) {
		event.unprot_disassoc.reason_code = le_to_host16(mgmt->u.deauth.reason_code);
		if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.unprot_disassoc) {
			vif_ctx_zep->supp_callbk_fns.unprot_disassoc(vif_ctx_zep->supp_drv_if_ctx,
										&event);
		}
	}
}

int nrf_wifi_nl80211_send_mlme(void *if_priv, const u8 *data,
		size_t data_len, int noack,
		unsigned int freq, int no_cck,
		int offchanok,
		unsigned int wait_time,
		int cookie)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_mgmt_tx_info *mgmt_tx_info = NULL;
	unsigned int timeout = 0;

	if (!if_priv || !data) {
		LOG_ERR("%s: Invalid params", __func__);
		return -1;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return -1;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	k_mutex_lock(&mgmt_tx_lock, K_FOREVER);

	mgmt_tx_info = k_calloc(sizeof(*mgmt_tx_info), sizeof(char));

	if (!mgmt_tx_info) {
		LOG_ERR("%s: Unable to allocate memory", __func__);
		goto out;
	}

	if (offchanok) {
		mgmt_tx_info->nrf_wifi_flags |= NRF_WIFI_CMD_FRAME_OFFCHANNEL_TX_OK;
	}

	if (noack) {
		mgmt_tx_info->nrf_wifi_flags |= NRF_WIFI_CMD_FRAME_DONT_WAIT_FOR_ACK;
	}

	if (no_cck) {
		mgmt_tx_info->nrf_wifi_flags |= NRF_WIFI_CMD_FRAME_TX_NO_CCK_RATE;
	}

	if (freq) {
		mgmt_tx_info->frequency = freq;
	}

	if (wait_time) {
		mgmt_tx_info->dur = wait_time;
	}

	if (data_len) {
		memcpy(mgmt_tx_info->frame.frame, data, data_len);
		mgmt_tx_info->frame.frame_len = data_len;
	}

	mgmt_tx_info->freq_params.frequency = freq;
	mgmt_tx_info->freq_params.channel_width = NRF_WIFI_CHAN_WIDTH_20;
	mgmt_tx_info->freq_params.center_frequency1 = freq;
	mgmt_tx_info->freq_params.center_frequency2 = 0;
	mgmt_tx_info->freq_params.channel_type = NRF_WIFI_CHAN_HT20;

	/* Going to RPU */
	mgmt_tx_info->host_cookie = cookie;
	vif_ctx_zep->cookie_resp_received = false;

	LOG_DBG("%s: Sending frame to RPU: cookie=%d wait_time=%d no_ack=%d", __func__,
		    cookie, wait_time, noack);
	status = nrf_wifi_fmac_mgmt_tx(rpu_ctx_zep->rpu_ctx,
			vif_ctx_zep->vif_idx,
			mgmt_tx_info);

	if (status == NRF_WIFI_STATUS_FAIL) {
		LOG_ERR("%s: nrf_wifi_fmac_mgmt_tx failed", __func__);
		goto out;
	}

	/* Both are needed as we use this to send_action where noack is hardcoded
	 * to 0 always.
	 */
	if (wait_time || !noack) {
		if (!noack && !wait_time) {
			wait_time = ACTION_FRAME_RESP_TIMEOUT_MS;
		}

		while (!vif_ctx_zep->cookie_resp_received &&
			timeout++ < wait_time) {
			k_sleep(K_MSEC(1));
		}

		if (!vif_ctx_zep->cookie_resp_received) {
			LOG_ERR("%s: cookie response not received (%dms)", __func__,
				timeout);
			status = NRF_WIFI_STATUS_FAIL;
			goto out;
		}
		status = NRF_WIFI_STATUS_SUCCESS;
	}

out:
	if (mgmt_tx_info) {
		k_free(mgmt_tx_info);
	}
	k_mutex_unlock(&mgmt_tx_lock);
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return status;
}

enum nrf_wifi_status nrf_wifi_parse_sband(
	struct nrf_wifi_event_supported_band *event,
	struct wpa_supp_event_supported_band *band
	)
{
	int count;

	if (event && (event->nrf_wifi_n_bitrates == 0 || event->nrf_wifi_n_channels == 0)) {
		return NRF_WIFI_STATUS_FAIL;
	}
	memset(band, 0, sizeof(*band));

	band->wpa_supp_n_channels = event->nrf_wifi_n_channels;
	band->wpa_supp_n_bitrates = event->nrf_wifi_n_bitrates;

	for (count = 0; count < band->wpa_supp_n_channels; count++) {
		struct wpa_supp_event_channel *chan = &band->channels[count];

		if (count >= WPA_SUPP_SBAND_MAX_CHANNELS) {
			LOG_ERR("%s: Failed to add channel", __func__);
			break;
		}

		chan->wpa_supp_flags = event->channels[count].nrf_wifi_flags;
		chan->wpa_supp_max_power = event->channels[count].nrf_wifi_max_power;
		chan->wpa_supp_time = event->channels[count].nrf_wifi_time;
		chan->dfs_cac_msec = event->channels[count].dfs_cac_msec;
		chan->ch_valid = event->channels[count].ch_valid;
		chan->center_frequency = event->channels[count].center_frequency;
		chan->dfs_state = event->channels[count].dfs_state;
	}

	for (count = 0; count < band->wpa_supp_n_bitrates; count++) {
		struct wpa_supp_event_rate *rate = &band->bitrates[count];

		if (count >= WPA_SUPP_SBAND_MAX_RATES) {
			LOG_ERR("%s: Failed to add bitrate", __func__);
			break;
		}

		rate->wpa_supp_flags = event->bitrates[count].nrf_wifi_flags;
		rate->wpa_supp_bitrate = event->bitrates[count].nrf_wifi_bitrate;
	}

	band->ht_cap.wpa_supp_ht_supported = event->ht_cap.nrf_wifi_ht_supported;
	band->ht_cap.wpa_supp_cap = event->ht_cap.nrf_wifi_cap;
	band->ht_cap.mcs.wpa_supp_rx_highest = event->ht_cap.mcs.nrf_wifi_rx_highest;

	for (count = 0; count < WPA_SUPP_HT_MCS_MASK_LEN; count++) {
		band->ht_cap.mcs.wpa_supp_rx_mask[count] =
			event->ht_cap.mcs.nrf_wifi_rx_mask[count];
	}

	band->ht_cap.mcs.wpa_supp_tx_params = event->ht_cap.mcs.nrf_wifi_tx_params;

	for (count = 0; count < NRF_WIFI_HT_MCS_RES_LEN; count++) {

		if (count >= WPA_SUPP_HT_MCS_RES_LEN) {
			LOG_ERR("%s: Failed to add reserved bytes", __func__);
			break;
		}

		band->ht_cap.mcs.wpa_supp_reserved[count] =
			event->ht_cap.mcs.nrf_wifi_reserved[count];
	}

	band->ht_cap.wpa_supp_ampdu_factor = event->ht_cap.nrf_wifi_ampdu_factor;
	band->ht_cap.wpa_supp_ampdu_density = event->ht_cap.nrf_wifi_ampdu_density;

	band->vht_cap.wpa_supp_vht_supported = event->vht_cap.nrf_wifi_vht_supported;
	band->vht_cap.wpa_supp_cap = event->vht_cap.nrf_wifi_cap;

	band->vht_cap.vht_mcs.rx_mcs_map = event->vht_cap.vht_mcs.rx_mcs_map;
	band->vht_cap.vht_mcs.rx_highest = event->vht_cap.vht_mcs.rx_highest;
	band->vht_cap.vht_mcs.tx_mcs_map = event->vht_cap.vht_mcs.tx_mcs_map;
	band->vht_cap.vht_mcs.tx_highest = event->vht_cap.vht_mcs.tx_highest;

	band->band = event->band;

	return WLAN_STATUS_SUCCESS;
}

void nrf_wifi_wpa_supp_event_get_wiphy(void *if_priv,
		struct nrf_wifi_event_get_wiphy *wiphy_info,
		unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct wpa_supp_event_supported_band band;

	if (!if_priv || !wiphy_info || !event_len) {
		LOG_ERR("%s: Invalid parameters", __func__);
		return;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;

	memset(&band, 0, sizeof(band));

	for (int i = 0; i < NRF_WIFI_EVENT_GET_WIPHY_NUM_BANDS; i++) {
		if (nrf_wifi_parse_sband(&wiphy_info->sband[i], &band) != WLAN_STATUS_SUCCESS) {
			continue;
		}
		if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.get_wiphy_res) {
			vif_ctx_zep->supp_callbk_fns.get_wiphy_res(vif_ctx_zep->supp_drv_if_ctx,
									&band);
		}
	}

	if ((wiphy_info->params_valid & NRF_WIFI_GET_WIPHY_VALID_EXTENDED_CAPABILITIES) &&
	    rpu_ctx_zep->extended_capa == NULL) {

		rpu_ctx_zep->extended_capa = k_malloc(wiphy_info->extended_capabilities_len);

		if (rpu_ctx_zep->extended_capa) {
			memcpy(rpu_ctx_zep->extended_capa, wiphy_info->extended_capabilities,
			       wiphy_info->extended_capabilities_len);
		}

		rpu_ctx_zep->extended_capa_mask = k_malloc(wiphy_info->extended_capabilities_len);

		if (rpu_ctx_zep->extended_capa_mask) {
			memcpy(rpu_ctx_zep->extended_capa_mask,
			       wiphy_info->extended_capabilities_mask,
			       wiphy_info->extended_capabilities_len);
		} else {
			free(rpu_ctx_zep->extended_capa);
			rpu_ctx_zep->extended_capa = NULL;
			rpu_ctx_zep->extended_capa_len = 0;
		}
	}

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.get_wiphy_res) {
		vif_ctx_zep->supp_callbk_fns.get_wiphy_res(vif_ctx_zep->supp_drv_if_ctx, NULL);
	}
}

int nrf_wifi_supp_get_wiphy(void *if_priv)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;

	if (!if_priv) {
		LOG_ERR("%s: Missing interface context", __func__);
		return -1;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return -1;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	status = nrf_wifi_fmac_get_wiphy(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_get_wiphy failed", __func__);
		goto out;
	}
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return status;
}

int nrf_wifi_supp_register_frame(void *if_priv,
			u16 type, const u8 *match, size_t match_len,
			bool multicast)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_mgmt_frame_info frame_info;

	if (!if_priv || !match || !match_len) {
		LOG_ERR("%s: Invalid parameters", __func__);
		return -1;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return -1;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	memset(&frame_info, 0, sizeof(frame_info));

	frame_info.frame_type = type;
	frame_info.frame_match.frame_match_len = match_len;
	memcpy(frame_info.frame_match.frame_match, match, match_len);

	status = nrf_wifi_fmac_register_frame(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx,
			&frame_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_register_frame failed", __func__);
		goto out;
	}
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return status;
}

void nrf_wifi_wpa_supp_event_mgmt_rx_callbk_fn(void *if_priv,
					       struct nrf_wifi_umac_event_mlme *mlme_event,
					       unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;

	if (!if_priv) {
		LOG_ERR("%s: Missing interface context", __func__);
		return;
	}

	vif_ctx_zep = if_priv;

	if (!mlme_event || !event_len) {
		LOG_ERR("%s: Missing MLME event data", __func__);
		return;
	}

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.mgmt_rx) {
		vif_ctx_zep->supp_callbk_fns.mgmt_rx(vif_ctx_zep->supp_drv_if_ctx,
				mlme_event->frame.frame,
				mlme_event->frame.frame_len,
				mlme_event->frequency,
				mlme_event->rx_signal_dbm);
	}
}

int nrf_wifi_supp_get_capa(void *if_priv, struct wpa_driver_capa *capa)
{
	enum nrf_wifi_status status = NRF_WIFI_STATUS_SUCCESS;
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;

	if (!if_priv || !capa) {
		LOG_ERR("%s: Invalid parameters", __func__);
		return -1;
	}

	memset(capa, 0, sizeof(*capa));

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return -1;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	/* TODO: Get these from RPU*/
	/* Use SME */
	capa->flags = 0;
	capa->flags |= WPA_DRIVER_FLAGS_SME;
	capa->flags |= WPA_DRIVER_FLAGS_SAE;
	capa->flags |= WPA_DRIVER_FLAGS_SET_KEYS_AFTER_ASSOC_DONE;
	capa->rrm_flags |= WPA_DRIVER_FLAGS_SUPPORT_RRM;
	capa->rrm_flags |= WPA_DRIVER_FLAGS_SUPPORT_BEACON_REPORT;
	if (IS_ENABLED(CONFIG_NRF70_AP_MODE)) {
		capa->flags |= WPA_DRIVER_FLAGS_AP;
	}

	capa->enc |= WPA_DRIVER_CAPA_ENC_WEP40 |
			WPA_DRIVER_CAPA_ENC_WEP104 |
			WPA_DRIVER_CAPA_ENC_TKIP |
			WPA_DRIVER_CAPA_ENC_CCMP |
			WPA_DRIVER_CAPA_ENC_CCMP |
			WPA_DRIVER_CAPA_ENC_CCMP_256 |
			WPA_DRIVER_CAPA_ENC_GCMP_256;

	if (rpu_ctx_zep->extended_capa && rpu_ctx_zep->extended_capa_mask) {
		capa->extended_capa = rpu_ctx_zep->extended_capa;
		capa->extended_capa_mask = rpu_ctx_zep->extended_capa_mask;
		capa->extended_capa_len = rpu_ctx_zep->extended_capa_len;
	}
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return status;
}


void nrf_wifi_wpa_supp_event_mac_chgd(void *if_priv)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;

	if (!if_priv) {
		LOG_ERR("%s: Invalid parameters", __func__);
		return;
	}

	vif_ctx_zep = if_priv;

	if (vif_ctx_zep->supp_drv_if_ctx && vif_ctx_zep->supp_callbk_fns.mac_changed) {
		vif_ctx_zep->supp_callbk_fns.mac_changed(vif_ctx_zep->supp_drv_if_ctx);
	}

}


int nrf_wifi_supp_get_conn_info(void *if_priv, struct wpa_conn_info *info)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_fmac_dev_ctx *fmac_dev_ctx = NULL;
	enum nrf_wifi_status ret = NRF_WIFI_STATUS_FAIL;
	int sem_ret;

	if (!if_priv || !info) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	fmac_dev_ctx = rpu_ctx_zep->rpu_ctx;

	vif_ctx_zep->conn_info = info;
	ret = nrf_wifi_fmac_get_conn_info(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx);
	if (ret != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_get_conn_info failed", __func__);
		goto out;
	}

	sem_ret = k_sem_take(&wait_for_event_sem, K_MSEC(RPU_RESP_EVENT_TIMEOUT));
	if (sem_ret) {
		LOG_ERR("%s: Timeout: failed to get connection info, ret = %d", __func__, sem_ret);
		ret = NRF_WIFI_STATUS_FAIL;
		goto out;
	}

out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_supp_set_country(void *if_priv, const char *alpha2)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_fmac_reg_info reg_domain_info = {0};

	if (!if_priv || !alpha2) {
		LOG_ERR("%s: Invalid params", __func__);
		return -1;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return -1;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	memcpy(reg_domain_info.alpha2, alpha2, NRF_WIFI_COUNTRY_CODE_LEN);

	status = nrf_wifi_fmac_set_reg(rpu_ctx_zep->rpu_ctx, &reg_domain_info);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_set_reg failed", __func__);
		goto out;
	}
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return status;
}

int nrf_wifi_supp_get_country(void *if_priv, char *alpha2)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_fmac_reg_info reg_domain_info = {0};

	if (!if_priv || !alpha2) {
		LOG_ERR("%s: Invalid params", __func__);
		return -1;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return -1;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	status = nrf_wifi_fmac_get_reg(rpu_ctx_zep->rpu_ctx, &reg_domain_info);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_get_reg failed", __func__);
		goto out;
	}

	memcpy(alpha2, reg_domain_info.alpha2, NRF_WIFI_COUNTRY_CODE_LEN);
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return status;
}

void nrf_wifi_supp_event_proc_get_conn_info(void *if_priv,
					   struct nrf_wifi_umac_event_conn_info *info,
					   unsigned int event_len)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct wpa_conn_info *conn_info = NULL;

	if (!if_priv || !info) {
		LOG_ERR("%s: Invalid params", __func__);
		k_sem_give(&wait_for_event_sem);
		return;
	}
	vif_ctx_zep = if_priv;
	conn_info = vif_ctx_zep->conn_info;

	conn_info->beacon_interval = info->beacon_interval;
	conn_info->dtim_period = info->dtim_interval;
	conn_info->twt_capable = info->twt_capable;
	k_sem_give(&wait_for_event_sem);
}

#ifdef CONFIG_NRF70_AP_MODE
static int nrf_wifi_vif_state_change(struct nrf_wifi_vif_ctx_zep *vif_ctx_zep,
	enum nrf_wifi_fmac_if_op_state state)
{
	struct nrf_wifi_umac_chg_vif_state_info vif_state_info = {0};
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	unsigned int timeout = 0;
	struct nrf_wifi_fmac_vif_ctx *vif_ctx = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_fmac_dev_ctx_def *def_dev_ctx = NULL;
	int ret = -1;

	if (!vif_ctx_zep) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	def_dev_ctx = wifi_dev_priv(rpu_ctx_zep->rpu_ctx);
	vif_ctx = def_dev_ctx->vif_ctx[vif_ctx_zep->vif_idx];

	vif_state_info.state = state;
	vif_state_info.if_index = vif_ctx_zep->vif_idx;
	vif_ctx->ifflags = false;
	status = nrf_wifi_fmac_chg_vif_state(rpu_ctx_zep->rpu_ctx,
					     vif_ctx_zep->vif_idx,
					     &vif_state_info);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_chg_vif_state failed",
			__func__);
		goto out;
	}

	while (!vif_ctx->ifflags && timeout++ < SET_IFACE_EVENT_TIMEOUT_MS) {
		k_sleep(K_MSEC(1));
	}

	if (!vif_ctx->ifflags) {
		LOG_ERR("%s: set interface state event not received (%dms)", __func__, timeout);
		goto out;
	}
	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

static int nrf_wifi_iftype_change(struct nrf_wifi_vif_ctx_zep *vif_ctx_zep, int iftype)
{
	struct nrf_wifi_umac_chg_vif_attr_info chg_vif_info = {0};
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	int ret = -1;
	unsigned int timeout = 0;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;

	if (!vif_ctx_zep) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	ret = nrf_wifi_vif_state_change(vif_ctx_zep, NRF_WIFI_FMAC_IF_OP_STATE_DOWN);
	if (ret) {
		LOG_ERR("%s: Failed to set interface down", __func__);
		goto out;
	}

	chg_vif_info.iftype = iftype;
	vif_ctx_zep->set_if_event_received = false;
	vif_ctx_zep->set_if_status = 0;
	status = nrf_wifi_fmac_chg_vif(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &chg_vif_info);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_chg_vif failed", __func__);
		goto out;
	}

	while (!vif_ctx_zep->set_if_event_received &&
		  timeout++ < SET_IFACE_EVENT_TIMEOUT_MS) {
		k_sleep(K_MSEC(1));
	}

	if (!vif_ctx_zep->set_if_event_received) {
		LOG_ERR("%s: set interface event not received (%dms)", __func__, timeout);
		goto out;
	}

	if (vif_ctx_zep->set_if_status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: set interface failed: %d", __func__, vif_ctx_zep->set_if_status);
		goto out;
	}

	ret = nrf_wifi_vif_state_change(vif_ctx_zep, NRF_WIFI_FMAC_IF_OP_STATE_UP);
	if (ret) {
		LOG_ERR("%s: Failed to set interface up", __func__);
		goto out;
	}
	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

static int nrf_wifi_wait_for_carrier_status(struct nrf_wifi_vif_ctx_zep *vif_ctx_zep,
	enum nrf_wifi_fmac_if_carr_state carrier_status)
{
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	int ret = -1;
	unsigned int timeout = 0;

	if (!vif_ctx_zep) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	while (vif_ctx_zep->if_carr_state != carrier_status &&
	       timeout++ < CARR_ON_TIMEOUT_MS) {
		k_sleep(K_MSEC(1));
	}

	if (vif_ctx_zep->if_carr_state != carrier_status) {
		LOG_ERR("%s: Carrier %s event not received in %dms", __func__,
			carrier_status == NRF_WIFI_FMAC_IF_CARR_STATE_ON ? "ON" : "OFF",
			timeout);
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_init_ap(void *if_priv, struct wpa_driver_associate_params *params)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;

	int ret = -1;

	if (!if_priv || !params) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	if (params->mode != IEEE80211_MODE_AP) {
		LOG_ERR("%s: Invalid mode", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	ret = nrf_wifi_iftype_change(vif_ctx_zep, NRF_WIFI_IFTYPE_AP);
	if (ret) {
		LOG_ERR("%s: Failed to set interface type to AP: %d", __func__, ret);
		goto out;
	}

out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

static int wpas_cipher_to_nrf(int cipher)
{
	switch (cipher) {
	case WPA_CIPHER_NONE:
		return 0;
	case WPA_CIPHER_WEP40:
		return NRF_WIFI_FMAC_CIPHER_SUITE_WEP40;
	case WPA_CIPHER_WEP104:
		return NRF_WIFI_FMAC_CIPHER_SUITE_WEP104;
	case WPA_CIPHER_TKIP:
		return NRF_WIFI_FMAC_CIPHER_SUITE_TKIP;
	case WPA_CIPHER_CCMP:
		return NRF_WIFI_FMAC_CIPHER_SUITE_CCMP;
	case WPA_CIPHER_CCMP_256:
		return NRF_WIFI_FMAC_CIPHER_SUITE_CCMP_256;
	default:
		return -1;
	}
}

static int nrf_wifi_set_beacon_data(const struct wpa_driver_ap_params *params,
		struct nrf_wifi_beacon_data *beacon_data)
{
	int ret = -1;

	if (params->head_len > ARRAY_SIZE(beacon_data->head)) {
		LOG_ERR("%s: head_len too big", __func__);
		goto out;
	}

	if (params->tail_len > ARRAY_SIZE(beacon_data->tail)) {
		LOG_ERR("%s: tail_len too big", __func__);
		goto out;
	}

	if (params->proberesp_len > ARRAY_SIZE(beacon_data->probe_resp)) {
		LOG_ERR("%s: proberesp_len too big", __func__);
		goto out;
	}

	beacon_data->head_len = params->head_len;
	beacon_data->tail_len = params->tail_len;
	beacon_data->probe_resp_len = params->proberesp_len;

	if (params->head_len) {
		memcpy(&beacon_data->head, params->head,
		       params->head_len);
	}

	if (params->tail_len) {
		memcpy(&beacon_data->tail, params->tail,
		       params->tail_len);
	}

	if (params->proberesp_len) {
		memcpy(&beacon_data->probe_resp, params->proberesp_ies,
		       params->proberesp_len);
	}

	ret = 0;
out:
	return ret;
}

int nrf_wifi_supp_register_mgmt_frame(void *if_priv,
	u16 frame_type, size_t match_len, const u8 *match)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	struct nrf_wifi_umac_mgmt_frame_info mgmt_frame_info = {0};
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ret = -1;

	if (!if_priv || (match_len && !match)) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	mgmt_frame_info.frame_type = frame_type;
	mgmt_frame_info.frame_match.frame_match_len = match_len;
	if (match_len >= NRF_WIFI_FRAME_MATCH_MAX_LEN) {
		LOG_ERR("%s: match_len too big: %d (max %d)", __func__, match_len,
			NRF_WIFI_FRAME_MATCH_MAX_LEN);
		goto out;
	}
	memcpy(mgmt_frame_info.frame_match.frame_match, match, match_len);

	status = nrf_wifi_fmac_mgmt_frame_reg(rpu_ctx_zep->rpu_ctx,
					      vif_ctx_zep->vif_idx,
					      &mgmt_frame_info);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_mgmt_frame_reg failed", __func__);
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

/* As per current design default is always STA */
static int is_ap_dynamic_iface(struct nrf_wifi_vif_ctx_zep *vif_ctx_zep)
{
	return (vif_ctx_zep->vif_idx != 0);
}

static int nrf_wifi_set_bss(struct nrf_wifi_vif_ctx_zep *vif_ctx_zep,
	 struct wpa_driver_ap_params *params)
{
	struct nrf_wifi_umac_bss_info bss_info = {0};
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	int ret = -1;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int i;

	if (!vif_ctx_zep || !params) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	if (params->basic_rates) {
		for (i = 0; params->basic_rates[i] != -1; i++) {
			if (i >= ARRAY_SIZE(bss_info.basic_rates)) {
				LOG_ERR("%s: basic_rates too big: %d (max %d)", __func__, i,
					ARRAY_SIZE(bss_info.basic_rates));
				goto out;
			}
			bss_info.basic_rates[i] = params->basic_rates[i];
		}
		bss_info.num_basic_rates = i;
	}
	bss_info.p2p_go_ctwindow = params->p2p_go_ctwindow;
	bss_info.ht_opmode = params->ht_opmode;
	bss_info.nrf_wifi_cts = params->cts_protect;
	bss_info.preamble = params->preamble;
	bss_info.nrf_wifi_slot = params->short_slot_time;
	bss_info.ap_isolate = params->isolate;

	status = nrf_wifi_fmac_set_bss(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &bss_info);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_set_bss failed", __func__);
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}


static enum nrf_wifi_chan_width wpa_supp_chan_width_to_nrf(enum hostapd_hw_mode mode,
	int bandwidth, int cfreq1, int cfreq2)
{
	switch (bandwidth) {
	case 20:
		if (mode == HOSTAPD_MODE_IEEE80211B) {
			return NRF_WIFI_CHAN_WIDTH_20_NOHT;
		} else {
			return NRF_WIFI_CHAN_WIDTH_20;
		};
	case 40:
		return NRF_WIFI_CHAN_WIDTH_40;
	case 80:
		if (cfreq2) {
			return NRF_WIFI_CHAN_WIDTH_80P80;
		} else {
			return NRF_WIFI_CHAN_WIDTH_80;
		}
	case 160:
		return NRF_WIFI_CHAN_WIDTH_160;
	};

	return NRF_WIFI_CHAN_WIDTH_20;
}

int nrf_wifi_wpa_supp_start_ap(void *if_priv, struct wpa_driver_ap_params *params)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	int ret = -1;
	struct nrf_wifi_umac_start_ap_info start_ap_info = {0};
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ch_width = 0;

	if (!if_priv || !params) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	nrf_wifi_set_beacon_data(params, &start_ap_info.beacon_data);
	start_ap_info.beacon_interval = params->beacon_int;
	start_ap_info.dtim_period = params->dtim_period;
	start_ap_info.ssid.nrf_wifi_ssid_len = params->ssid_len;
	memcpy(start_ap_info.ssid.nrf_wifi_ssid, params->ssid, params->ssid_len);
	for (int i = 0; i < 32; i++) {
		if ((params->pairwise_ciphers & BIT(i)) &&
		    start_ap_info.connect_common_info.num_cipher_suites_pairwise < 7) {
			if (wpas_cipher_to_nrf(i) < 0) {
				LOG_DBG("%s: Unsupported cipher %d ignored", __func__, i);
				continue;
			}
			start_ap_info.connect_common_info.cipher_suites_pairwise[i] =
				wpas_cipher_to_nrf(i);
			start_ap_info.connect_common_info.num_cipher_suites_pairwise++;
		}
	}

	ch_width = wpa_supp_chan_width_to_nrf(params->freq->mode, params->freq->bandwidth,
			params->freq->center_freq1, params->freq->center_freq2);

	start_ap_info.freq_params.frequency = params->freq->freq;
	start_ap_info.freq_params.channel_width = ch_width;
	start_ap_info.freq_params.center_frequency1 = params->freq->center_freq1;
	start_ap_info.freq_params.center_frequency2 = params->freq->center_freq2;
	start_ap_info.freq_params.channel_type = params->freq->ht_enabled ? NRF_WIFI_CHAN_HT20 :
						NRF_WIFI_CHAN_NO_HT;
	start_ap_info.freq_params.valid_fields = NRF_WIFI_SET_FREQ_PARAMS_FREQ_VALID |
		NRF_WIFI_SET_FREQ_PARAMS_CHANNEL_WIDTH_VALID |
		NRF_WIFI_SET_FREQ_PARAMS_CENTER_FREQ1_VALID |
		NRF_WIFI_SET_FREQ_PARAMS_CENTER_FREQ2_VALID |
		NRF_WIFI_SET_FREQ_PARAMS_CHANNEL_TYPE_VALID;

	vif_ctx_zep->if_carr_state = NRF_WIFI_FMAC_IF_CARR_STATE_OFF;
	status = nrf_wifi_fmac_start_ap(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &start_ap_info);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_start_ap failed", __func__);
		goto out;
	}

	ret = nrf_wifi_wait_for_carrier_status(vif_ctx_zep, NRF_WIFI_FMAC_IF_CARR_STATE_ON);
	if (ret) {
		goto out;
	}

	ret = nrf_wifi_set_bss(vif_ctx_zep, params);
	if (ret) {
		LOG_ERR("%s: Failed to set BSS", __func__);
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_change_beacon(void *if_priv, struct wpa_driver_ap_params *params)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	int ret = -1;
	struct nrf_wifi_umac_set_beacon_info chg_bcn_info = {0};
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;

	if (!if_priv || !params) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	nrf_wifi_set_beacon_data(params, &chg_bcn_info.beacon_data);

	status = nrf_wifi_fmac_chg_bcn(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &chg_bcn_info);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_chg_bcn failed", __func__);
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_stop_ap(void *if_priv)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ret = -1;

	if (!if_priv) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	status = nrf_wifi_fmac_stop_ap(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx);

	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_stop_ap failed", __func__);
		goto out;
	}

	ret = nrf_wifi_wait_for_carrier_status(vif_ctx_zep, NRF_WIFI_FMAC_IF_CARR_STATE_OFF);
	if (ret) {
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_deinit_ap(void *if_priv)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ret = -1;

	if (!if_priv) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_DBG("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	status = nrf_wifi_wpa_supp_stop_ap(if_priv);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: Failed to stop AP", __func__);
		goto out;
	}

	if (!is_ap_dynamic_iface(vif_ctx_zep)) {
		ret = nrf_wifi_iftype_change(vif_ctx_zep, NRF_WIFI_IFTYPE_STATION);
		if (ret) {
			LOG_ERR("%s: Failed to set interface type to STATION: %d", __func__, ret);
			goto out;
		}
	}
	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_sta_flags_to_nrf(int wpas_sta_flags)
{
	int nrf_sta_flags = 0;

	if (wpas_sta_flags & WPA_STA_AUTHORIZED) {
		nrf_sta_flags |= NRF_WIFI_STA_FLAG_AUTHORIZED;
	}
	if (wpas_sta_flags & WPA_STA_WMM) {
		nrf_sta_flags |= NRF_WIFI_STA_FLAG_WME;
	}
	if (wpas_sta_flags & WPA_STA_SHORT_PREAMBLE) {
		nrf_sta_flags |= NRF_WIFI_STA_FLAG_SHORT_PREAMBLE;
	}
	if (wpas_sta_flags & WPA_STA_MFP) {
		nrf_sta_flags |= NRF_WIFI_STA_FLAG_MFP;
	}
	if (wpas_sta_flags & WPA_STA_TDLS_PEER) {
		nrf_sta_flags |= NRF_WIFI_STA_FLAG_TDLS_PEER;
	}
	/* Note: Do not set flags > NRF_WIFI_STA_FLAG_TDLS_PEER, else
	 * nrf_wifi_fmac_chg_sta will fail. This is equivalent to not
	 * setting WPA_DRIVER_FLAGS_FULL_AP_CLIENT_STATE flag.
	 */

	return nrf_sta_flags;
}

int nrf_wifi_wpa_supp_sta_add(void *if_priv, struct hostapd_sta_add_params *params)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	struct nrf_wifi_umac_add_sta_info sta_info = {0};
	int ret = -1;
	int i;

	if (!if_priv || !params) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_ERR("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	sta_info.nrf_wifi_listen_interval = params->listen_interval;
	sta_info.aid = params->aid;
	sta_info.sta_capability = params->capability;
	sta_info.supp_rates.nrf_wifi_num_rates = params->supp_rates_len;
	/* TODO: sta_info.supp_rates.band */
	for (i = 0; i < params->supp_rates_len; i++) {
		sta_info.supp_rates.rates[i] = params->supp_rates[i] & 0x7f;
	}

	sta_info.ext_capability.ext_capability_len = params->ext_capab_len;
	if (params->ext_capab_len >= NRF_WIFI_EXT_CAPABILITY_MAX_LEN) {
		LOG_ERR("%s: ext_capab_len too big: %d (max %d)", __func__,
			params->ext_capab_len, NRF_WIFI_EXT_CAPABILITY_MAX_LEN);
		goto out;
	}
	memcpy(sta_info.ext_capability.ext_capability, params->ext_capab,
	       params->ext_capab_len);

	sta_info.supported_channels.supported_channels_len = params->supp_channels_len;
	if (params->supp_channels_len >= NRF_WIFI_SUPPORTED_CHANNELS_MAX_LEN) {
		LOG_ERR("%s: supp_channels_len too big: %d (max %d)", __func__,
			params->supp_channels_len, NRF_WIFI_SUPPORTED_CHANNELS_MAX_LEN);
		goto out;
	}
	memcpy(sta_info.supported_channels.supported_channels, params->supp_channels,
	       params->supp_channels_len);

	sta_info.supported_oper_classes.supported_oper_classes_len = params->supp_oper_classes_len;
	if (params->supp_oper_classes_len >= NRF_WIFI_OPER_CLASSES_MAX_LEN) {
		LOG_ERR("%s: supp_oper_classes_len too big: %d (max %d)", __func__,
			params->supp_oper_classes_len, NRF_WIFI_OPER_CLASSES_MAX_LEN);
		goto out;
	}
	memcpy(sta_info.supported_oper_classes.supported_oper_classes, params->supp_oper_classes,
	       params->supp_oper_classes_len);

	sta_info.sta_flags2.nrf_wifi_set = nrf_wifi_sta_flags_to_nrf(params->flags);
	sta_info.sta_flags2.nrf_wifi_mask = sta_info.sta_flags2.nrf_wifi_set |
		nrf_wifi_sta_flags_to_nrf(params->flags_mask);

	if (params->ht_capabilities) {
		memcpy(sta_info.ht_capability,
			   params->ht_capabilities,
			   sizeof(sta_info.ht_capability));
	}

	if (params->vht_capabilities) {
		memcpy(sta_info.vht_capability,
			   params->vht_capabilities,
			   sizeof(sta_info.vht_capability));
	}

	memcpy(sta_info.mac_addr, params->addr, sizeof(sta_info.mac_addr));

	LOG_DBG("%s: %x, %x", __func__,
		sta_info.sta_flags2.nrf_wifi_set, sta_info.sta_flags2.nrf_wifi_mask);

	if (params->set) {
		status = nrf_wifi_fmac_chg_sta(rpu_ctx_zep->rpu_ctx,
					vif_ctx_zep->vif_idx,
					(struct nrf_wifi_umac_chg_sta_info *)&sta_info);
	} else {
		status = nrf_wifi_fmac_add_sta(rpu_ctx_zep->rpu_ctx,
					vif_ctx_zep->vif_idx,
					&sta_info);
	}
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_add_sta failed", __func__);
		goto out;
	}

	ret = 0;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_sta_remove(void *if_priv, const u8 *addr)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_umac_del_sta_info del_sta = {0};
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ret = -1;

	if (!if_priv || !addr) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_DBG("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	memcpy(del_sta.mac_addr, addr, sizeof(del_sta.mac_addr));

	status = nrf_wifi_fmac_del_sta(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &del_sta);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_del_sta failed", __func__);
		goto out;
	}

	ret = 0;

out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_sta_set_flags(void *if_priv, const u8 *addr,
			unsigned int total_flags, unsigned int flags_or,
			unsigned int flags_and)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_umac_chg_sta_info chg_sta = {0};
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ret = -1;

	if (!if_priv || !addr) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_DBG("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	memcpy(chg_sta.mac_addr, addr, sizeof(chg_sta.mac_addr));

	chg_sta.sta_flags2.nrf_wifi_mask = nrf_wifi_sta_flags_to_nrf(flags_or | ~flags_and);
	chg_sta.sta_flags2.nrf_wifi_set = nrf_wifi_sta_flags_to_nrf(flags_or);

	LOG_DBG("%s %x, %x", __func__,
		chg_sta.sta_flags2.nrf_wifi_set, chg_sta.sta_flags2.nrf_wifi_mask);

	status = nrf_wifi_fmac_chg_sta(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx, &chg_sta);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_chg_sta failed", __func__);
		goto out;
	}

	ret = 0;

out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return ret;
}

int nrf_wifi_wpa_supp_sta_get_inact_sec(void *if_priv, const u8 *addr)
{
	struct nrf_wifi_vif_ctx_zep *vif_ctx_zep = NULL;
	struct nrf_wifi_ctx_zep *rpu_ctx_zep = NULL;
	enum nrf_wifi_status status = NRF_WIFI_STATUS_FAIL;
	int ret = -1, sem_ret;
	int inactive_time_sec = -1;

	if (!if_priv || !addr) {
		LOG_ERR("%s: Invalid params", __func__);
		return ret;
	}

	vif_ctx_zep = if_priv;
	rpu_ctx_zep = vif_ctx_zep->rpu_ctx_zep;
	if (!rpu_ctx_zep) {
		LOG_DBG("%s: rpu_ctx_zep is NULL", __func__);
		return ret;
	}

	k_mutex_lock(&vif_ctx_zep->vif_lock, K_FOREVER);
	if (!rpu_ctx_zep->rpu_ctx) {
		LOG_DBG("%s: RPU context not initialized", __func__);
		goto out;
	}

	status = nrf_wifi_fmac_get_station(rpu_ctx_zep->rpu_ctx, vif_ctx_zep->vif_idx,
					(unsigned char *) addr);
	if (status != NRF_WIFI_STATUS_SUCCESS) {
		LOG_ERR("%s: nrf_wifi_fmac_get_station failed", __func__);
		goto out;
	}

	sem_ret = k_sem_take(&wait_for_event_sem, K_MSEC(RPU_RESP_EVENT_TIMEOUT));
	if (sem_ret) {
		LOG_ERR("%s: Timed out to get station info, ret = %d", __func__, sem_ret);
		ret = NRF_WIFI_STATUS_FAIL;
		goto out;
	}

	inactive_time_sec = vif_ctx_zep->inactive_time_sec;
out:
	k_mutex_unlock(&vif_ctx_zep->vif_lock);
	return inactive_time_sec;
}
#endif /* CONFIG_NRF70_AP_MODE */