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gerrit-public.fairphone.software / platform / vendor / qcom-opensource / wlan / prima / fddc28c9e8253fe931769f688a412c6003aa2999 / . / CORE / VOSS / src / vos_nvitem.c
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/*
* Copyright (c) 2012-2013, The Linux Foundation. All rights reserved.
*
* Previously licensed under the ISC license by Qualcomm Atheros, Inc.
*
*
* Permission to use, copy, modify, and/or distribute this software for
* any purpose with or without fee is hereby granted, provided that the
* above copyright notice and this permission notice appear in all
* copies.
*
* THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL
* WARRANTIES WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED
* WARRANTIES OF MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE
* AUTHOR BE LIABLE FOR ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL
* DAMAGES OR ANY DAMAGES WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR
* PROFITS, WHETHER IN AN ACTION OF CONTRACT, NEGLIGENCE OR OTHER
* TORTIOUS ACTION, ARISING OUT OF OR IN CONNECTION WITH THE USE OR
* PERFORMANCE OF THIS SOFTWARE.
*/
/*
* Copyright (c) 2012, The Linux Foundation. All rights reserved.
*
* Previously licensed under the ISC license by Qualcomm Atheros, Inc.
*
*
* Permission to use, copy, modify, and/or distribute this software for
* any purpose with or without fee is hereby granted, provided that the
* above copyright notice and this permission notice appear in all
* copies.
*
* THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL
* WARRANTIES WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED
* WARRANTIES OF MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE
* AUTHOR BE LIABLE FOR ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL
* DAMAGES OR ANY DAMAGES WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR
* PROFITS, WHETHER IN AN ACTION OF CONTRACT, NEGLIGENCE OR OTHER
* TORTIOUS ACTION, ARISING OUT OF OR IN CONNECTION WITH THE USE OR
* PERFORMANCE OF THIS SOFTWARE.
*/
/*============================================================================
FILE: vos_nvitem.c
OVERVIEW: This source file contains definitions for vOS NV Item APIs
DEPENDENCIES: NV, remote API client, WinCE REX
Copyright (c) 2008 QUALCOMM Incorporated.
All Rights Reserved.
Qualcomm Confidential and Proprietary
============================================================================*/
/*============================================================================
EDIT HISTORY FOR MODULE
============================================================================*/
// the following is used to disable warning for having too many labels in
// the 'nv_items_enum_type'
/*----------------------------------------------------------------------------
* Include Files
* -------------------------------------------------------------------------*/
#include "vos_types.h"
#include "aniGlobal.h"
#include "vos_nvitem.h"
#include "vos_trace.h"
#include "vos_api.h"
#include "wlan_hdd_misc.h"
#include "vos_sched.h"
#include "wlan_nv_parser.h"
#include "wlan_hdd_main.h"
#include <net/cfg80211.h>
static v_REGDOMAIN_t cur_reg_domain = REGDOMAIN_COUNT;
#ifdef CONFIG_ENABLE_LINUX_REG
static v_BOOL_t kernel_reg_request_made = VOS_FALSE;
static v_BOOL_t driver_callback_called = VOS_FALSE;
static char linux_reg_cc[2] = {0, 0};
static v_BOOL_t linux_regulatory_init = VOS_FALSE;
static v_REGDOMAIN_t temp_reg_domain = REGDOMAIN_COUNT;
#else
static v_BOOL_t driver_regulatory_init = VOS_FALSE;
static char driver_reg_cc[2] = {0, 0};
#endif
/*----------------------------------------------------------------------------
* Preprocessor Definitions and Constants
* -------------------------------------------------------------------------*/
#define VALIDITY_BITMAP_NV_ID NV_WLAN_VALIDITY_BITMAP_I
#define VALIDITY_BITMAP_SIZE 32
#define MAX_COUNTRY_COUNT 300
//To be removed when NV support is fully functional
#define VOS_HARD_CODED_MAC {0, 0x0a, 0xf5, 4, 5, 6}
#define DEFAULT_NV_VALIDITY_BITMAP 0xFFFFFFFF
#define MAGIC_NUMBER 0xCAFEBABE
/*----------------------------------------------------------------------------
* Type Declarations
* -------------------------------------------------------------------------*/
// this wrapper structure is identical to nv_cmd_type except the
// data_ptr type is changed void* to avoid exceeding the debug information
// module size as there are too many elements within nv_items_type union
// structure for code and regulatory domain of a single country
typedef struct
{
v_U8_t regDomain;
v_COUNTRYCODE_t countryCode;
} CountryInfo_t;
// structure of table to map country code and regulatory domain
typedef struct
{
v_U16_t countryCount;
CountryInfo_t countryInfo[MAX_COUNTRY_COUNT];
} CountryInfoTable_t;
/*----------------------------------------------------------------------------
* Global Data Definitions
* -------------------------------------------------------------------------*/
/*----------------------------------------------------------------------------
* Static Variable Definitions
* -------------------------------------------------------------------------*/
#ifdef CONFIG_ENABLE_LINUX_REG
static CountryInfoTable_t countryInfoTable =
{
/* the first entry in the table is always the world domain */
138,
{
{REGDOMAIN_WORLD, {'0', '0'}}, // WORLD DOMAIN
{REGDOMAIN_FCC, {'A', 'D'}}, // ANDORRA
{REGDOMAIN_ETSI, {'A', 'E'}}, //UAE
{REGDOMAIN_ETSI, {'A', 'L'}}, //ALBANIA
{REGDOMAIN_ETSI, {'A', 'M'}}, //ARMENIA
{REGDOMAIN_ETSI, {'A', 'N'}}, //NETHERLANDS ANTILLES
{REGDOMAIN_FCC, {'A', 'R'}}, //ARGENTINA
{REGDOMAIN_FCC, {'A', 'S'}}, //AMERICAN SOMOA
{REGDOMAIN_ETSI, {'A', 'T'}}, //AUSTRIA
{REGDOMAIN_FCC, {'A', 'U'}}, //AUSTRALIA
{REGDOMAIN_ETSI , {'A', 'W'}}, //ARUBA
{REGDOMAIN_ETSI, {'A', 'Z'}}, //AZERBAIJAN
{REGDOMAIN_ETSI, {'B', 'A'}}, //BOSNIA AND HERZEGOVINA
{REGDOMAIN_FCC, {'B', 'B'}}, //BARBADOS
{REGDOMAIN_ETSI, {'B', 'D'}}, //BANGLADESH
{REGDOMAIN_ETSI, { 'B', 'E'}}, //BELGIUM
{REGDOMAIN_ETSI, {'B', 'G'}}, //BULGARIA
{REGDOMAIN_ETSI, {'B', 'H'}}, //BAHRAIN
{REGDOMAIN_ETSI, {'B', 'L'}}, //
{REGDOMAIN_FCC, {'B', 'M'}}, //BERMUDA
{REGDOMAIN_ETSI, {'B', 'N'}}, //BRUNEI DARUSSALAM
{REGDOMAIN_ETSI, {'B', 'O'}}, //BOLIVIA
{REGDOMAIN_ETSI, {'B', 'R'}}, //BRAZIL
{REGDOMAIN_FCC, {'B', 'S'}}, //BAHAMAS
{REGDOMAIN_ETSI, {'B', 'Y'}}, //BELARUS
{REGDOMAIN_ETSI, {'B', 'Z'}}, //BELIZE
{REGDOMAIN_FCC, {'C', 'A'}}, //CANADA
{REGDOMAIN_ETSI, {'C', 'H'}}, //SWITZERLAND
{REGDOMAIN_ETSI, {'C', 'L'}}, //CHILE
{REGDOMAIN_FCC, {'C', 'N'}}, //CHINA
{REGDOMAIN_FCC, {'C', 'O'}}, //COLOMBIA
{REGDOMAIN_ETSI, {'C', 'R'}}, //COSTA RICA
{REGDOMAIN_ETSI, {'C', 'S'}},
{REGDOMAIN_ETSI, {'C', 'Y'}}, //CYPRUS
{REGDOMAIN_ETSI, {'C', 'Z'}}, //CZECH REPUBLIC
{REGDOMAIN_ETSI, {'D', 'E'}}, //GERMANY
{REGDOMAIN_ETSI, {'D', 'K'}}, //DENMARK
{REGDOMAIN_FCC, {'D', 'O'}}, //DOMINICAN REPUBLIC
{REGDOMAIN_ETSI, {'D', 'Z'}}, //ALGERIA
{REGDOMAIN_ETSI, {'E', 'C'}}, //ECUADOR
{REGDOMAIN_ETSI, {'E', 'E'}}, //ESTONIA
{REGDOMAIN_ETSI, {'E', 'G'}}, //EGYPT
{REGDOMAIN_ETSI, {'E', 'S'}}, //SPAIN
{REGDOMAIN_ETSI, {'F', 'I'}}, //FINLAND
{REGDOMAIN_ETSI, {'F', 'R'}}, //FRANCE
{REGDOMAIN_ETSI, {'G', 'B'}}, //UNITED KINGDOM
{REGDOMAIN_FCC, {'G', 'D'}}, //GRENADA
{REGDOMAIN_ETSI, {'G', 'E'}}, //GEORGIA
{REGDOMAIN_ETSI, {'G', 'F'}}, //FRENCH GUIANA
{REGDOMAIN_ETSI, {'G', 'L'}}, //GREENLAND
{REGDOMAIN_ETSI, {'G', 'P'}}, //GUADELOUPE
{REGDOMAIN_ETSI, {'G', 'R'}}, //GREECE
{REGDOMAIN_FCC, {'G', 'T'}}, //GUATEMALA
{REGDOMAIN_FCC, {'G', 'U'}}, //GUAM
{REGDOMAIN_ETSI, {'H', 'U'}}, //HUNGARY
{REGDOMAIN_FCC, {'I', 'D'}}, //INDONESIA
{REGDOMAIN_ETSI, {'I', 'E'}}, //IRELAND
{REGDOMAIN_ETSI, {'I', 'L'}}, //ISRAEL
{REGDOMAIN_ETSI, {'I', 'N'}}, //INDIA
{REGDOMAIN_ETSI, {'I', 'R'}}, //IRAN, ISLAMIC REPUBLIC OF
{REGDOMAIN_ETSI, {'I', 'S'}}, //ICELNAD
{REGDOMAIN_ETSI, {'I', 'T'}}, //ITALY
{REGDOMAIN_FCC, {'J', 'M'}}, //JAMAICA
{REGDOMAIN_JAPAN, {'J', 'P'}}, //JAPAN
{REGDOMAIN_ETSI, {'J', 'O'}}, //JORDAN
{REGDOMAIN_ETSI, {'K', 'E'}}, //KENYA
{REGDOMAIN_ETSI, {'K', 'H'}}, //CAMBODIA
{REGDOMAIN_ETSI, {'K', 'P'}}, //KOREA, DEMOCRATIC PEOPLE's REPUBLIC OF
{REGDOMAIN_ETSI, {'K', 'R'}}, //KOREA, REPUBLIC OF
{REGDOMAIN_ETSI, {'K', 'W'}}, //KUWAIT
{REGDOMAIN_ETSI, {'K', 'Z'}}, //KAZAKHSTAN
{REGDOMAIN_ETSI, {'L', 'B'}}, //LEBANON
{REGDOMAIN_ETSI, {'L', 'I'}}, //LIECHTENSTEIN
{REGDOMAIN_ETSI, {'L', 'K'}}, //SRI-LANKA
{REGDOMAIN_ETSI, {'L', 'T'}}, //LITHUANIA
{REGDOMAIN_ETSI, {'L', 'U'}}, //LUXEMBOURG
{REGDOMAIN_ETSI, {'L','V'}}, //LATVIA
{REGDOMAIN_ETSI, {'M', 'A'}}, //MOROCCO
{REGDOMAIN_ETSI, {'M', 'C'}}, //MONACO
{REGDOMAIN_ETSI, {'M', 'K'}}, //MACEDONIA, THE FORMER YUGOSLAV REPUBLIC OF
{REGDOMAIN_FCC, {'M','N'}}, //MONGOLIA
{REGDOMAIN_FCC, {'M', 'O'}}, //MACAO
{REGDOMAIN_FCC, {'M', 'P'}}, //NORTHERN MARIANA ISLANDS
{REGDOMAIN_ETSI, {'M', 'Q'}}, //MARTINIQUE
{REGDOMAIN_FCC, {'M', 'T'}}, //MALTA
{REGDOMAIN_ETSI, {'M', 'U'}}, //MAURITIUS
{REGDOMAIN_ETSI, {'M', 'W'}}, //MALAWI
{REGDOMAIN_FCC, {'M', 'X'}}, //MEXICO
{REGDOMAIN_ETSI, {'M', 'Y'}}, //MALAYSIA
{REGDOMAIN_ETSI, {'N', 'G'}}, //NIGERIA
{REGDOMAIN_FCC, {'N', 'I'}}, //NICARAGUA
{REGDOMAIN_ETSI, {'N', 'L'}}, //NETHERLANDS
{REGDOMAIN_ETSI, {'N', 'O'}}, //NORWAY
{REGDOMAIN_ETSI, {'N', 'P'}}, //NEPAL
{REGDOMAIN_FCC, {'N', 'Z'}}, //NEW-ZEALAND
{REGDOMAIN_FCC, {'O', 'M'}}, //OMAN
{REGDOMAIN_FCC, {'P', 'A'}}, //PANAMA
{REGDOMAIN_ETSI, {'P', 'E'}}, //PERU
{REGDOMAIN_ETSI, {'P', 'F'}}, //FRENCH POLYNESIA
{REGDOMAIN_ETSI, {'P', 'G'}}, //PAPUA NEW GUINEA
{REGDOMAIN_FCC, {'P', 'H'}}, //PHILIPPINES
{REGDOMAIN_ETSI, {'P', 'K'}}, //PAKISTAN
{REGDOMAIN_ETSI, {'P', 'L'}}, //POLAND
{REGDOMAIN_FCC, {'P', 'R'}}, //PUERTO RICO
{REGDOMAIN_FCC, {'P', 'S'}}, //PALESTINIAN TERRITORY, OCCUPIED
{REGDOMAIN_ETSI, {'P', 'T'}}, //PORTUGAL
{REGDOMAIN_FCC, {'P', 'Y'}}, //PARAGUAY
{REGDOMAIN_ETSI, {'Q', 'A'}}, //QATAR
{REGDOMAIN_ETSI, {'R', 'E'}}, //REUNION
{REGDOMAIN_ETSI, {'R', 'O'}}, //ROMAINIA
{REGDOMAIN_ETSI, {'R', 'S'}}, //SERBIA
{REGDOMAIN_ETSI, {'R', 'U'}}, //RUSSIA
{REGDOMAIN_FCC, {'R', 'W'}}, //RWANDA
{REGDOMAIN_ETSI, {'S', 'A'}}, //SAUDI ARABIA
{REGDOMAIN_ETSI, {'S', 'E'}}, //SWEDEN
{REGDOMAIN_ETSI, {'S', 'G'}}, //SINGAPORE
{REGDOMAIN_ETSI, {'S', 'I'}}, //SLOVENNIA
{REGDOMAIN_ETSI, {'S', 'K'}}, //SLOVAKIA
{REGDOMAIN_ETSI, {'S', 'V'}}, //EL SALVADOR
{REGDOMAIN_ETSI, {'S', 'Y'}}, //SYRIAN ARAB REPUBLIC
{REGDOMAIN_ETSI, {'T', 'H'}}, //THAILAND
{REGDOMAIN_ETSI, {'T', 'N'}}, //TUNISIA
{REGDOMAIN_ETSI, {'T', 'R'}}, //TURKEY
{REGDOMAIN_ETSI, {'T', 'T'}}, //TRINIDAD AND TOBAGO
{REGDOMAIN_FCC, {'T', 'W'}}, //TAIWAN, PRIVINCE OF CHINA
{REGDOMAIN_FCC, {'T', 'Z'}}, //TANZANIA, UNITED REPUBLIC OF
{REGDOMAIN_ETSI, {'U', 'A'}}, //UKRAINE
{REGDOMAIN_ETSI, {'U', 'G'}}, //UGANDA
{REGDOMAIN_FCC, {'U', 'S'}}, //USA
{REGDOMAIN_ETSI, {'U', 'Y'}}, //URUGUAY
{REGDOMAIN_FCC, {'U', 'Z'}}, //UZBEKISTAN
{REGDOMAIN_ETSI, {'V', 'E'}}, //VENEZUELA
{REGDOMAIN_FCC, {'V', 'I'}}, //VIRGIN ISLANDS, US
{REGDOMAIN_ETSI, {'V', 'N'}}, //VIETNAM
{REGDOMAIN_ETSI, {'Y', 'E'}}, //YEMEN
{REGDOMAIN_ETSI, {'Y', 'T'}}, //MAYOTTE
{REGDOMAIN_ETSI, {'Z', 'A'}}, //SOUTH AFRICA
{REGDOMAIN_ETSI, {'Z', 'W'}}, //ZIMBABWE
}
};
#else
// cache of country info table;
// this is re-initialized from data on binary file
// loaded on driver initialization if available
static CountryInfoTable_t countryInfoTable =
{
254,
{
{ REGDOMAIN_FCC, {'U', 'S'}}, //USA - must be the first country code
{ REGDOMAIN_ETSI, {'A', 'D'}}, //ANDORRA
{ REGDOMAIN_ETSI, {'A', 'E'}}, //UAE
{ REGDOMAIN_N_AMER_EXC_FCC, {'A', 'F'}}, //AFGHANISTAN
{ REGDOMAIN_WORLD, {'A', 'G'}}, //ANTIGUA AND BARBUDA
{ REGDOMAIN_FCC, {'A', 'I'}}, //ANGUILLA
{ REGDOMAIN_ETSI, {'A', 'L'}}, //ALBANIA
{ REGDOMAIN_N_AMER_EXC_FCC, {'A', 'M'}}, //ARMENIA
{ REGDOMAIN_ETSI, {'A', 'N'}}, //NETHERLANDS ANTILLES
{ REGDOMAIN_NO_5GHZ, {'A', 'O'}}, //ANGOLA
{ REGDOMAIN_WORLD, {'A', 'Q'}}, //ANTARCTICA
{ REGDOMAIN_WORLD, {'A', 'R'}}, //ARGENTINA
{ REGDOMAIN_FCC, {'A', 'S'}}, //AMERICAN SOMOA
{ REGDOMAIN_ETSI, {'A', 'T'}}, //AUSTRIA
{ REGDOMAIN_WORLD, {'A', 'U'}}, //AUSTRALIA
{ REGDOMAIN_ETSI, {'A', 'W'}}, //ARUBA
{ REGDOMAIN_WORLD, {'A', 'X'}}, //ALAND ISLANDS
{ REGDOMAIN_N_AMER_EXC_FCC, {'A', 'Z'}}, //AZERBAIJAN
{ REGDOMAIN_ETSI, {'B', 'A'}}, //BOSNIA AND HERZEGOVINA
{ REGDOMAIN_APAC, {'B', 'B'}}, //BARBADOS
{ REGDOMAIN_HI_5GHZ, {'B', 'D'}}, //BANGLADESH
{ REGDOMAIN_ETSI, {'B', 'E'}}, //BELGIUM
{ REGDOMAIN_HI_5GHZ, {'B', 'F'}}, //BURKINA FASO
{ REGDOMAIN_ETSI, {'B', 'G'}}, //BULGARIA
{ REGDOMAIN_APAC, {'B', 'H'}}, //BAHRAIN
{ REGDOMAIN_NO_5GHZ, {'B', 'I'}}, //BURUNDI
{ REGDOMAIN_NO_5GHZ, {'B', 'J'}}, //BENIN
{ REGDOMAIN_FCC, {'B', 'M'}}, //BERMUDA
{ REGDOMAIN_APAC, {'B', 'N'}}, //BRUNEI DARUSSALAM
{ REGDOMAIN_HI_5GHZ, {'B', 'O'}}, //BOLIVIA
{ REGDOMAIN_WORLD, {'B', 'R'}}, //BRAZIL
{ REGDOMAIN_APAC, {'B', 'S'}}, //BAHAMAS
{ REGDOMAIN_NO_5GHZ, {'B', 'T'}}, //BHUTAN
{ REGDOMAIN_WORLD, {'B', 'V'}}, //BOUVET ISLAND
{ REGDOMAIN_ETSI, {'B', 'W'}}, //BOTSWANA
{ REGDOMAIN_ETSI, {'B', 'Y'}}, //BELARUS
{ REGDOMAIN_HI_5GHZ, {'B', 'Z'}}, //BELIZE
{ REGDOMAIN_FCC, {'C', 'A'}}, //CANADA
{ REGDOMAIN_WORLD, {'C', 'C'}}, //COCOS (KEELING) ISLANDS
{ REGDOMAIN_NO_5GHZ, {'C', 'D'}}, //CONGO, THE DEMOCRATIC REPUBLIC OF THE
{ REGDOMAIN_NO_5GHZ, {'C', 'F'}}, //CENTRAL AFRICAN REPUBLIC
{ REGDOMAIN_NO_5GHZ, {'C', 'G'}}, //CONGO
{ REGDOMAIN_ETSI, {'C', 'H'}}, //SWITZERLAND
{ REGDOMAIN_NO_5GHZ, {'C', 'I'}}, //COTE D'IVOIRE
{ REGDOMAIN_WORLD, {'C', 'K'}}, //COOK ISLANDS
{ REGDOMAIN_APAC, {'C', 'L'}}, //CHILE
{ REGDOMAIN_NO_5GHZ, {'C', 'M'}}, //CAMEROON
{ REGDOMAIN_APAC, {'C', 'N'}}, //CHINA
{ REGDOMAIN_APAC, {'C', 'O'}}, //COLOMBIA
{ REGDOMAIN_APAC, {'C', 'R'}}, //COSTA RICA
{ REGDOMAIN_NO_5GHZ, {'C', 'U'}}, //CUBA
{ REGDOMAIN_ETSI, {'C', 'V'}}, //CAPE VERDE
{ REGDOMAIN_WORLD, {'C', 'X'}}, //CHRISTMAS ISLAND
{ REGDOMAIN_ETSI, {'C', 'Y'}}, //CYPRUS
{ REGDOMAIN_ETSI, {'C', 'Z'}}, //CZECH REPUBLIC
{ REGDOMAIN_ETSI, {'D', 'E'}}, //GERMANY
{ REGDOMAIN_NO_5GHZ, {'D', 'J'}}, //DJIBOUTI
{ REGDOMAIN_ETSI, {'D', 'K'}}, //DENMARK
{ REGDOMAIN_WORLD, {'D', 'M'}}, //DOMINICA
{ REGDOMAIN_APAC, {'D', 'O'}}, //DOMINICAN REPUBLIC
{ REGDOMAIN_ETSI, {'D', 'Z'}}, //ALGERIA
{ REGDOMAIN_APAC, {'E', 'C'}}, //ECUADOR
{ REGDOMAIN_ETSI, {'E', 'E'}}, //ESTONIA
{ REGDOMAIN_N_AMER_EXC_FCC, {'E', 'G'}}, //EGYPT
{ REGDOMAIN_WORLD, {'E', 'H'}}, //WESTERN SAHARA
{ REGDOMAIN_NO_5GHZ, {'E', 'R'}}, //ERITREA
{ REGDOMAIN_ETSI, {'E', 'S'}}, //SPAIN
{ REGDOMAIN_ETSI, {'E', 'T'}}, //ETHIOPIA
{ REGDOMAIN_ETSI, {'E', 'U'}}, //Europe (SSGFI)
{ REGDOMAIN_ETSI, {'F', 'I'}}, //FINLAND
{ REGDOMAIN_NO_5GHZ, {'F', 'J'}}, //FIJI
{ REGDOMAIN_WORLD, {'F', 'K'}}, //FALKLAND ISLANDS (MALVINAS)
{ REGDOMAIN_WORLD, {'F', 'M'}}, //MICRONESIA, FEDERATED STATES OF
{ REGDOMAIN_WORLD, {'F', 'O'}}, //FAROE ISLANDS
{ REGDOMAIN_ETSI, {'F', 'R'}}, //FRANCE
{ REGDOMAIN_NO_5GHZ, {'G', 'A'}}, //GABON
{ REGDOMAIN_ETSI, {'G', 'B'}}, //UNITED KINGDOM
{ REGDOMAIN_WORLD, {'G', 'D'}}, //GRENADA
{ REGDOMAIN_ETSI, {'G', 'E'}}, //GEORGIA
{ REGDOMAIN_ETSI, {'G', 'F'}}, //FRENCH GUIANA
{ REGDOMAIN_WORLD, {'G', 'G'}}, //GUERNSEY
{ REGDOMAIN_WORLD, {'G', 'H'}}, //GHANA
{ REGDOMAIN_WORLD, {'G', 'I'}}, //GIBRALTAR
{ REGDOMAIN_ETSI, {'G', 'L'}}, //GREENLAND
{ REGDOMAIN_NO_5GHZ, {'G', 'M'}}, //GAMBIA
{ REGDOMAIN_NO_5GHZ, {'G', 'N'}}, //GUINEA
{ REGDOMAIN_ETSI, {'G', 'P'}}, //GUADELOUPE
{ REGDOMAIN_NO_5GHZ, {'G', 'Q'}}, //EQUATORIAL GUINEA
{ REGDOMAIN_ETSI, {'G', 'R'}}, //GREECE
{ REGDOMAIN_WORLD, {'G', 'S'}}, //SOUTH GEORGIA AND THE SOUTH SANDWICH ISLANDS
{ REGDOMAIN_APAC, {'G', 'T'}}, //GUATEMALA
{ REGDOMAIN_FCC, {'G', 'U'}}, //GUAM
{ REGDOMAIN_NO_5GHZ, {'G', 'W'}}, //GUINEA-BISSAU
{ REGDOMAIN_HI_5GHZ, {'G', 'Y'}}, //GUYANA
{ REGDOMAIN_WORLD, {'H', 'K'}}, //HONGKONG
{ REGDOMAIN_WORLD, {'H', 'M'}}, //HEARD ISLAND AND MCDONALD ISLANDS
{ REGDOMAIN_WORLD, {'H', 'N'}}, //HONDURAS
{ REGDOMAIN_ETSI, {'H', 'R'}}, //CROATIA
{ REGDOMAIN_ETSI, {'H', 'T'}}, //HAITI
{ REGDOMAIN_ETSI, {'H', 'U'}}, //HUNGARY
{ REGDOMAIN_HI_5GHZ, {'I', 'D'}}, //INDONESIA
{ REGDOMAIN_ETSI, {'I', 'E'}}, //IRELAND
{ REGDOMAIN_N_AMER_EXC_FCC, {'I', 'L'}}, //ISRAEL
{ REGDOMAIN_WORLD, {'I', 'M'}}, //ISLE OF MAN
{ REGDOMAIN_APAC, {'I', 'N'}}, //INDIA
{ REGDOMAIN_WORLD, {'I', 'O'}}, //BRITISH INDIAN OCEAN TERRITORY
{ REGDOMAIN_NO_5GHZ, {'I', 'Q'}}, //IRAQ
{ REGDOMAIN_HI_5GHZ, {'I', 'R'}}, //IRAN, ISLAMIC REPUBLIC OF
{ REGDOMAIN_ETSI, {'I', 'S'}}, //ICELAND
{ REGDOMAIN_ETSI, {'I', 'T'}}, //ITALY
{ REGDOMAIN_JAPAN, {'J', '1'}}, //Japan alternate 1
{ REGDOMAIN_JAPAN, {'J', '2'}}, //Japan alternate 2
{ REGDOMAIN_JAPAN, {'J', '3'}}, //Japan alternate 3
{ REGDOMAIN_JAPAN, {'J', '4'}}, //Japan alternate 4
{ REGDOMAIN_JAPAN, {'J', '5'}}, //Japan alternate 5
{ REGDOMAIN_WORLD, {'J', 'E'}}, //JERSEY
{ REGDOMAIN_WORLD, {'J', 'M'}}, //JAMAICA
{ REGDOMAIN_APAC, {'J', 'O'}}, //JORDAN
{ REGDOMAIN_JAPAN, {'J', 'P'}}, //JAPAN
{ REGDOMAIN_KOREA, {'K', '1'}}, //Korea alternate 1
{ REGDOMAIN_KOREA, {'K', '2'}}, //Korea alternate 2
{ REGDOMAIN_KOREA, {'K', '3'}}, //Korea alternate 3
{ REGDOMAIN_KOREA, {'K', '4'}}, //Korea alternate 4
{ REGDOMAIN_APAC, {'K', 'E'}}, //KENYA
{ REGDOMAIN_NO_5GHZ, {'K', 'G'}}, //KYRGYZSTAN
{ REGDOMAIN_ETSI, {'K', 'H'}}, //CAMBODIA
{ REGDOMAIN_WORLD, {'K', 'I'}}, //KIRIBATI
{ REGDOMAIN_NO_5GHZ, {'K', 'M'}}, //COMOROS
{ REGDOMAIN_WORLD, {'K', 'N'}}, //SAINT KITTS AND NEVIS
{ REGDOMAIN_WORLD, {'K', 'P'}}, //KOREA, DEMOCRATIC PEOPLE'S REPUBLIC OF
{ REGDOMAIN_KOREA, {'K', 'R'}}, //KOREA, REPUBLIC OF
{ REGDOMAIN_N_AMER_EXC_FCC, {'K', 'W'}}, //KUWAIT
{ REGDOMAIN_FCC, {'K', 'Y'}}, //CAYMAN ISLANDS
{ REGDOMAIN_WORLD, {'K', 'Z'}}, //KAZAKHSTAN
{ REGDOMAIN_WORLD, {'L', 'A'}}, //LAO PEOPLE'S DEMOCRATIC REPUBLIC
{ REGDOMAIN_WORLD, {'L', 'B'}}, //LEBANON
{ REGDOMAIN_WORLD, {'L', 'C'}}, //SAINT LUCIA
{ REGDOMAIN_ETSI, {'L', 'I'}}, //LIECHTENSTEIN
{ REGDOMAIN_WORLD, {'L', 'K'}}, //SRI LANKA
{ REGDOMAIN_WORLD, {'L', 'R'}}, //LIBERIA
{ REGDOMAIN_ETSI, {'L', 'S'}}, //LESOTHO
{ REGDOMAIN_ETSI, {'L', 'T'}}, //LITHUANIA
{ REGDOMAIN_ETSI, {'L', 'U'}}, //LUXEMBOURG
{ REGDOMAIN_ETSI, {'L', 'V'}}, //LATVIA
{ REGDOMAIN_NO_5GHZ, {'L', 'Y'}}, //LIBYAN ARAB JAMAHIRIYA
{ REGDOMAIN_APAC, {'M', 'A'}}, //MOROCCO
{ REGDOMAIN_ETSI, {'M', 'C'}}, //MONACO
{ REGDOMAIN_ETSI, {'M', 'D'}}, //MOLDOVA, REPUBLIC OF
{ REGDOMAIN_ETSI, {'M', 'E'}}, //MONTENEGRO
{ REGDOMAIN_NO_5GHZ, {'M', 'G'}}, //MADAGASCAR
{ REGDOMAIN_WORLD, {'M', 'H'}}, //MARSHALL ISLANDS
{ REGDOMAIN_ETSI, {'M', 'K'}}, //MACEDONIA, THE FORMER YUGOSLAV REPUBLIC OF
{ REGDOMAIN_NO_5GHZ, {'M', 'L'}}, //MALI
{ REGDOMAIN_WORLD, {'M', 'M'}}, //MYANMAR
{ REGDOMAIN_WORLD, {'M', 'N'}}, //MONGOLIA
{ REGDOMAIN_APAC, {'M', 'O'}}, //MACAO
{ REGDOMAIN_FCC, {'M', 'P'}}, //NORTHERN MARIANA ISLANDS
{ REGDOMAIN_ETSI, {'M', 'Q'}}, //MARTINIQUE
{ REGDOMAIN_ETSI, {'M', 'R'}}, //MAURITANIA
{ REGDOMAIN_ETSI, {'M', 'S'}}, //MONTSERRAT
{ REGDOMAIN_ETSI, {'M', 'T'}}, //MALTA
{ REGDOMAIN_ETSI, {'M', 'U'}}, //MAURITIUS
{ REGDOMAIN_APAC, {'M', 'V'}}, //MALDIVES
{ REGDOMAIN_HI_5GHZ, {'M', 'W'}}, //MALAWI
{ REGDOMAIN_APAC, {'M', 'X'}}, //MEXICO
{ REGDOMAIN_APAC, {'M', 'Y'}}, //MALAYSIA
{ REGDOMAIN_WORLD, {'M', 'Z'}}, //MOZAMBIQUE
{ REGDOMAIN_WORLD, {'N', 'A'}}, //NAMIBIA
{ REGDOMAIN_NO_5GHZ, {'N', 'C'}}, //NEW CALEDONIA
{ REGDOMAIN_WORLD, {'N', 'E'}}, //NIGER
{ REGDOMAIN_WORLD, {'N', 'F'}}, //NORFOLD ISLAND
{ REGDOMAIN_WORLD, {'N', 'G'}}, //NIGERIA
{ REGDOMAIN_WORLD, {'N', 'I'}}, //NICARAGUA
{ REGDOMAIN_ETSI, {'N', 'L'}}, //NETHERLANDS
{ REGDOMAIN_ETSI, {'N', 'O'}}, //NORWAY
{ REGDOMAIN_APAC, {'N', 'P'}}, //NEPAL
{ REGDOMAIN_NO_5GHZ, {'N', 'R'}}, //NAURU
{ REGDOMAIN_WORLD, {'N', 'U'}}, //NIUE
{ REGDOMAIN_APAC, {'N', 'Z'}}, //NEW ZEALAND
{ REGDOMAIN_ETSI, {'O', 'M'}}, //OMAN
{ REGDOMAIN_APAC, {'P', 'A'}}, //PANAMA
{ REGDOMAIN_WORLD, {'P', 'E'}}, //PERU
{ REGDOMAIN_ETSI, {'P', 'F'}}, //FRENCH POLYNESIA
{ REGDOMAIN_WORLD, {'P', 'G'}}, //PAPUA NEW GUINEA
{ REGDOMAIN_WORLD, {'P', 'H'}}, //PHILIPPINES
{ REGDOMAIN_HI_5GHZ, {'P', 'K'}}, //PAKISTAN
{ REGDOMAIN_ETSI, {'P', 'L'}}, //POLAND
{ REGDOMAIN_WORLD, {'P', 'M'}}, //SAINT PIERRE AND MIQUELON
{ REGDOMAIN_WORLD, {'P', 'N'}}, //WORLDPITCAIRN
{ REGDOMAIN_FCC, {'P', 'R'}}, //PUERTO RICO
{ REGDOMAIN_WORLD, {'P', 'S'}}, //PALESTINIAN TERRITORY, OCCUPIED
{ REGDOMAIN_ETSI, {'P', 'T'}}, //PORTUGAL
{ REGDOMAIN_WORLD, {'P', 'W'}}, //PALAU
{ REGDOMAIN_WORLD, {'P', 'Y'}}, //PARAGUAY
{ REGDOMAIN_HI_5GHZ, {'Q', 'A'}}, //QATAR
{ REGDOMAIN_ETSI, {'R', 'E'}}, //REUNION
{ REGDOMAIN_ETSI, {'R', 'O'}}, //ROMANIA
{ REGDOMAIN_ETSI, {'R', 'S'}}, //SERBIA
{ REGDOMAIN_APAC, {'R', 'U'}}, //RUSSIA
{ REGDOMAIN_WORLD, {'R', 'W'}}, //RWANDA
{ REGDOMAIN_WORLD, {'S', 'A'}}, //SAUDI ARABIA
{ REGDOMAIN_NO_5GHZ, {'S', 'B'}}, //SOLOMON ISLANDS
{ REGDOMAIN_NO_5GHZ, {'S', 'C'}}, //SEYCHELLES
{ REGDOMAIN_WORLD, {'S', 'D'}}, //SUDAN
{ REGDOMAIN_ETSI, {'S', 'E'}}, //SWEDEN
{ REGDOMAIN_APAC, {'S', 'G'}}, //SINGAPORE
{ REGDOMAIN_WORLD, {'S', 'H'}}, //SAINT HELENA
{ REGDOMAIN_ETSI, {'S', 'I'}}, //SLOVENNIA
{ REGDOMAIN_WORLD, {'S', 'J'}}, //SVALBARD AND JAN MAYEN
{ REGDOMAIN_ETSI, {'S', 'K'}}, //SLOVAKIA
{ REGDOMAIN_WORLD, {'S', 'L'}}, //SIERRA LEONE
{ REGDOMAIN_ETSI, {'S', 'M'}}, //SAN MARINO
{ REGDOMAIN_ETSI, {'S', 'N'}}, //SENEGAL
{ REGDOMAIN_NO_5GHZ, {'S', 'O'}}, //SOMALIA
{ REGDOMAIN_NO_5GHZ, {'S', 'R'}}, //SURINAME
{ REGDOMAIN_WORLD, {'S', 'T'}}, //SAO TOME AND PRINCIPE
{ REGDOMAIN_APAC, {'S', 'V'}}, //EL SALVADOR
{ REGDOMAIN_NO_5GHZ, {'S', 'Y'}}, //SYRIAN ARAB REPUBLIC
{ REGDOMAIN_NO_5GHZ, {'S', 'Z'}}, //SWAZILAND
{ REGDOMAIN_ETSI, {'T', 'C'}}, //TURKS AND CAICOS ISLANDS
{ REGDOMAIN_NO_5GHZ, {'T', 'D'}}, //CHAD
{ REGDOMAIN_ETSI, {'T', 'F'}}, //FRENCH SOUTHERN TERRITORIES
{ REGDOMAIN_NO_5GHZ, {'T', 'G'}}, //TOGO
{ REGDOMAIN_WORLD, {'T', 'H'}}, //THAILAND
{ REGDOMAIN_NO_5GHZ, {'T', 'J'}}, //TAJIKISTAN
{ REGDOMAIN_WORLD, {'T', 'K'}}, //TOKELAU
{ REGDOMAIN_WORLD, {'T', 'L'}}, //TIMOR-LESTE
{ REGDOMAIN_NO_5GHZ, {'T', 'M'}}, //TURKMENISTAN
{ REGDOMAIN_N_AMER_EXC_FCC, {'T', 'N'}}, //TUNISIA
{ REGDOMAIN_NO_5GHZ, {'T', 'O'}}, //TONGA
{ REGDOMAIN_ETSI, {'T', 'R'}}, //TURKEY
{ REGDOMAIN_WORLD, {'T', 'T'}}, //TRINIDAD AND TOBAGO
{ REGDOMAIN_NO_5GHZ, {'T', 'V'}}, //TUVALU
{ REGDOMAIN_FCC, {'T', 'W'}}, //TAIWAN, PROVINCE OF CHINA
{ REGDOMAIN_HI_5GHZ, {'T', 'Z'}}, //TANZANIA, UNITED REPUBLIC OF
{ REGDOMAIN_WORLD, {'U', 'A'}}, //UKRAINE
{ REGDOMAIN_KOREA, {'U', 'G'}}, //UGANDA
{ REGDOMAIN_FCC, {'U', 'M'}}, //UNITED STATES MINOR OUTLYING ISLANDS
{ REGDOMAIN_WORLD, {'U', 'Y'}}, //URUGUAY
{ REGDOMAIN_FCC, {'U', 'Z'}}, //UZBEKISTAN
{ REGDOMAIN_ETSI, {'V', 'A'}}, //HOLY SEE (VATICAN CITY STATE)
{ REGDOMAIN_WORLD, {'V', 'C'}}, //SAINT VINCENT AND THE GRENADINES
{ REGDOMAIN_HI_5GHZ, {'V', 'E'}}, //VENEZUELA
{ REGDOMAIN_ETSI, {'V', 'G'}}, //VIRGIN ISLANDS, BRITISH
{ REGDOMAIN_FCC, {'V', 'I'}}, //VIRGIN ISLANDS, US
{ REGDOMAIN_FCC, {'V', 'N'}}, //VIET NAM
{ REGDOMAIN_NO_5GHZ, {'V', 'U'}}, //VANUATU
{ REGDOMAIN_WORLD, {'W', 'F'}}, //WALLIS AND FUTUNA
{ REGDOMAIN_N_AMER_EXC_FCC, {'W', 'S'}}, //SOMOA
{ REGDOMAIN_NO_5GHZ, {'Y', 'E'}}, //YEMEN
{ REGDOMAIN_ETSI, {'Y', 'T'}}, //MAYOTTE
{ REGDOMAIN_WORLD, {'Z', 'A'}}, //SOUTH AFRICA
{ REGDOMAIN_APAC, {'Z', 'M'}}, //ZAMBIA
{ REGDOMAIN_ETSI, {'Z', 'W'}}, //ZIMBABWE
}
};
#endif
typedef struct nvEFSTable_s
{
v_U32_t nvValidityBitmap;
sHalNv halnv;
} nvEFSTable_t;
nvEFSTable_t *gnvEFSTable;
/* EFS Table to send the NV structure to HAL*/
static nvEFSTable_t *pnvEFSTable;
static v_U8_t *pnvEncodedBuf;
static v_U8_t *pDictFile;
static v_U8_t *pEncodedBuf;
static v_SIZE_t nvReadEncodeBufSize;
static v_SIZE_t nDictionarySize;
static v_U32_t magicNumber;
const tRfChannelProps rfChannels[NUM_RF_CHANNELS] =
{
//RF_SUBBAND_2_4_GHZ
//freq, chan#, band
{ 2412, 1 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_1,
{ 2417, 2 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_2,
{ 2422, 3 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_3,
{ 2427, 4 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_4,
{ 2432, 5 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_5,
{ 2437, 6 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_6,
{ 2442, 7 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_7,
{ 2447, 8 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_8,
{ 2452, 9 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_9,
{ 2457, 10 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_10,
{ 2462, 11 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_11,
{ 2467, 12 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_12,
{ 2472, 13 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_13,
{ 2484, 14 , RF_SUBBAND_2_4_GHZ}, //RF_CHAN_14,
{ 4920, 240, RF_SUBBAND_4_9_GHZ}, //RF_CHAN_240,
{ 4940, 244, RF_SUBBAND_4_9_GHZ}, //RF_CHAN_244,
{ 4960, 248, RF_SUBBAND_4_9_GHZ}, //RF_CHAN_248,
{ 4980, 252, RF_SUBBAND_4_9_GHZ}, //RF_CHAN_252,
{ 5040, 208, RF_SUBBAND_4_9_GHZ}, //RF_CHAN_208,
{ 5060, 212, RF_SUBBAND_4_9_GHZ}, //RF_CHAN_212,
{ 5080, 216, RF_SUBBAND_4_9_GHZ}, //RF_CHAN_216,
{ 5180, 36 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_36,
{ 5200, 40 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_40,
{ 5220, 44 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_44,
{ 5240, 48 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_48,
{ 5260, 52 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_52,
{ 5280, 56 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_56,
{ 5300, 60 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_60,
{ 5320, 64 , RF_SUBBAND_5_LOW_GHZ}, //RF_CHAN_64,
{ 5500, 100, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_100,
{ 5520, 104, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_104,
{ 5540, 108, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_108,
{ 5560, 112, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_112,
{ 5580, 116, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_116,
{ 5600, 120, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_120,
{ 5620, 124, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_124,
{ 5640, 128, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_128,
{ 5660, 132, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_132,
{ 5680, 136, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_136,
{ 5700, 140, RF_SUBBAND_5_MID_GHZ}, //RF_CHAN_140,
{ 5745, 149, RF_SUBBAND_5_HIGH_GHZ}, //RF_CHAN_149,
{ 5765, 153, RF_SUBBAND_5_HIGH_GHZ}, //RF_CHAN_153,
{ 5785, 157, RF_SUBBAND_5_HIGH_GHZ}, //RF_CHAN_157,
{ 5805, 161, RF_SUBBAND_5_HIGH_GHZ}, //RF_CHAN_161,
{ 5825, 165, RF_SUBBAND_5_HIGH_GHZ}, //RF_CHAN_165,
{ 2422, 3 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_3,
{ 2427, 4 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_4,
{ 2432, 5 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_5,
{ 2437, 6 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_6,
{ 2442, 7 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_7,
{ 2447, 8 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_8,
{ 2452, 9 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_9,
{ 2457, 10 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_10,
{ 2462, 11 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_11,
{ 4930, 242, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_242,
{ 4950, 246, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_246,
{ 4970, 250, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_250,
{ 5050, 210, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_210,
{ 5070, 214, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_214,
{ 5190, 38 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_38,
{ 5210, 42 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_42,
{ 5230, 46 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_46,
{ 5250, 50 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_50,
{ 5270, 54 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_54,
{ 5290, 58 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_58,
{ 5310, 62 , NUM_RF_SUBBANDS}, //RF_CHAN_BOND_62,
{ 5510, 102, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_102,
{ 5530, 106, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_106,
{ 5550, 110, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_110,
{ 5570, 114, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_114,
{ 5590, 118, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_118,
{ 5610, 122, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_122,
{ 5630, 126, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_126,
{ 5650, 130, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_130,
{ 5670, 134, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_134,
{ 5690, 138, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_138,
{ 5755, 151, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_151,
{ 5775, 155, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_155,
{ 5795, 159, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_159,
{ 5815, 163, NUM_RF_SUBBANDS}, //RF_CHAN_BOND_163,
};
extern const sHalNv nvDefaults;
const sRegulatoryChannel * regChannels = nvDefaults.tables.regDomains[0].channels;
/*----------------------------------------------------------------------------
Function Definitions and Documentation
* -------------------------------------------------------------------------*/
VOS_STATUS wlan_write_to_efs (v_U8_t *pData, v_U16_t data_len);
/**------------------------------------------------------------------------
\brief vos_nv_init() - initialize the NV module
The \a vos_nv_init() initializes the NV module. This read the binary
file for country code and regulatory domain information.
\return VOS_STATUS_SUCCESS - module is initialized successfully
otherwise - module is not initialized
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_init(void)
{
return VOS_STATUS_SUCCESS;
}
/**------------------------------------------------------------------------
\brief vos_nv_get_dictionary_data() - get the dictionary data required for
\ tools
\return VOS_STATUS_SUCCESS - dictionary data is read successfully
otherwise - not successful
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_get_dictionary_data(void)
{
VOS_STATUS vosStatus = VOS_STATUS_E_FAILURE;
if (MAGIC_NUMBER != magicNumber)
{
return VOS_STATUS_SUCCESS;
}
nDictionarySize = 0;
vosStatus = vos_get_binary_blob( VOS_BINARY_ID_DICT_CONFIG, NULL,
&nDictionarySize );
if (VOS_STATUS_E_NOMEM != vosStatus)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"Error obtaining binary size" );
/// NOTE:
/// We can still work without a dictionary file..
return VOS_STATUS_SUCCESS;
}
// malloc a buffer to read in the Configuration binary file.
pDictFile = vos_mem_malloc( nDictionarySize );
if (NULL == pDictFile)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"Unable to allocate memory for the CFG binary [size= %d bytes]",
nDictionarySize );
vosStatus = VOS_STATUS_E_NOMEM;
goto fail;
}
/* Get the entire CFG file image... */
vosStatus = vos_get_binary_blob( VOS_BINARY_ID_DICT_CONFIG, pDictFile,
&nDictionarySize );
if (!VOS_IS_STATUS_SUCCESS( vosStatus ))
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"Error: Cannot retrieve CFG file image from vOSS. [size= %d bytes]",
nDictionarySize );
return VOS_STATUS_SUCCESS;
}
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO_HIGH,
"Dict file image from vOSS. [size= %d bytes]", nDictionarySize );
fail:
return vosStatus;
}
VOS_STATUS vos_nv_open(void)
{
VOS_STATUS status = VOS_STATUS_SUCCESS;
v_CONTEXT_t pVosContext= NULL;
v_SIZE_t bufSize;
v_SIZE_t nvReadBufSize;
v_BOOL_t itemIsValid = VOS_FALSE;
v_U32_t dataOffset;
sHalNv *pnvData = NULL;
/*Get the global context */
pVosContext = vos_get_global_context(VOS_MODULE_ID_SYS, NULL);
if (NULL == pVosContext)
{
return (eHAL_STATUS_FAILURE);
}
bufSize = sizeof(nvEFSTable_t);
status = hdd_request_firmware(WLAN_NV_FILE,
((VosContextType*)(pVosContext))->pHDDContext,
(v_VOID_t**)&pnvEncodedBuf, &nvReadBufSize);
if ((!VOS_IS_STATUS_SUCCESS( status )) || (!pnvEncodedBuf))
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_FATAL,
"%s: unable to download NV file %s",
__func__, WLAN_NV_FILE);
return VOS_STATUS_E_RESOURCES;
}
memcpy(&magicNumber, &pnvEncodedBuf[sizeof(v_U32_t)], sizeof(v_U32_t));
/// Allocate buffer with maximum length..
pEncodedBuf = (v_U8_t *)vos_mem_malloc(nvReadBufSize);
if (NULL == pEncodedBuf)
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"%s : failed to allocate memory for NV", __func__);
return VOS_STATUS_E_NOMEM;
}
gnvEFSTable = (nvEFSTable_t*)pnvEncodedBuf;
if (MAGIC_NUMBER == magicNumber)
{
pnvData = (sHalNv *)vos_mem_malloc(sizeof(sHalNv));
if (NULL == pnvData)
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"%s : failed to allocate memory for NV", __func__);
return VOS_STATUS_E_NOMEM;
}
memset(pnvData, 0, sizeof(sHalNv));
/// Data starts from offset of validity bit map + magic number..
dataOffset = sizeof(v_U32_t) + sizeof(v_U32_t);
status = nvParser(&pnvEncodedBuf[dataOffset],
(nvReadBufSize-dataOffset), pnvData);
///ignore validity bit map
nvReadEncodeBufSize = nvReadBufSize - sizeof(v_U32_t);
vos_mem_copy(pEncodedBuf, &pnvEncodedBuf[sizeof(v_U32_t)],
nvReadEncodeBufSize);
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"readEncodeBufSize %d",nvReadEncodeBufSize);
if (VOS_STATUS_SUCCESS == status) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"Embedded NV parsed success !!productId %d couple Type %d wlan RevId %d",
pnvData->fields.productId,
pnvData->fields.couplerType,
pnvData->fields.wlanNvRevId);
vos_mem_copy(&gnvEFSTable->halnv, pnvData, sizeof(sHalNv));
nvReadBufSize = sizeof(sHalNv) + sizeof(v_U32_t);
}
else
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"nvParser failed %d",status);
nvReadBufSize = 0;
vos_mem_copy(pEncodedBuf, &nvDefaults, sizeof(sHalNv));
nvReadEncodeBufSize = sizeof(sHalNv);
}
}
else
{
dataOffset = sizeof(v_U32_t);
nvReadEncodeBufSize = sizeof(sHalNv);
memcpy(pEncodedBuf, &pnvEncodedBuf[dataOffset], nvReadEncodeBufSize);
}
if (NULL != pnvData)
{
vos_mem_free(pnvData);
}
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"INFO: NV binary file version=%d Driver default NV version=%d, continue...\n",
gnvEFSTable->halnv.fields.nvVersion, WLAN_NV_VERSION);
/* Copying the read nv data to the globa NV EFS table */
{
/* Allocate memory to global NV table */
pnvEFSTable = (nvEFSTable_t *)vos_mem_malloc(sizeof(nvEFSTable_t));
if ( NULL == pnvEFSTable )
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"%s : failed to allocate memory for NV", __func__);
return VOS_STATUS_E_NOMEM;
}
/*Copying the NV defaults */
vos_mem_copy(&(pnvEFSTable->halnv), &nvDefaults, sizeof(sHalNv));
/* Size mismatch */
if ( nvReadBufSize != bufSize)
{
pnvEFSTable->nvValidityBitmap = DEFAULT_NV_VALIDITY_BITMAP;
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_FATAL,
"!!!WARNING: INVALID NV FILE, DRIVER IS USING DEFAULT CAL VALUES %d %d!!!",
nvReadBufSize, bufSize);
return VOS_STATUS_SUCCESS;
}
/* Version mismatch */
if (gnvEFSTable->halnv.fields.nvVersion != WLAN_NV_VERSION)
{
if ((WLAN_NV_VERSION == NV_VERSION_11N_11AC_FW_CONFIG) &&
(gnvEFSTable->halnv.fields.nvVersion == NV_VERSION_11N_11AC_COUPER_TYPE))
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"!!!WARNING: Using Coupler Type field instead of Fw Config table,\n"
"Make sure that this is intented or may impact performance!!!\n");
}
else
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"!!!WARNING: NV binary file version doesn't match with Driver default NV version\n"
"Driver NV defaults will be used, may impact performance!!!\n");
return VOS_STATUS_SUCCESS;
}
}
pnvEFSTable->nvValidityBitmap = gnvEFSTable->nvValidityBitmap;
/* Copy the valid fields to the NV Global structure */
if (vos_nv_getValidity(VNV_FIELD_IMAGE, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE) {
if(vos_nv_read( VNV_FIELD_IMAGE, (v_VOID_t *)&pnvEFSTable->halnv.fields,
NULL, sizeof(sNvFields) ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_RATE_TO_POWER_TABLE, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_RATE_TO_POWER_TABLE,
(v_VOID_t *)&pnvEFSTable->halnv.tables.pwrOptimum[0],
NULL, sizeof(tRateGroupPwr) * NUM_RF_SUBBANDS ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_REGULARTORY_DOMAIN_TABLE, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_REGULARTORY_DOMAIN_TABLE,
(v_VOID_t *)&pnvEFSTable->halnv.tables.regDomains[0],
NULL, sizeof(sRegulatoryDomains) * NUM_REG_DOMAINS ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_DEFAULT_LOCATION, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_DEFAULT_LOCATION,
(v_VOID_t *)&pnvEFSTable->halnv.tables.defaultCountryTable,
NULL, sizeof(sDefaultCountry) ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_TPC_POWER_TABLE, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_TPC_POWER_TABLE,
(v_VOID_t *)&pnvEFSTable->halnv.tables.plutCharacterized[0],
NULL, sizeof(tTpcPowerTable) * NUM_RF_CHANNELS ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_TPC_PDADC_OFFSETS, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_TPC_PDADC_OFFSETS,
(v_VOID_t *)&pnvEFSTable->halnv.tables.plutPdadcOffset[0],
NULL, sizeof(tANI_U16) * NUM_RF_CHANNELS ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_RSSI_CHANNEL_OFFSETS, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_RSSI_CHANNEL_OFFSETS,
(v_VOID_t *)&pnvEFSTable->halnv.tables.rssiChanOffsets[0],
NULL, sizeof(sRssiChannelOffsets) * 2 ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_HW_CAL_VALUES, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_HW_CAL_VALUES, (v_VOID_t *)&pnvEFSTable->halnv
.tables.hwCalValues, NULL, sizeof(sHwCalValues) ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_FW_CONFIG, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_FW_CONFIG, (v_VOID_t *)&pnvEFSTable->halnv
.tables.fwConfig, NULL, sizeof(sFwConfig) ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_ANTENNA_PATH_LOSS, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_ANTENNA_PATH_LOSS,
(v_VOID_t *)&pnvEFSTable->halnv.tables.antennaPathLoss[0], NULL,
sizeof(tANI_S16)*NUM_RF_CHANNELS ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_PACKET_TYPE_POWER_LIMITS, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_PACKET_TYPE_POWER_LIMITS,
(v_VOID_t *)&pnvEFSTable->halnv.tables.pktTypePwrLimits[0], NULL,
sizeof(tANI_S16)*NUM_802_11_MODES*NUM_RF_CHANNELS ) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_OFDM_CMD_PWR_OFFSET, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read( VNV_OFDM_CMD_PWR_OFFSET,
(v_VOID_t *)&pnvEFSTable->halnv.tables.ofdmCmdPwrOffset, NULL,
sizeof(sOfdmCmdPwrOffset)) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_TX_BB_FILTER_MODE, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read(VNV_TX_BB_FILTER_MODE,
(v_VOID_t *)&pnvEFSTable->halnv.tables.txbbFilterMode, NULL,
sizeof(sTxBbFilterMode)) != VOS_STATUS_SUCCESS)
goto error;
}
}
if (vos_nv_getValidity(VNV_TABLE_VIRTUAL_RATE, &itemIsValid) ==
VOS_STATUS_SUCCESS)
{
if (itemIsValid == VOS_TRUE)
{
if(vos_nv_read(VNV_TABLE_VIRTUAL_RATE,
(v_VOID_t *)&pnvEFSTable->halnv.tables.pwrOptimum_virtualRate, NULL,
sizeof(gnvEFSTable->halnv.tables.pwrOptimum_virtualRate)) != VOS_STATUS_SUCCESS)
goto error;
}
}
}
return VOS_STATUS_SUCCESS;
error:
vos_mem_free(pnvEFSTable);
vos_mem_free(pEncodedBuf);
return eHAL_STATUS_FAILURE ;
}
VOS_STATUS vos_nv_close(void)
{
VOS_STATUS status = VOS_STATUS_SUCCESS;
v_CONTEXT_t pVosContext= NULL;
/*Get the global context */
pVosContext = vos_get_global_context(VOS_MODULE_ID_SYS, NULL);
status = hdd_release_firmware(WLAN_NV_FILE, ((VosContextType*)(pVosContext))->pHDDContext);
if ( !VOS_IS_STATUS_SUCCESS( status ))
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"%s : vos_open failed\n",__func__);
return VOS_STATUS_E_FAILURE;
}
vos_mem_free(pnvEFSTable);
vos_mem_free(pEncodedBuf);
vos_mem_free(pDictFile);
gnvEFSTable=NULL;
return VOS_STATUS_SUCCESS;
}
/**------------------------------------------------------------------------
\brief vos_nv_getSupportedCountryCode() - get the list of supported
country codes
The \a vos_nv_getSupportedCountryCode() encodes the list of supported
country codes with paddings in the provided buffer
\param pBuffer - pointer to buffer where supported country codes
and paddings are encoded; this may be set to NULL
if user wishes to query the required buffer size to
get the country code list
\param pBufferSize - this is the provided buffer size on input;
this is the required or consumed buffer size on output
\return VOS_STATUS_SUCCESS - country codes are successfully encoded
VOS_STATUS_E_NOMEM - country codes are not encoded because either
the buffer is NULL or buffer size is
sufficient
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getSupportedCountryCode( v_BYTE_t *pBuffer, v_SIZE_t *pBufferSize,
v_SIZE_t paddingSize )
{
v_SIZE_t providedBufferSize = *pBufferSize;
int i;
// pBufferSize now points to the required buffer size
*pBufferSize = countryInfoTable.countryCount * (VOS_COUNTRY_CODE_LEN + paddingSize );
if ( NULL == pBuffer || providedBufferSize < *pBufferSize )
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("Insufficient memory for country code list"));
return VOS_STATUS_E_NOMEM;
}
for (i = 0; i < countryInfoTable.countryCount; i++)
{
memcpy( pBuffer, countryInfoTable.countryInfo[i].countryCode, VOS_COUNTRY_CODE_LEN );
pBuffer += (VOS_COUNTRY_CODE_LEN + paddingSize );
}
return VOS_STATUS_SUCCESS;
}
/**------------------------------------------------------------------------
\brief vos_nv_readTxAntennaCount() - return number of TX antenna
\param pTxAntennaCount - antenna count
\return status of the NV read operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_readTxAntennaCount( v_U8_t *pTxAntennaCount )
{
sNvFields fieldImage;
VOS_STATUS status;
status = vos_nv_read( VNV_FIELD_IMAGE, &fieldImage, NULL,
sizeof(fieldImage) );
if (VOS_STATUS_SUCCESS == status)
{
*pTxAntennaCount = fieldImage.numOfTxChains;
}
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_readRxAntennaCount() - return number of RX antenna
\param pRxAntennaCount - antenna count
\return status of the NV read operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_readRxAntennaCount( v_U8_t *pRxAntennaCount )
{
sNvFields fieldImage;
VOS_STATUS status;
status = vos_nv_read( VNV_FIELD_IMAGE, &fieldImage, NULL,
sizeof(fieldImage) );
if (VOS_STATUS_SUCCESS == status)
{
*pRxAntennaCount = fieldImage.numOfRxChains;
}
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_readMacAddress() - return the MAC address
\param pMacAddress - MAC address
\return status of the NV read operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_readMacAddress( v_MAC_ADDRESS_t pMacAddress )
{
sNvFields fieldImage;
VOS_STATUS status;
status = vos_nv_read( VNV_FIELD_IMAGE, &fieldImage, NULL,
sizeof(fieldImage) );
if (VOS_STATUS_SUCCESS == status)
{
memcpy( pMacAddress, fieldImage.macAddr, VOS_MAC_ADDRESS_LEN );
}
else
{
//This part of the code can be removed when NV is programmed
const v_U8_t macAddr[VOS_MAC_ADDRESS_LEN] = VOS_HARD_CODED_MAC;
memcpy( pMacAddress, macAddr, VOS_MAC_ADDRESS_LEN );
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
" fail to get MAC address from NV, hardcoded to %02X-%02X-%02X-%02X-%02X%02X",
macAddr[0], macAddr[1], macAddr[2], macAddr[3], macAddr[4], macAddr[5]);
status = VOS_STATUS_SUCCESS;
}
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_readMultiMacAddress() - return the Multiple MAC addresses
\param pMacAddress - MAC address
\param macCount - Count of valid MAC addresses to get from NV field
\return status of the NV read operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_readMultiMacAddress( v_U8_t *pMacAddress,
v_U8_t macCount )
{
sNvFields fieldImage;
VOS_STATUS status;
v_U8_t countLoop;
v_U8_t *pNVMacAddress;
if((0 == macCount) || (VOS_MAX_CONCURRENCY_PERSONA < macCount) ||
(NULL == pMacAddress))
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
" Invalid Parameter from NV Client macCount %d, pMacAddress %p",
macCount, pMacAddress);
}
status = vos_nv_read( VNV_FIELD_IMAGE, &fieldImage, NULL,
sizeof(fieldImage) );
if (VOS_STATUS_SUCCESS == status)
{
pNVMacAddress = fieldImage.macAddr;
for(countLoop = 0; countLoop < macCount; countLoop++)
{
vos_mem_copy(pMacAddress + (countLoop * VOS_MAC_ADDRESS_LEN),
pNVMacAddress + (countLoop * VOS_MAC_ADDRESS_LEN),
VOS_MAC_ADDRESS_LEN);
}
}
else
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"vos_nv_readMultiMacAddress Get NV Field Fail");
}
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_setValidity() - set the validity of an NV item.
The \a vos_nv_setValidity() validates and invalidates an NV item. The
validity information is stored in NV memory.
One would get the VOS_STATUS_E_EXISTS error when reading an invalid item.
An item becomes valid when one has written to it successfully.
\param type - NV item type
\param itemIsValid - boolean value indicating the item's validity
\return VOS_STATUS_SUCCESS - validity is set successfully
VOS_STATUS_E_INVAL - one of the parameters is invalid
VOS_STATUS_E_FAILURE - unknown error
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_setValidity( VNV_TYPE type, v_BOOL_t itemIsValid )
{
v_U32_t lastNvValidityBitmap;
v_U32_t newNvValidityBitmap;
VOS_STATUS status = VOS_STATUS_SUCCESS;
// check if the current NV type is valid
if (VNV_TYPE_COUNT <= type)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("%s: invalid type=%d"), __func__, type );
return VOS_STATUS_E_INVAL;
}
// read the validity bitmap
lastNvValidityBitmap = gnvEFSTable->nvValidityBitmap;
// modify the validity bitmap
if (itemIsValid)
{
newNvValidityBitmap = lastNvValidityBitmap | (1 << type);
// commit to NV store if bitmap has been modified
if (newNvValidityBitmap != lastNvValidityBitmap)
{
gnvEFSTable->nvValidityBitmap = newNvValidityBitmap;
}
}
else
{
newNvValidityBitmap = lastNvValidityBitmap & (~(1 << type));
if (newNvValidityBitmap != lastNvValidityBitmap)
{
gnvEFSTable->nvValidityBitmap = newNvValidityBitmap;
status = wlan_write_to_efs((v_U8_t*)gnvEFSTable,sizeof(nvEFSTable_t));
if (! VOS_IS_STATUS_SUCCESS(status)) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR, ("vos_nv_write_to_efs failed!!!"));
status = VOS_STATUS_E_FAULT;
}
}
}
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_getValidity() - get the validity of an NV item.
The \a vos_nv_getValidity() indicates if an NV item is valid. The
validity information is stored in NV memory.
One would get the VOS_STATUS_E_EXISTS error when reading an invalid item.
An item becomes valid when one has written to it successfully.
\param type - NV item type
\param pItemIsValid- pointer to the boolean value indicating the item's
validity
\return VOS_STATUS_SUCCESS - validity is determined successfully
VOS_STATUS_E_INVAL - one of the parameters is invalid
VOS_STATUS_E_FAILURE - unknown error
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getValidity( VNV_TYPE type, v_BOOL_t *pItemIsValid )
{
v_U32_t nvValidityBitmap = gnvEFSTable->nvValidityBitmap;
// check if the current NV type is valid
if (VNV_TYPE_COUNT <= type)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("%s: invalid type=%d"), __func__, type );
return VOS_STATUS_E_INVAL;
}
*pItemIsValid = (v_BOOL_t)((nvValidityBitmap >> type) & 1);
return VOS_STATUS_SUCCESS;
}
/**------------------------------------------------------------------------
\brief vos_nv_read() - read a NV item to an output buffer
The \a vos_nv_read() reads a NV item to an output buffer. If the item is
an array, this function would read the entire array. One would get a
VOS_STATUS_E_EXISTS error when reading an invalid item.
For error conditions of VOS_STATUS_E_EXISTS and VOS_STATUS_E_FAILURE,
if a default buffer is provided (with a non-NULL value),
the default buffer content is copied to the output buffer.
\param type - NV item type
\param outputBuffer - output buffer
\param defaultBuffer - default buffer
\param bufferSize - output buffer size
\return VOS_STATUS_SUCCESS - NV item is read successfully
VOS_STATUS_E_INVAL - one of the parameters is invalid
VOS_STATUS_E_FAULT - defaultBuffer point is NULL
VOS_STATUS_E_EXISTS - NV type is unsupported
VOS_STATUS_E_FAILURE - unknown error
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_read( VNV_TYPE type, v_VOID_t *outputVoidBuffer,
v_VOID_t *defaultBuffer, v_SIZE_t bufferSize )
{
VOS_STATUS status = VOS_STATUS_SUCCESS;
v_SIZE_t itemSize;
v_BOOL_t itemIsValid = VOS_TRUE;
/* sanity check */
if (VNV_TYPE_COUNT <= type)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("%s: invalid type=%d"), __func__, type );
return VOS_STATUS_E_INVAL;
}
if (NULL == outputVoidBuffer)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Buffer provided is NULL") );
return VOS_STATUS_E_FAULT;
}
if (0 == bufferSize)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("NV type=%d is invalid"), type );
return VOS_STATUS_E_INVAL;
}
// check if the NV item has valid data
status = vos_nv_getValidity( type, &itemIsValid );
if (!itemIsValid)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
"NV type=%d does not have valid data", type );
return VOS_STATUS_E_EMPTY;
}
switch(type)
{
case VNV_FIELD_IMAGE:
itemSize = sizeof(gnvEFSTable->halnv.fields);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.fields,bufferSize);
}
break;
case VNV_RATE_TO_POWER_TABLE:
itemSize = sizeof(gnvEFSTable->halnv.tables.pwrOptimum);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.pwrOptimum[0],bufferSize);
}
break;
case VNV_REGULARTORY_DOMAIN_TABLE:
itemSize = sizeof(gnvEFSTable->halnv.tables.regDomains);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.regDomains[0],bufferSize);
}
break;
case VNV_DEFAULT_LOCATION:
itemSize = sizeof(gnvEFSTable->halnv.tables.defaultCountryTable);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.defaultCountryTable,bufferSize);
}
break;
case VNV_TPC_POWER_TABLE:
itemSize = sizeof(gnvEFSTable->halnv.tables.plutCharacterized);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.plutCharacterized[0],bufferSize);
}
break;
case VNV_TPC_PDADC_OFFSETS:
itemSize = sizeof(gnvEFSTable->halnv.tables.plutPdadcOffset);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.plutPdadcOffset[0],bufferSize);
}
break;
case VNV_RSSI_CHANNEL_OFFSETS:
itemSize = sizeof(gnvEFSTable->halnv.tables.rssiChanOffsets);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.rssiChanOffsets[0],bufferSize);
}
break;
case VNV_HW_CAL_VALUES:
itemSize = sizeof(gnvEFSTable->halnv.tables.hwCalValues);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.hwCalValues,bufferSize);
}
break;
case VNV_FW_CONFIG:
itemSize = sizeof(gnvEFSTable->halnv.tables.fwConfig);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.fwConfig,bufferSize);
}
break;
case VNV_ANTENNA_PATH_LOSS:
itemSize = sizeof(gnvEFSTable->halnv.tables.antennaPathLoss);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.antennaPathLoss[0],bufferSize);
}
break;
case VNV_PACKET_TYPE_POWER_LIMITS:
itemSize = sizeof(gnvEFSTable->halnv.tables.pktTypePwrLimits);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,gnvEFSTable->halnv.tables.pktTypePwrLimits,bufferSize);
}
break;
case VNV_OFDM_CMD_PWR_OFFSET:
itemSize = sizeof(gnvEFSTable->halnv.tables.ofdmCmdPwrOffset);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.ofdmCmdPwrOffset,bufferSize);
}
break;
case VNV_TX_BB_FILTER_MODE:
itemSize = sizeof(gnvEFSTable->halnv.tables.txbbFilterMode);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.txbbFilterMode,bufferSize);
}
break;
case VNV_TABLE_VIRTUAL_RATE:
itemSize = sizeof(gnvEFSTable->halnv.tables.pwrOptimum_virtualRate);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(outputVoidBuffer,&gnvEFSTable->halnv.tables.pwrOptimum_virtualRate,bufferSize);
}
break;
default:
break;
}
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_write() - write to a NV item from an input buffer
The \a vos_nv_write() writes to a NV item from an input buffer. This would
validate the NV item if the write operation is successful.
\param type - NV item type
\param inputBuffer - input buffer
\param inputBufferSize - input buffer size
\return VOS_STATUS_SUCCESS - NV item is read successfully
VOS_STATUS_E_INVAL - one of the parameters is invalid
VOS_STATUS_E_FAULT - outputBuffer pointer is NULL
VOS_STATUS_E_EXISTS - NV type is unsupported
VOS_STATUS_E_FAILURE - unknown error
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_write( VNV_TYPE type, v_VOID_t *inputVoidBuffer,
v_SIZE_t bufferSize )
{
VOS_STATUS status = VOS_STATUS_SUCCESS;
v_SIZE_t itemSize;
/* sanity check */
if (VNV_TYPE_COUNT <= type)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("%s: invalid type=%d"), __func__, type );
return VOS_STATUS_E_INVAL;
}
if (NULL == inputVoidBuffer)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Buffer provided is NULL") );
return VOS_STATUS_E_FAULT;
}
if (0 == bufferSize)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("NV type=%d is invalid"), type );
return VOS_STATUS_E_INVAL;
}
switch(type)
{
case VNV_FIELD_IMAGE:
itemSize = sizeof(gnvEFSTable->halnv.fields);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.fields,inputVoidBuffer,bufferSize);
}
break;
case VNV_RATE_TO_POWER_TABLE:
itemSize = sizeof(gnvEFSTable->halnv.tables.pwrOptimum);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.pwrOptimum[0],inputVoidBuffer,bufferSize);
}
break;
case VNV_REGULARTORY_DOMAIN_TABLE:
itemSize = sizeof(gnvEFSTable->halnv.tables.regDomains);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.regDomains[0],inputVoidBuffer,bufferSize);
}
break;
case VNV_DEFAULT_LOCATION:
itemSize = sizeof(gnvEFSTable->halnv.tables.defaultCountryTable);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.defaultCountryTable,inputVoidBuffer,bufferSize);
}
break;
case VNV_TPC_POWER_TABLE:
itemSize = sizeof(gnvEFSTable->halnv.tables.plutCharacterized);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.plutCharacterized[0],inputVoidBuffer,bufferSize);
}
break;
case VNV_TPC_PDADC_OFFSETS:
itemSize = sizeof(gnvEFSTable->halnv.tables.plutPdadcOffset);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"), type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.plutPdadcOffset[0],inputVoidBuffer,bufferSize);
}
break;
case VNV_RSSI_CHANNEL_OFFSETS:
itemSize = sizeof(gnvEFSTable->halnv.tables.rssiChanOffsets);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.rssiChanOffsets[0],inputVoidBuffer,bufferSize);
}
break;
case VNV_HW_CAL_VALUES:
itemSize = sizeof(gnvEFSTable->halnv.tables.hwCalValues);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.hwCalValues,inputVoidBuffer,bufferSize);
}
break;
case VNV_FW_CONFIG:
itemSize = sizeof(gnvEFSTable->halnv.tables.fwConfig);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.fwConfig,inputVoidBuffer,bufferSize);
}
break;
case VNV_ANTENNA_PATH_LOSS:
itemSize = sizeof(gnvEFSTable->halnv.tables.antennaPathLoss);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.antennaPathLoss[0],inputVoidBuffer,bufferSize);
}
break;
case VNV_PACKET_TYPE_POWER_LIMITS:
itemSize = sizeof(gnvEFSTable->halnv.tables.pktTypePwrLimits);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(gnvEFSTable->halnv.tables.pktTypePwrLimits,inputVoidBuffer,bufferSize);
}
break;
case VNV_OFDM_CMD_PWR_OFFSET:
itemSize = sizeof(gnvEFSTable->halnv.tables.ofdmCmdPwrOffset);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.ofdmCmdPwrOffset,inputVoidBuffer,bufferSize);
}
break;
case VNV_TX_BB_FILTER_MODE:
itemSize = sizeof(gnvEFSTable->halnv.tables.txbbFilterMode);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.txbbFilterMode,inputVoidBuffer,bufferSize);
}
break;
case VNV_TABLE_VIRTUAL_RATE:
itemSize = sizeof(gnvEFSTable->halnv.tables.pwrOptimum_virtualRate);
if(bufferSize != itemSize) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("type = %d buffer size=%d is less than data size=%d"),type, bufferSize,
itemSize);
status = VOS_STATUS_E_INVAL;
}
else {
memcpy(&gnvEFSTable->halnv.tables.pwrOptimum_virtualRate,inputVoidBuffer,bufferSize);
}
break;
default:
break;
}
if (VOS_STATUS_SUCCESS == status)
{
// set NV item to have valid data
status = vos_nv_setValidity( type, VOS_TRUE );
if (! VOS_IS_STATUS_SUCCESS(status)) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR, ("vos_nv_setValidity failed!!!"));
status = VOS_STATUS_E_FAULT;
}
status = wlan_write_to_efs((v_U8_t*)gnvEFSTable,sizeof(nvEFSTable_t));
if (! VOS_IS_STATUS_SUCCESS(status)) {
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR, ("vos_nv_write_to_efs failed!!!"));
status = VOS_STATUS_E_FAULT;
}
}
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_getChannelListWithPower() - function to return the list of
supported channels with the power limit info too.
\param pChannels20MHz - list of 20 Mhz channels
\param pNum20MHzChannelsFound - number of 20 Mhz channels
\param pChannels40MHz - list of 20 Mhz channels
\param pNum40MHzChannelsFound - number of 20 Mhz channels
\return status of the NV read operation
\Note: 40Mhz not currently supported
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getChannelListWithPower(tChannelListWithPower *channels20MHz /*[NUM_LEGIT_RF_CHANNELS] */,
tANI_U8 *num20MHzChannelsFound,
tChannelListWithPower *channels40MHz /*[NUM_CHAN_BOND_CHANNELS] */,
tANI_U8 *num40MHzChannelsFound
)
{
VOS_STATUS status = VOS_STATUS_SUCCESS;
int i, count;
//TODO: Dont want to use pMac here...can we instead store the curRegDomain in NV
// or pass it as a parameter to NV from SME?
if( channels20MHz && num20MHzChannelsFound )
{
count = 0;
for( i = 0; i <= RF_CHAN_14; i++ )
{
if( regChannels[i].enabled )
{
channels20MHz[count].chanId = rfChannels[i].channelNum;
channels20MHz[count++].pwr = regChannels[i].pwrLimit;
}
}
for( i = RF_CHAN_36; i <= RF_CHAN_165; i++ )
{
if( regChannels[i].enabled )
{
channels20MHz[count].chanId = rfChannels[i].channelNum;
channels20MHz[count++].pwr = regChannels[i].pwrLimit;
}
}
*num20MHzChannelsFound = (tANI_U8)count;
}
if( channels40MHz && num40MHzChannelsFound )
{
count = 0;
//center channels for 2.4 Ghz 40 MHz channels
for( i = RF_CHAN_BOND_3; i <= RF_CHAN_BOND_11; i++ )
{
if( regChannels[i].enabled )
{
channels40MHz[count].chanId = rfChannels[i].channelNum;
channels40MHz[count++].pwr = regChannels[i].pwrLimit;
}
}
//center channels for 5 Ghz 40 MHz channels
for( i = RF_CHAN_BOND_38; i <= RF_CHAN_BOND_163; i++ )
{
if( regChannels[i].enabled )
{
channels40MHz[count].chanId = rfChannels[i].channelNum;
channels40MHz[count++].pwr = regChannels[i].pwrLimit;
}
}
*num40MHzChannelsFound = (tANI_U8)count;
}
return (status);
}
/**------------------------------------------------------------------------
\brief vos_nv_getDefaultRegDomain() - return the default regulatory domain
\return default regulatory domain
\sa
-------------------------------------------------------------------------*/
v_REGDOMAIN_t vos_nv_getDefaultRegDomain( void )
{
return countryInfoTable.countryInfo[0].regDomain;
}
/**------------------------------------------------------------------------
\brief vos_nv_getSupportedChannels() - function to return the list of
supported channels
\param p20MhzChannels - list of 20 Mhz channels
\param pNum20MhzChannels - number of 20 Mhz channels
\param p40MhzChannels - list of 40 Mhz channels
\param pNum40MhzChannels - number of 40 Mhz channels
\return status of the NV read operation
\Note: 40Mhz not currently supported
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getSupportedChannels( v_U8_t *p20MhzChannels, int *pNum20MhzChannels,
v_U8_t *p40MhzChannels, int *pNum40MhzChannels)
{
VOS_STATUS status = VOS_STATUS_E_INVAL;
int i, count = 0;
if( p20MhzChannels && pNum20MhzChannels )
{
if( *pNum20MhzChannels >= NUM_RF_CHANNELS )
{
for( i = 0; i <= RF_CHAN_14; i++ )
{
p20MhzChannels[count++] = rfChannels[i].channelNum;
}
for( i = RF_CHAN_36; i <= RF_CHAN_165; i++ )
{
p20MhzChannels[count++] = rfChannels[i].channelNum;
}
status = VOS_STATUS_SUCCESS;
}
*pNum20MhzChannels = count;
}
return (status);
}
/**------------------------------------------------------------------------
\brief vos_nv_readDefaultCountryTable() - return the default Country table
\param table data - a union to return the default country table data in.
\return status of the NV read operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_readDefaultCountryTable( uNvTables *tableData )
{
VOS_STATUS status = VOS_STATUS_SUCCESS;
memcpy(&tableData->defaultCountryTable, &pnvEFSTable->halnv.tables.defaultCountryTable, sizeof(sDefaultCountry));
pr_info("DefaultCountry is %c%c\n",
tableData->defaultCountryTable.countryCode[0],
tableData->defaultCountryTable.countryCode[1]);
return status;
}
/**------------------------------------------------------------------------
\brief vos_nv_getBuffer -
\param pBuffer - to return the buffer address
pSize - buffer size.
\return status of the NV read operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getNVBuffer(v_VOID_t **pNvBuffer,v_SIZE_t *pSize)
{
/* Send the NV structure and size */
*pNvBuffer = (v_VOID_t *)(&pnvEFSTable->halnv);
*pSize = sizeof(sHalNv);
return VOS_STATUS_SUCCESS;
}
/**------------------------------------------------------------------------
\brief vos_nv_getBuffer -
\param pBuffer - to return the buffer address
pSize - buffer size.
\return status of the NV read operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getNVEncodedBuffer(v_VOID_t **pNvBuffer,v_SIZE_t *pSize)
{
/* Send the NV structure and size */
VOS_STATUS status;
status = vos_nv_isEmbeddedNV();
if (VOS_STATUS_SUCCESS == status)
{
*pNvBuffer = (v_VOID_t *)(pEncodedBuf);
*pSize = nvReadEncodeBufSize;
}
else
{
*pNvBuffer = (v_VOID_t *)(&pnvEFSTable->halnv);
*pSize = sizeof(sHalNv);
}
return VOS_STATUS_SUCCESS;
}
VOS_STATUS vos_nv_getNVDictionary(v_VOID_t **pNvBuffer,v_SIZE_t *pSize)
{
/* Send the NV structure and size */
*pNvBuffer = (v_VOID_t *)(pDictFile);
*pSize = nDictionarySize;
return VOS_STATUS_SUCCESS;
}
VOS_STATUS vos_nv_isEmbeddedNV(v_VOID_t)
{
if (MAGIC_NUMBER == magicNumber)
{
return VOS_STATUS_SUCCESS;
}
return VOS_STATUS_E_FAILURE;
}
VOS_STATUS vos_nv_setNVEncodedBuffer(v_U8_t *pNvBuffer, v_SIZE_t size)
{
vos_mem_copy(pEncodedBuf, &pNvBuffer[sizeof(v_U32_t)],
(size-sizeof(v_U32_t)));
return VOS_STATUS_SUCCESS;
}
/**------------------------------------------------------------------------
\brief vos_nv_setRegDomain -
\param clientCtxt - Client Context, Not used for PRIMA
regId - Regulatory Domain ID
\return status set REG domain operation
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_setRegDomain(void * clientCtxt, v_REGDOMAIN_t regId)
{
v_CONTEXT_t pVosContext = NULL;
hdd_context_t *pHddCtx = NULL;
/* Client Context Argumant not used for PRIMA */
if (regId >= REGDOMAIN_COUNT)
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"VOS set reg domain, invalid REG domain ID %d", regId);
return VOS_STATUS_E_INVAL;
}
pVosContext = vos_get_global_context(VOS_MODULE_ID_SYS, NULL);
if (NULL != pVosContext)
pHddCtx = vos_get_context(VOS_MODULE_ID_HDD, pVosContext);
else
return VOS_STATUS_E_EXISTS;
/* Set correct channel information based on REG Domain */
regChannels = pnvEFSTable->halnv.tables.regDomains[regId].channels;
return VOS_STATUS_SUCCESS;
}
/**------------------------------------------------------------------------
\brief vos_nv_getChannelEnabledState -
\param rfChannel - input channel enum to know evabled state
\return eNVChannelEnabledType enabled state for channel
* enabled
* disabled
* DFS
\sa
-------------------------------------------------------------------------*/
eNVChannelEnabledType vos_nv_getChannelEnabledState
(
v_U32_t rfChannel
)
{
v_U32_t channelLoop;
eRfChannels channelEnum = INVALID_RF_CHANNEL;
for(channelLoop = 0; channelLoop <= RF_CHAN_165; channelLoop++)
{
if(rfChannels[channelLoop].channelNum == rfChannel)
{
channelEnum = (eRfChannels)channelLoop;
break;
}
}
if(INVALID_RF_CHANNEL == channelEnum)
{
VOS_TRACE(VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
"vos_nv_getChannelEnabledState, invalid channel %d", rfChannel);
return NV_CHANNEL_INVALID;
}
return regChannels[channelEnum].enabled;
}
/******************************************************************
Add driver/linux regulatory support
*******************************************************************/
#ifdef CONFIG_ENABLE_LINUX_REG
/* Handling routines for the conversion from regd rules (start/end freq) to channel index
start freq + 10000 = center freq of the 20MHz start channel
end freq - 10000 = center freq of the 20MHz end channel
start freq + 20000 = center freq of the 40MHz start channel
end freq - 20000 = center freq of the 40MHz end channel
*/
static int bw20_start_freq_to_channel_index(u32 freq_khz)
{
int i;
u32 center_freq = freq_khz + 10000;
/* Has to compare from low freq to high freq */
/* RF_SUBBAND_2_4_GHZ */
for (i = RF_CHAN_1; i <= RF_CHAN_14; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_4_9_GHZ, Ch 240, 244, 248, 252, 208, 212, 216 */
for (i = RF_CHAN_240; i <= RF_CHAN_216; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_LOW_GHZ */
for (i = RF_CHAN_36; i <= RF_CHAN_64; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_MID_GHZ */
for (i = RF_CHAN_100; i <= RF_CHAN_140; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_HIGH_GHZ */
for (i = RF_CHAN_149; i <= RF_CHAN_165; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
return -1;
}
static int bw20_end_freq_to_channel_index(u32 freq_khz)
{
int i;
u32 center_freq = freq_khz - 10000;
/* Has to compare from high freq to low freq */
/* RF_SUBBAND_5_HIGH_GHZ */
for (i = RF_CHAN_165; i >= RF_CHAN_149; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_MID_GHZ */
for (i = RF_CHAN_140; i >= RF_CHAN_100; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_LOW_GHZ */
for (i = RF_CHAN_64; i >= RF_CHAN_36; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_4_9_GHZ, Ch 216, 212, 208, 252, 248, 244, 240 */
for (i = RF_CHAN_216;i >= RF_CHAN_240; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_2_4_GHZ */
for (i = RF_CHAN_14; i >= RF_CHAN_1; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
return -1;
}
static int bw40_start_freq_to_channel_index(u32 freq_khz)
{
int i;
u32 center_freq = freq_khz + 20000;
/* Has to compare from low freq to high freq */
/* RF_SUBBAND_2_4_GHZ */
for (i = RF_CHAN_BOND_3; i <= RF_CHAN_BOND_11; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_4_9_GHZ, Ch 242, 246, 250, 210, 214 */
for (i = RF_CHAN_BOND_242; i <= RF_CHAN_BOND_214; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_LOW_GHZ */
for (i = RF_CHAN_BOND_38; i<= RF_CHAN_BOND_62; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_MID_GHZ */
for (i = RF_CHAN_BOND_102; i <= RF_CHAN_BOND_138; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_HIGH_GHZ */
for (i = RF_CHAN_BOND_151;i <= RF_CHAN_BOND_163; i++)
if (center_freq <= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
return -1;
}
static int bw40_end_freq_to_channel_index(u32 freq_khz)
{
int i;
u32 center_freq = freq_khz - 20000;
/* Has to compare from high freq to low freq */
/* RF_SUBBAND_5_HIGH_GHZ */
for (i = RF_CHAN_BOND_163; i >= RF_CHAN_BOND_151; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_MID_GHZ */
for (i = RF_CHAN_BOND_138; i >= RF_CHAN_BOND_102; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_5_LOW_GHZ */
for (i = RF_CHAN_BOND_62; i >= RF_CHAN_BOND_38; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_4_9_GHZ, Ch 214, 210, 250, 246, 242 */
for (i = RF_CHAN_BOND_214; i >= RF_CHAN_BOND_242; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
/* RF_SUBBAND_2_4_GHZ */
for (i = RF_CHAN_BOND_11; i >= RF_CHAN_BOND_3; i--)
if (center_freq >= (u32) (rfChannels[i].targetFreq) * 1000)
return i;
return -1;
}
static v_BOOL_t channel_in_capable_band(int j, v_U8_t nBandCapability)
{
switch (nBandCapability)
{
case eCSR_BAND_ALL:
return VOS_TRUE;
case eCSR_BAND_24:
if (j >= RF_CHAN_1 && j <= RF_CHAN_14)
return VOS_TRUE;
if (j >= RF_CHAN_BOND_3 && j <= RF_CHAN_BOND_11)
return VOS_TRUE; /* 2.4G 40MHz channel */
break;
case eCSR_BAND_5G:
if (j >= RF_CHAN_240 && j <= RF_CHAN_165)
return VOS_TRUE;
if (j >= RF_CHAN_BOND_242 && j <= RF_CHAN_BOND_163)
return VOS_TRUE; /* 5G 40MHz channel */
break;
default:
break;
}
return VOS_FALSE;
}
/* create_linux_regulatory_entry should */
static void create_linux_regulatory_entry_driver(struct wiphy *wiphy,
struct regulatory_request *request,
v_U8_t nBandCapability,
v_REGDOMAIN_t domain_id)
{
int i, j, n;
int bw20_start_channel_index, bw20_end_channel_index;
int bw40_start_channel_index, bw40_end_channel_index;
for (n = 0; n < NUM_RF_CHANNELS; n++)
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[n].enabled =
NV_CHANNEL_DISABLE;
for (i = 0; i < wiphy->regd->n_reg_rules; i++)
{
wiphy_dbg(wiphy, "info: rule %d --------------------------------------------\n", i);
bw20_start_channel_index =
bw20_start_freq_to_channel_index(
wiphy->regd->reg_rules[i].freq_range.start_freq_khz);
bw20_end_channel_index =
bw20_end_freq_to_channel_index(
wiphy->regd->reg_rules[i].freq_range.end_freq_khz);
if (bw20_start_channel_index == -1 || bw20_end_channel_index == -1)
{
wiphy_dbg(wiphy, "error: freq not supported, start freq (KHz) %d end freq %d\n",
wiphy->regd->reg_rules[i].freq_range.start_freq_khz,
wiphy->regd->reg_rules[i].freq_range.end_freq_khz);
continue; /* skip this rule, but continue to next rule */
}
wiphy_dbg(wiphy, "20MHz start freq (KHz) %d end freq %d start ch index %d end ch index %d\n",
wiphy->regd->reg_rules[i].freq_range.start_freq_khz,
wiphy->regd->reg_rules[i].freq_range.end_freq_khz,
bw20_start_channel_index, bw20_end_channel_index);
for (j = bw20_start_channel_index; j <= bw20_end_channel_index; j++)
{
if (channel_in_capable_band(j, nBandCapability) == VOS_FALSE)
{
wiphy_dbg(wiphy, "info: CH %d is not in capable band\n",
rfChannels[j].channelNum);
continue; /* skip this channel, continue to next */
}
if ((wiphy->regd->reg_rules[i].flags & IEEE80211_CHAN_PASSIVE_SCAN) ||
(wiphy->regd->reg_rules[i].flags & IEEE80211_CHAN_RADAR))
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[j].enabled = NV_CHANNEL_DFS;
wiphy_dbg(wiphy, "info: CH %d is DFS, max EIRP (mBm) is %d\n", rfChannels[j].channelNum,
wiphy->regd->reg_rules[i].power_rule.max_eirp);
}
else
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[j].enabled = NV_CHANNEL_ENABLE;
wiphy_dbg(wiphy, "info: CH %d is enabled, no DFS, max EIRP (mBm) is %d\n", rfChannels[j].channelNum,
wiphy->regd->reg_rules[i].power_rule.max_eirp);
}
/* max_eirp is in mBm (= 100 * dBm) unit */
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[j].pwrLimit =
(tANI_S8) ((wiphy->regd->reg_rules[i].power_rule.max_eirp)/100);
}
/* ignore max_antenna_gain typical is 3dBi, nv.bin antennaGain is
real gain which should be provided by the real design */
if (wiphy->regd->reg_rules[i].freq_range.max_bandwidth_khz >= 40000)
{
wiphy_dbg(wiphy, "info: 40MHz (channel bonding) is allowed\n");
bw40_start_channel_index =
bw40_start_freq_to_channel_index(wiphy->regd->reg_rules[i].freq_range.start_freq_khz);
bw40_end_channel_index =
bw40_end_freq_to_channel_index(wiphy->regd->reg_rules[i].freq_range.end_freq_khz);
if (bw40_start_channel_index == -1 || bw40_end_channel_index == -1)
{
wiphy_dbg(wiphy, "error: req not supported, start_freq_khz %d end_freq_khz %d\n",
wiphy->regd->reg_rules[i].freq_range.start_freq_khz,
wiphy->regd->reg_rules[i].freq_range.end_freq_khz);
continue; /* skip this rull, but continue to next rule */
}
wiphy_dbg(wiphy, "40MHz start freq (KHz) %d end freq %d start ch index %d end ch index %d\n",
wiphy->regd->reg_rules[i].freq_range.start_freq_khz,
wiphy->regd->reg_rules[i].freq_range.end_freq_khz,
bw40_start_channel_index, bw40_end_channel_index);
for (j = bw40_start_channel_index; j <= bw40_end_channel_index; j++)
{
if (channel_in_capable_band(j, nBandCapability) == VOS_FALSE)
continue; /* skip this channel, continue to next */
if ((wiphy->regd->reg_rules[i].flags & IEEE80211_CHAN_PASSIVE_SCAN) ||
(wiphy->regd->reg_rules[i].flags & IEEE80211_CHAN_RADAR))
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[j].enabled = NV_CHANNEL_DFS;
wiphy_dbg(wiphy, "info: 40MHz centered on CH %d is DFS\n", rfChannels[j].channelNum);
}
else
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[j].enabled = NV_CHANNEL_ENABLE;
wiphy_dbg(wiphy, "info: 40MHz centered on CH %d is enabled, no DFS\n", rfChannels[j].channelNum);
}
/* set 40MHz channel power as half (- 3 dB) of 20MHz */
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[j].pwrLimit =
(tANI_S8) (((wiphy->regd->reg_rules[i].power_rule.max_eirp)/100)-3);
}
}
}
}
/*
note: these functions may get used at a later point in time
static int bw20_ch_index_to_bw40_ch_index(int k)
{
int m = -1;
if (k >= RF_CHAN_1 && k <= RF_CHAN_14)
{
m = k - RF_CHAN_1 + RF_CHAN_BOND_3 ;
if (m > RF_CHAN_BOND_11)
m = RF_CHAN_BOND_11;
}
else if (k >= RF_CHAN_240 && k <= RF_CHAN_216)
{
m = k - RF_CHAN_240 + RF_CHAN_BOND_242 ;
if (m > RF_CHAN_BOND_214)
m = RF_CHAN_BOND_214;
}
else if (k >= RF_CHAN_36 && k <= RF_CHAN_64)
{
m = k - RF_CHAN_36 + RF_CHAN_BOND_38;
if (m > RF_CHAN_BOND_62)
m = RF_CHAN_BOND_62;
}
else if (k >= RF_CHAN_100 && k <= RF_CHAN_140)
{
m = k - RF_CHAN_100 + RF_CHAN_BOND_102;
if (m > RF_CHAN_BOND_138)
m = RF_CHAN_BOND_138;
}
else if (k >= RF_CHAN_149 && k <= RF_CHAN_165)
{
m = k - RF_CHAN_149 + RF_CHAN_BOND_151;
if (m > RF_CHAN_BOND_163)
m = RF_CHAN_BOND_163;
}
return m;
}
static int create_linux_regulatory_entry_other(struct wiphy *wiphy,
struct regulatory_request *request,
v_U8_t nBandCapability,
v_REGDOMAIN_t domain_id)
{
int i, j, m;
int k = 0, n = 0;
if (pnvEFSTable == NULL)
{
pr_info("error: pnvEFSTable is NULL, probably not parsed nv.bin yet\n");
return -1;
}
//20MHz channels
if (nBandCapability == eCSR_BAND_24)
pr_info("BandCapability is set to 2G only.\n");
for (i = 0, m = 0; i < IEEE80211_NUM_BANDS; i++)
{
if (i == IEEE80211_BAND_2GHZ && nBandCapability == eCSR_BAND_5G) // 5G only
continue;
else if (i == IEEE80211_BAND_5GHZ && nBandCapability == eCSR_BAND_24) // 2G only
continue;
if (wiphy->bands[i] == NULL)
{
pr_info("error: wiphy->bands[i] is NULL, i = %d\n", i);
return -1;
}
//internal channels[] is one continous array for both 2G and 5G bands
//m is internal starting channel index for each band
if (i == 0)
m = 0;
else
m = wiphy->bands[i-1]->n_channels + m;
for (j = 0; j < wiphy->bands[i]->n_channels; j++)
{
//k = (m + j) is internal current channel index for 20MHz channel
//n is internal channel index for corresponding 40MHz channel
k = m + j;
n = bw20_ch_index_to_bw40_ch_index(k);
if (n == -1)
return -1;
if (wiphy->bands[i]->channels[j].flags & IEEE80211_CHAN_DISABLED)
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[k].enabled =
NV_CHANNEL_DISABLE;
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[n].enabled =
NV_CHANNEL_DISABLE;
}
else if (wiphy->bands[i]->channels[j].flags & IEEE80211_CHAN_RADAR)
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[k].enabled =
NV_CHANNEL_DFS;
// max_power is in mBm = 100 * dBm
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[k].pwrLimit =
(tANI_S8) ((wiphy->bands[i]->channels[j].max_power)/100);
if ((wiphy->bands[i]->channels[j].flags & IEEE80211_CHAN_NO_HT40) == 0)
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[n].enabled =
NV_CHANNEL_DFS;
// 40MHz channel power is half of 20MHz (-3dB) ??
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[n].pwrLimit =
(tANI_S8) (((wiphy->bands[i]->channels[j].max_power)/100)-3);
}
}
else // Enable is only last flag we support
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[k].enabled =
NV_CHANNEL_ENABLE;
// max_power is in dBm
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[k].pwrLimit =
(tANI_S8) ((wiphy->bands[i]->channels[j].max_power)/100);
if ((wiphy->bands[i]->channels[j].flags & IEEE80211_CHAN_NO_HT40) == 0)
{
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[n].enabled =
NV_CHANNEL_ENABLE;
// 40MHz channel power is half of 20MHz (-3dB) ??
pnvEFSTable->halnv.tables.regDomains[domain_id].channels[n].pwrLimit =
(tANI_S8) (((wiphy->bands[i]->channels[j].max_power)/100)-3);
}
}
// ignore max_antenna_gain typical is 3dBi, nv.bin antennaGain is
// real gain which should be provided by the real design
}
}
if (k == 0)
return -1;
return 0;
}
*/
/**------------------------------------------------------------------------
\brief vos_nv_getRegDomainFromCountryCode() - get the regulatory domain of
a country given its country code
The \a vos_nv_getRegDomainFromCountryCode() returns the regulatory domain of
a country given its country code. This is done from reading a cached
copy of the binary file.
\param pRegDomain - pointer to regulatory domain
\param countryCode - country code
\return VOS_STATUS_SUCCESS - regulatory domain is found for the given country
VOS_STATUS_E_FAULT - invalid pointer error
VOS_STATUS_E_EMPTY - country code table is empty
VOS_STATUS_E_EXISTS - given country code does not exist in table
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getRegDomainFromCountryCode( v_REGDOMAIN_t *pRegDomain,
const v_COUNTRYCODE_t countryCode )
{
v_CONTEXT_t pVosContext = NULL;
hdd_context_t *pHddCtx = NULL;
struct wiphy *wiphy = NULL;
int i;
/* sanity checks */
if (NULL == pRegDomain)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Invalid reg domain pointer") );
return VOS_STATUS_E_FAULT;
}
*pRegDomain = REGDOMAIN_COUNT;
if (NULL == countryCode)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Country code array is NULL"));
return VOS_STATUS_E_FAULT;
}
if (0 == countryInfoTable.countryCount)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Reg domain table is empty") );
return VOS_STATUS_E_EMPTY;
}
pVosContext = vos_get_global_context(VOS_MODULE_ID_SYS, NULL);
if (NULL != pVosContext)
pHddCtx = vos_get_context(VOS_MODULE_ID_HDD, pVosContext);
else
return VOS_STATUS_E_EXISTS;
if (NULL == pHddCtx)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Invalid pHddCtx pointer") );
return VOS_STATUS_E_FAULT;
}
wiphy = pHddCtx->wiphy;
/* We need to query the kernel to get the regulatory information
for this country */
if (VOS_FALSE == linux_regulatory_init) {
/* linux regulatory has not been initialized yet; so the country
information stored with us would not be correct */
/* lookup the country in the local database */
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("init time regdomain request") );
temp_reg_domain = REGDOMAIN_COUNT;
for (i = 0; i < countryInfoTable.countryCount &&
REGDOMAIN_COUNT == temp_reg_domain; i++)
{
if (memcmp(countryCode, countryInfoTable.countryInfo[i].countryCode,
VOS_COUNTRY_CODE_LEN) == 0)
{
/* country code is found */
/* record the temporary regulatory_domain as well */
temp_reg_domain = countryInfoTable.countryInfo[i].regDomain;
}
}
if (REGDOMAIN_COUNT == temp_reg_domain) {
/* the country was not found in the driver database */
/* therefore switch to world regulatory domain */
*pRegDomain = REGDOMAIN_WORLD;
cur_reg_domain = *pRegDomain;
linux_reg_cc[0] = '0';
linux_reg_cc[1] = '0';
pnvEFSTable->halnv.tables.defaultCountryTable.regDomain =
*pRegDomain;
/* since it is the world domain, we are guaranteed
the entry exists in the kernel regulatory database */
kernel_reg_request_made = VOS_TRUE;
driver_callback_called = VOS_FALSE;
init_completion(&pHddCtx->linux_reg_req);
regulatory_hint(wiphy, linux_reg_cc);
wait_for_completion_interruptible_timeout(&pHddCtx->linux_reg_req,
LINUX_REG_WAIT_TIME);
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
("country code is not found in driver db"));
linux_regulatory_init = VOS_TRUE;
return VOS_STATUS_E_EXISTS;
}
else {
/* the country code was found in the driver database */
/* now get the regulatory information from the kernel
database */
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("country code found in driver db"));
kernel_reg_request_made = VOS_TRUE;
driver_callback_called = VOS_FALSE;
init_completion(&pHddCtx->linux_reg_req);
regulatory_hint(wiphy, countryCode);
wait_for_completion_interruptible_timeout(&pHddCtx->linux_reg_req,
LINUX_REG_WAIT_TIME);
/* if the country information does not exist with the kernel, then
the driver callback would not be called */
if (VOS_TRUE == driver_callback_called) {
/* the driver callback was called. this means the country
regulatory information was found in the kernel database.
The callback would have updated the internal database. Here
update the country and the return value for the regulatory
domain */
*pRegDomain = temp_reg_domain;
cur_reg_domain = temp_reg_domain;
linux_reg_cc[0] = countryCode[0];
linux_reg_cc[1] = countryCode[1];
pnvEFSTable->halnv.tables.defaultCountryTable.regDomain =
*pRegDomain;
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("country code is found in kernel db"));
linux_regulatory_init = VOS_TRUE;
return VOS_STATUS_SUCCESS;
}
else {
/* the country information has not been found in the kernel
database, revert to world domain */
*pRegDomain = REGDOMAIN_WORLD;
cur_reg_domain = *pRegDomain;
linux_reg_cc[0] = '0';
linux_reg_cc[1] = '0';
pnvEFSTable->halnv.tables.defaultCountryTable.regDomain =
*pRegDomain;
/* since it is the world domain, we are guaranteed
the entry exists in the kernel regulatory database */
kernel_reg_request_made = VOS_TRUE;
driver_callback_called = VOS_FALSE;
init_completion(&pHddCtx->linux_reg_req);
regulatory_hint(wiphy, linux_reg_cc);
wait_for_completion_interruptible_timeout(&pHddCtx->linux_reg_req,
LINUX_REG_WAIT_TIME);
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
("country code is not found in kernel db"));
linux_regulatory_init = VOS_TRUE;
return VOS_STATUS_E_EXISTS;
}
}
}
else {
/* it is not the init time query but a runtime query. So first
compare the country code with the existing current country code
. If both are same there is no need to query any database */
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("run time regdomain request"));
if ((countryCode[0] == linux_reg_cc[0]) &&
(countryCode[1] == linux_reg_cc[1])) {
/* country code already exists */
*pRegDomain = cur_reg_domain;
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("NOT NEW country code"));
return VOS_STATUS_SUCCESS;
}
else {
/* first lookup the country in the local database */
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("NEW country code"));
for (i = 0; i < countryInfoTable.countryCount &&
REGDOMAIN_COUNT == temp_reg_domain; i++)
{
if (memcmp(countryCode, countryInfoTable.countryInfo[i].countryCode,
VOS_COUNTRY_CODE_LEN) == 0)
{
/* country code is found */
/* record the temporary regulatory_domain as well */
temp_reg_domain = countryInfoTable.countryInfo[i].regDomain;
}
}
if (REGDOMAIN_COUNT == temp_reg_domain) {
/* the country was not found in the driver database */
/* therefore switch to world regulatory domain */
*pRegDomain = REGDOMAIN_WORLD;
cur_reg_domain = *pRegDomain;
linux_reg_cc[0] = countryCode[0];
linux_reg_cc[1] = countryCode[1];
/* since it is the world domain, we are guaranteed
the entry exists in the kernel regulatory database */
kernel_reg_request_made = VOS_TRUE;
driver_callback_called = VOS_FALSE;
init_completion(&pHddCtx->linux_reg_req);
regulatory_hint(wiphy, linux_reg_cc);
wait_for_completion_interruptible_timeout(&pHddCtx->linux_reg_req,
LINUX_REG_WAIT_TIME);
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
("country code is not found in driver db"));
return VOS_STATUS_E_EXISTS;
}
else {
/* the country code was found in the driver database */
/* now get the regulatory information from the kernel
database */
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
("country code found in driver db"));
kernel_reg_request_made = VOS_TRUE;
driver_callback_called = VOS_FALSE;
init_completion(&pHddCtx->linux_reg_req);
regulatory_hint(wiphy, countryCode);
wait_for_completion_interruptible_timeout(&pHddCtx->linux_reg_req,
LINUX_REG_WAIT_TIME);
/* if the country information does not exist with the kernel,
then the driver callback would not be called */
if (VOS_TRUE == driver_callback_called) {
/* the driver callback was called. this means the country
regulatory information was found in the kernel database.
The callback would have updated the internal database. Here
update the country and the return value for the regulatory
domain */
*pRegDomain = temp_reg_domain;
cur_reg_domain = temp_reg_domain;
linux_reg_cc[0] = countryCode[0];
linux_reg_cc[1] = countryCode[1];
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("country code is found in kernel db"));
return VOS_STATUS_SUCCESS;
}
else {
/* the country information has not been found in the kernel
database, revert to world domain */
*pRegDomain = REGDOMAIN_WORLD;
cur_reg_domain = *pRegDomain;
linux_reg_cc[0] = countryCode[0];
linux_reg_cc[1] = countryCode[1];
/* since it is the world domain, we are guaranteed
the entry exists in the kernel regulatory database */
kernel_reg_request_made = VOS_TRUE;
driver_callback_called = VOS_FALSE;
init_completion(&pHddCtx->linux_reg_req);
regulatory_hint(wiphy, linux_reg_cc);
wait_for_completion_interruptible_timeout(&pHddCtx->linux_reg_req,
LINUX_REG_WAIT_TIME);
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
("country code is not found in kernel db"));
return VOS_STATUS_E_EXISTS;
}
}
}
}
}
/*
* Function: wlan_hdd_linux_reg_notifier
* This function is called from cfg80211 core to provide regulatory settings
* after new country is requested or intersected (init, user input or 11d)
*/
#if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 9, 0))
void wlan_hdd_linux_reg_notifier(struct wiphy *wiphy,
struct regulatory_request *request)
#else
void wlan_hdd_linux_reg_notifier(struct wiphy *wiphy,
struct regulatory_request *request)
#endif
{
v_REGDOMAIN_t reg_domain = REGDOMAIN_COUNT;
hdd_context_t *pHddCtx = wiphy_priv(wiphy);
wiphy_dbg(wiphy, "info: cfg80211 reg_notifier callback for country"
" %c%c\n", request->alpha2[0], request->alpha2[1]);
/* first check if this callback is in response to the driver callback */
if (VOS_TRUE == kernel_reg_request_made) {
/* this is the driver query to the kernel. the regulatory domain was
temporarily calculated by the entity that made the kernel query.
Use that to update the internal database */
reg_domain = temp_reg_domain;
create_linux_regulatory_entry_driver(wiphy, request,
pHddCtx->cfg_ini->nBandCapability,
reg_domain);
driver_callback_called = VOS_TRUE;
kernel_reg_request_made = VOS_FALSE;
}
else {
/* this callback is not in response to driver callback.
we should contact the lower layers(sme_ChangeCountryCode ??)
with this information. Depending on whether the lower layer
recommends changing the country code or not, we can update the
internal database */
/*
ret_val = create_linux_regulatory_entry_other(wiphy, request,
pHddCtx->cfg_ini->nBandCapability,
reg_domain);
*/
}
complete(&pHddCtx->linux_reg_req);
return;
}
#else
/**------------------------------------------------------------------------
\brief vos_nv_getRegDomainFromCountryCode() - get the regulatory domain of
a country given its country code
The \a vos_nv_getRegDomainFromCountryCode() returns the regulatory domain of
a country given its country code. This is done from reading a cached
copy of the binary file.
\param pRegDomain - pointer to regulatory domain
\param countryCode - country code
\return VOS_STATUS_SUCCESS - regulatory domain is found for the given country
VOS_STATUS_E_FAULT - invalid pointer error
VOS_STATUS_E_EMPTY - country code table is empty
VOS_STATUS_E_EXISTS - given country code does not exist in table
\sa
-------------------------------------------------------------------------*/
VOS_STATUS vos_nv_getRegDomainFromCountryCode( v_REGDOMAIN_t *pRegDomain,
const v_COUNTRYCODE_t countryCode )
{
int i;
if (NULL == pRegDomain)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Invalid reg domain pointer") );
return VOS_STATUS_E_FAULT;
}
*pRegDomain = REGDOMAIN_COUNT;
if (NULL == countryCode)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Country code array is NULL") );
return VOS_STATUS_E_FAULT;
}
if (0 == countryInfoTable.countryCount)
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_ERROR,
("Reg domain table is empty") );
return VOS_STATUS_E_EMPTY;
}
if (VOS_FALSE == driver_regulatory_init) {
/*
iterate the country info table until end of table or the country code
is found
*/
for (i = 0; i < countryInfoTable.countryCount &&
REGDOMAIN_COUNT == *pRegDomain; i++)
{
if (memcmp(countryCode, countryInfoTable.countryInfo[i].countryCode,
VOS_COUNTRY_CODE_LEN) == 0)
{
/* country code is found */
*pRegDomain = countryInfoTable.countryInfo[i].regDomain;
}
}
if (REGDOMAIN_COUNT != *pRegDomain)
{
driver_reg_cc[0] = countryCode[0];
driver_reg_cc[1] = countryCode[1];
cur_reg_domain = *pRegDomain;
driver_regulatory_init = VOS_TRUE;
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("init time country code is found in driver db"));
return VOS_STATUS_SUCCESS;
}
else
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
("init time country code is not found in driver db"));
return VOS_STATUS_E_EXISTS;
}
}
else {
if ((countryCode[0] == driver_reg_cc[0]) &&
(countryCode[1] == driver_reg_cc[1])) {
*pRegDomain = cur_reg_domain;
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("run time country code has not changed"));
return VOS_STATUS_SUCCESS;
}
else {
/* iterate the country info table until end of table or the
country code is found
*/
for (i = 0; i < countryInfoTable.countryCount &&
REGDOMAIN_COUNT == *pRegDomain; i++)
{
if (memcmp(countryCode, countryInfoTable.countryInfo[i].countryCode,
VOS_COUNTRY_CODE_LEN) == 0)
{
/* country code is found */
*pRegDomain = countryInfoTable.countryInfo[i].regDomain;
}
}
if (REGDOMAIN_COUNT != *pRegDomain)
{
driver_reg_cc[0] = countryCode[0];
driver_reg_cc[1] = countryCode[1];
cur_reg_domain = *pRegDomain;
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_INFO,
("run time country code is found in driver db"));
return VOS_STATUS_SUCCESS;
}
else
{
VOS_TRACE( VOS_MODULE_ID_VOSS, VOS_TRACE_LEVEL_WARN,
("run time country code is not found in driver db"));
driver_reg_cc[0] = 0;
driver_reg_cc[1] = 0;
driver_regulatory_init = VOS_FALSE;
return VOS_STATUS_E_EXISTS;
}
}
}
}
#endif