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1 /* |
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2 * TIWha.cpp |
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3 * |
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4 * Copyright(c) 1998 - 2010 Texas Instruments. All rights reserved. |
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5 * All rights reserved. |
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6 * |
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7 * This program and the accompanying materials are made available under the |
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8 * terms of the Eclipse Public License v1.0 or BSD License which accompanies |
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9 * this distribution. The Eclipse Public License is available at |
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10 * http://www.eclipse.org/legal/epl-v10.html and the BSD License is as below. |
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11 * |
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12 * Redistribution and use in source and binary forms, with or without |
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13 * modification, are permitted provided that the following conditions |
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14 * are met: |
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15 * |
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16 * * Redistributions of source code must retain the above copyright |
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17 * notice, this list of conditions and the following disclaimer. |
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18 * * Redistributions in binary form must reproduce the above copyright |
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19 * notice, this list of conditions and the following disclaimer in |
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20 * the documentation and/or other materials provided with the |
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21 * distribution. |
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22 * * Neither the name Texas Instruments nor the names of its |
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23 * contributors may be used to endorse or promote products derived |
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24 * from this software without specific prior written permission. |
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25 * |
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26 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS |
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27 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT |
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28 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR |
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29 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT |
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30 * OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, |
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31 * SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT |
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32 * LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, |
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33 * DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY |
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34 * THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT |
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35 * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE |
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36 * OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. |
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37 */ |
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38 |
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39 |
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40 /** \file TIWha.cpp |
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41 * \brief Interface between the Symbian to the WVSS WLAN WL6.1 Driver |
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42 * |
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43 * \see |
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44 */ |
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45 |
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46 #include "TIWha.h" |
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47 #include "TIWhaAdaptCb.h" |
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48 #include "wlanhwbusaccesslayer.h" |
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49 #ifdef GEM_SUPPORT |
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50 #include "TIWhaGemDef.h" |
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51 #endif /* GEM_SUPPORT */ |
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52 |
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53 /* The fw that we are using in case it isn't contained in aData */ |
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54 #include "wilink6_firmware.h" |
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55 |
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56 #ifdef WLAN_SDIO |
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57 #include "SdioClient.h" |
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58 #endif //WLAN_SDIO |
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59 |
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60 |
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61 const TInt KWlanDriverMajorVersion = 1; |
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62 const TInt KWlanDriverMinorVersion = 0; |
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63 const TInt KWlanDriverBuildVersion = 0; |
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64 const TUint KWlanUnitsAllowedMask = 0x0000000F; |
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65 |
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66 |
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67 /******************************************************************************* |
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68 * stuff for C file linking. * |
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69 *******************************************************************************/ |
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70 |
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71 extern "C" |
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72 { |
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73 #include "tidef.h" |
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74 #include "report.h" |
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75 #include "timer.h" |
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76 #include "TWDriver.h" |
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77 #include "version.h" |
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78 #include "osApi.h" |
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79 #include "context.h" |
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80 #include "public_commands.h" |
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81 //#include "public_radio.h" |
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82 #include "TxnQueue.h" |
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83 #include "BusDrv.h" |
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84 #define __FILE_ID__ FILE_ID_144 |
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85 } |
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86 |
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87 #define MAX_NUM_OF_TX_QUEUES 4 |
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88 #define TX_TOTAL_OFFSET_BEFORE_DATA (WSPI_PAD_LEN_WRITE + TX_DESCRIPTOR_SIZE) |
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89 |
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90 /* Stalling the CPU of OAMP3430 for 2Ms */ |
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91 #define STALL_ON_CPU 2000 |
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92 |
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93 /* In case of a KFailed we use the Assert() function as indicated in the spec, but return KSuccess */ |
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94 #define ASSERT_MI2(hrep,mib,exp,file,func,line) \ |
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95 if ((exp) != WHA::KSuccess) { \ |
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96 TRACE2(hrep, REPORT_SEVERITY_ERROR , " failed, mib=%d, file=, line=%d\n", mib, line); \ |
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97 MWlanOsa::Assert( (const TInt8 *)file, line, EFalse ); \ |
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98 return WHA::KSuccess; \ |
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99 } |
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100 |
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101 #define ASSERT_MIB(hrep,mib,exp) \ |
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102 ASSERT_MI2(hrep,mib,exp, __FUNCTION__,__FUNCTION__,__LINE__) |
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103 |
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104 |
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105 #define ASSERT_ER2(hrep,fmsg,par,line) \ |
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106 TRACE1(hrep, REPORT_SEVERITY_ERROR, fmsg, par); \ |
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107 //MWlanOsa::Assert( (const TInt8 *)file, line, EFalse ); |
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108 |
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109 #define ASSERT_ERR(hrep,fmsg,par) \ |
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110 ASSERT_ER2(hrep,fmsg,par,__LINE__) |
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111 |
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112 |
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113 #define FREF_CLK_FREQ_MASK 0x7 |
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114 |
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115 |
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116 /************************************************************************************/ |
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117 |
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118 /** |
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119 * \fn Create |
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120 * \brief static create |
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121 * |
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122 * Just call constructor |
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123 * |
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124 * \note |
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125 * return handle to TIWha class. |
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126 * \sa |
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127 */ |
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128 WHA::Wha* WHA::Wha::Create(MWlanOsa& aOsa, WlanHpa& aHpa, const SHwBusAccessLayer& aTransPortLayer) |
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129 { |
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130 return new TIWha (aOsa, aHpa, *(aTransPortLayer.iSpia)); |
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131 } |
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132 |
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133 |
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134 /** |
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135 * \fn Destroy |
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136 * \brief static destroy |
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137 * |
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138 * Just call destructor |
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139 * |
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140 * \note |
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141 * \sa |
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142 */ |
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143 void WHA::Wha::Destroy(Wha* aWha) |
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144 { |
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145 delete aWha; |
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146 } |
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147 |
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148 /** |
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149 * \fn TIWha |
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150 * \brief Constructor |
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151 * |
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152 * This method is the default constructor,all modules mamory alocation |
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153 * and software configuration (not sending any thing via BUS to the firmware) |
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154 * |
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155 * \note |
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156 * return handle to TIWha class. |
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157 * \sa |
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158 */ |
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159 TIWha::TIWha(MWlanOsa& aOsa, WlanHpa& aHpa, WlanSpia& aSpia) |
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160 : Wha(aOsa, aHpa, aSpia) /* Construct the base class */ |
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161 { |
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162 /* Before initializing the report module, we should use the WLAN_OS_REPORT macro */ |
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163 WLAN_INIT_REPORT (("TIWha constructor ++\n")); |
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164 WLAN_INIT_REPORT(("Driver Version : %s\n", SW_VERSION_STR)); |
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165 |
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166 /* tOsContext (hOS is made of MWlanOsa and WlanSpia */ |
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167 iTwdCtrl.tOsContext.hOsa = &aOsa; |
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168 iTwdCtrl.tOsContext.hSpia = &aSpia; |
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169 iTwdCtrl.tOsContext.hHpa = &aHpa; |
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170 |
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171 /* Nullify handles to mark that it wasn't created yet */ |
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172 iTwdCtrl.hTWD = NULL; |
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173 iTwdCtrl.hReport = NULL; |
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174 iTwdCtrl.hReport = NULL; |
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175 iTwdCtrl.hContext = NULL; |
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176 iTiWlanHpaCb = NULL; |
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177 /* indicate that no error indication was called */ |
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178 bErrorIndication = TI_FALSE; |
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179 |
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180 bConnectionTimerRunning = TI_FALSE; |
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181 /* indicate that TIWha::Release() should be called directly if we have error indication */ |
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182 bCallRelease = TI_TRUE; |
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183 bFreeDriver = TI_FALSE; |
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184 bRxMemFailTimerRunning = TI_FALSE; |
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185 uRxMemFailCount = 0; |
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186 |
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187 bFailureIndication = TI_FALSE; |
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188 |
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189 /* Initilaize Timer handle */ |
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190 readDot11StationIdMibTmr = NULL; |
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191 |
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192 /* Set the join flag to false */ |
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193 bJoined = 0; |
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194 |
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195 iConnectionCounter = 0; |
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196 |
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197 #ifdef HT_SUPPORT |
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198 /* Reset the BA Vectors */ |
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199 iTxBlockAckUsageLast = 0; |
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200 iRxBlockAckUsageLast = 0; |
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201 #endif |
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202 |
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203 |
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204 pFailureDfcClient = new TIFailureDfcClient(*iTwdCtrl.tOsContext.hOsa); |
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205 if (pFailureDfcClient == NULL) |
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206 { |
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207 WLAN_OS_REPORT (("ERROR: CreateDriver TIFailureDfcClient failure\n")); |
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208 } |
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209 |
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210 pConnectDfcClient = new TIConnectDfcClient(*iTwdCtrl.tOsContext.hOsa); |
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211 if (pConnectDfcClient == NULL) |
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212 { |
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213 WLAN_OS_REPORT (("ERROR: CreateDriver TIConnectDfcClient failure\n")); |
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214 } |
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215 |
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216 WLAN_INIT_REPORT (("TIWha constructor -- \n")); |
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217 } |
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218 |
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219 |
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220 TIWha::TIWha() |
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221 : Wha (*iTwdCtrl.tOsContext.hOsa,*iTwdCtrl.tOsContext.hHpa,*iTwdCtrl.tOsContext.hSpia) |
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222 { |
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223 iVersion = TVersion( KWlanDriverMajorVersion, |
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224 KWlanDriverMinorVersion,KWlanDriverBuildVersion ); |
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225 iUnitsMask = KWlanUnitsAllowedMask; |
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226 bDriverCreated = TI_TRUE; |
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227 /* Nullify handles to mark that it wasn't created yet */ |
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228 iTwdCtrl.hTWD = NULL; |
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229 iTwdCtrl.hReport = NULL; |
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230 iTwdCtrl.hReport = NULL; |
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231 iTwdCtrl.hContext = NULL; |
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232 iTiWlanHpaCb = NULL; |
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233 /* indicate that no error indication was called */ |
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234 bErrorIndication = TI_FALSE; |
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235 |
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236 bConnectionTimerRunning = TI_FALSE; |
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237 /* indicate that TIWha::Release() should be called directly if we have error indication */ |
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238 bCallRelease = TI_TRUE; |
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239 bFreeDriver = TI_FALSE; |
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240 bRxMemFailTimerRunning = TI_FALSE; |
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241 uRxMemFailCount = 0; |
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242 |
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243 bFailureIndication = TI_FALSE; |
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244 |
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245 /* Initilaize Timer handle */ |
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246 readDot11StationIdMibTmr = NULL; |
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247 |
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248 /* Set the join flag to false */ |
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249 bJoined = 0; |
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250 |
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251 iConnectionCounter = 0; |
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252 |
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253 #ifdef HT_SUPPORT |
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254 /* Reset the BA Vectors */ |
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255 iTxBlockAckUsageLast = 0; |
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256 iRxBlockAckUsageLast = 0; |
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257 #endif |
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258 |
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259 WLAN_INIT_REPORT (("TIWha constructor -- \n")); |
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260 } |
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261 |
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262 |
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263 /** |
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264 * \fn CreateDriver |
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265 * \brief Create driver modules |
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266 * |
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267 * Create 'report', 'context', 'TWD', 'HpaCb' |
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268 * |
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269 * \note In case of failure, The modules will be released later in DestroyDriver(); |
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270 * \sa |
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271 */ |
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272 TI_STATUS TIWha::CreateDriver() |
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273 { |
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274 WLAN_INIT_REPORT (("CreateDriver ++\n")); |
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275 |
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276 |
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277 /* Create utils and TWD */ |
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278 iTwdCtrl.hReport = report_Create ((TI_HANDLE)&iTwdCtrl.tOsContext); |
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279 if (iTwdCtrl.hReport == NULL) |
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280 { |
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281 WLAN_OS_REPORT (("ERROR: CreateDriver report_Create failure\n")); |
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282 return TI_NOK; |
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283 } |
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284 InitReportParamTable (); |
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285 report_SetDefaults (iTwdCtrl.hReport, &(iTwdCtrl.report_init)); |
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286 |
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287 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "CreateDriver"); |
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288 |
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289 /* Create context module */ |
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290 iTwdCtrl.hContext = context_Create ((TI_HANDLE)&iTwdCtrl.tOsContext); |
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291 if (iTwdCtrl.hContext == NULL) |
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292 { |
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293 WLAN_OS_REPORT (("ERROR:CreateDriver context_Create failure\n")); |
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294 return TI_NOK; |
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295 } |
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296 |
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297 /* Create Timer module */ |
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298 iTwdCtrl.hTimer = tmr_Create ((TI_HANDLE)&iTwdCtrl.tOsContext); |
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299 if (iTwdCtrl.hTimer == NULL) |
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300 { |
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301 WLAN_OS_REPORT (("ERROR:CreateDriver tmr_Create failure\n")); |
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302 return TI_NOK; |
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303 } |
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304 |
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305 /* Create TxnQ */ |
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306 iTwdCtrl.hTxnQ = txnQ_Create ((TI_HANDLE)&iTwdCtrl.tOsContext); |
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307 if (iTwdCtrl.hTxnQ == NULL) |
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308 { |
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309 WLAN_OS_REPORT (("ERROR:CreateDriver txnQ_Create failure\n")); |
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310 return TI_NOK; |
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311 } |
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312 |
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313 /* Create TWD */ |
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314 iTwdCtrl.hTWD = TWD_Create ((TI_HANDLE)&iTwdCtrl.tOsContext); |
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315 if (iTwdCtrl.hTWD == NULL) |
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316 { |
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317 WLAN_OS_REPORT (("ERROR:CreateDriver TWD_Create failure\n")); |
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318 return TI_NOK; |
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319 } |
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320 |
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321 /* Create HpaCb */ |
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322 iTiWlanHpaCb = new TIWlanHpaCB (iTwdCtrl.hTWD); |
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323 if (iTiWlanHpaCb == NULL) |
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324 { |
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325 WLAN_OS_REPORT (("ERROR:CreateDriver new TIWlanHpaCB failure\n")); |
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326 return TI_NOK; |
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327 } |
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328 |
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329 return TI_OK; |
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330 } |
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331 |
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332 /** |
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333 * \fn DestroyDriver |
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334 * \brief destroy driver modules |
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335 * |
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336 * Destroy 'report', 'context', 'TWD', 'HpaCb' only if it is not NULL |
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337 * |
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338 * \sa |
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339 */ |
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340 void TIWha::DestroyDriver() |
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341 { |
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342 WLAN_OS_REPORT(("DestroyDriver\n")); |
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343 |
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344 /* Delete TWD and utils */ |
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345 if (iTwdCtrl.hTWD != NULL) |
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346 { |
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347 TWD_Destroy (iTwdCtrl.hTWD); |
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348 /* Avoid future destroy of TWD */ |
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349 iTwdCtrl.hTWD = NULL; |
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350 } |
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351 |
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352 if (iTwdCtrl.hTxnQ) |
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353 { |
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354 txnQ_Destroy(iTwdCtrl.hTxnQ); |
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355 iTwdCtrl.hTxnQ = NULL; |
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356 } |
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357 |
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358 if (iTwdCtrl.hContext != NULL) |
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359 { |
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360 context_Destroy (iTwdCtrl.hContext); |
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361 /* Avoid future destroy of context */ |
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362 iTwdCtrl.hContext = NULL; |
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363 } |
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364 if (iTwdCtrl.hTimer != NULL) |
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365 { |
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366 tmr_Destroy (iTwdCtrl.hTimer); |
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367 /* Avoid future destroy of timer */ |
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368 iTwdCtrl.hTimer = NULL; |
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369 } |
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370 if (iTiWlanHpaCb != NULL) |
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371 { |
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372 delete iTiWlanHpaCb; |
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373 /* Avoid future destroy of HpaCb */ |
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374 iTiWlanHpaCb = NULL; |
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375 } |
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376 if (iTwdCtrl.hReport != NULL) |
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377 { |
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378 report_Unload (iTwdCtrl.hReport); |
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379 /* Avoid future destroy of report */ |
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380 iTwdCtrl.hReport = NULL; |
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381 } |
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382 |
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383 if (readDot11StationIdMibTmr != NULL) |
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384 { |
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385 os_timerDestroy(0,readDot11StationIdMibTmr); |
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386 readDot11StationIdMibTmr = NULL; |
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387 } |
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388 |
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389 if (hConnectionTimer != NULL) |
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390 { |
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391 os_timerDestroy(0,hConnectionTimer); |
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392 hConnectionTimer = NULL; |
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393 } |
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394 |
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395 if (hInitializeTimer != NULL) |
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396 { |
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397 os_timerDestroy(0,hInitializeTimer); |
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398 hInitializeTimer = NULL; |
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399 } |
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400 |
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401 if (hRxMemFailTimer != NULL) |
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402 { |
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403 os_timerDestroy(0,hRxMemFailTimer); |
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404 hRxMemFailTimer = NULL; |
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405 } |
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406 |
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407 } |
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408 |
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409 /** |
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410 * \fn ~TIWha |
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411 * \brief destructor |
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412 * |
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413 * |
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414 * \note Release is called here if it was not called from UMAC |
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415 * \param |
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416 * \return |
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417 * \sa |
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418 */ |
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419 TIWha::~TIWha() |
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420 { |
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421 /* Delete iFailureDfcClient */ |
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422 if (pFailureDfcClient != NULL) |
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423 { |
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424 /* Either succeeds or has no effect */ |
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425 pFailureDfcClient->pFailureDfc->Dequeue(); |
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426 /* Osa owns this. Will be deleted there. */ |
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427 pFailureDfcClient->pFailureDfc = NULL; |
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428 |
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429 delete pFailureDfcClient; |
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430 } |
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431 |
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432 /* Delete iConnectDfcClient */ |
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433 if (pConnectDfcClient != NULL) |
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434 { |
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435 /* Either succeeds or has no effect */ |
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436 pConnectDfcClient->pConnectDfc->Dequeue(); |
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437 /* Osa owns this. Will be deleted there. */ |
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438 pConnectDfcClient->pConnectDfc = NULL; |
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439 |
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440 delete pConnectDfcClient; |
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441 } |
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442 |
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443 WLAN_INIT_REPORT(("~TIWha\n")); |
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444 } |
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445 |
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446 /** |
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447 * \fn Initialize |
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448 * \brief Initialize the WLAN driver (memory allocation and modules software init. ) |
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449 * |
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450 * \note |
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451 * Downloads the firmware code to the WLAN device. |
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452 * /param aData - firmware data |
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453 * /param aLength - length of the data in bytes |
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454 * /return |
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455 */ |
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456 void TIWha::Initialize(const void* aData, TUint32 aLength) |
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457 { |
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458 iData = aData; |
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459 iLength = aLength; |
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460 |
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461 WLAN_INIT_REPORT (("Initialize ++ \n")); |
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462 #ifdef TI_TEST |
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463 iQueueId = WHA::ELegacy; |
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464 #endif /* TI_TEST*/ |
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465 |
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466 /* configure HPA polarity according to CHIP configuration */ |
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467 #ifdef USE_IRQ_ACTIVE_HIGH |
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468 WlanHpa::TConfig tConfig = {WlanHpa::EIsrPolarityHigh}; |
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469 #else |
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470 WlanHpa::TConfig tConfig = {WlanHpa::EIsrPolarityLow}; |
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471 #endif |
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472 |
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473 iRxPacketsAllocated = 0; |
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474 |
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475 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, " IRQ is "); |
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476 |
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477 /* if we were called from failure indication then we don't reconfigure the HPA */ |
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478 if (bFailureIndication == TI_FALSE ) |
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479 { |
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480 ((WlanHpa*)iTwdCtrl.tOsContext.hHpa)->Configure(tConfig); |
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481 } |
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482 |
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483 |
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484 /* Power up the chip */ |
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485 ((WlanHpa*)iTwdCtrl.tOsContext.hHpa)->PowerOnDevice(); |
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486 #ifdef WLAN_SDIO |
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487 os_StalluSec ((TI_HANDLE)&iTwdCtrl.tOsContext, 200000 ); |
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488 #endif |
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489 |
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490 /* Create all modules */ |
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491 if ( CreateDriver() != TI_OK) |
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492 { |
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493 WLAN_OS_REPORT (("Error on CreateDriver() \n")); |
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494 InitResponse (WHA::KFailed); |
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495 } |
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496 |
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497 /* Attach our client to HPA */ |
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498 ((WlanHpa*)iTwdCtrl.tOsContext.hHpa)->Attach(*iTiWlanHpaCb); |
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499 /* Configure the context module */ |
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500 context_Init (iTwdCtrl.hContext, (TI_HANDLE)&iTwdCtrl.tOsContext,iTwdCtrl.hReport); |
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501 |
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502 /* Initialize timer module */ |
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503 tmr_Init (iTwdCtrl.hTimer, (TI_HANDLE)&iTwdCtrl.tOsContext, iTwdCtrl.hReport, iTwdCtrl.hContext); |
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504 |
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505 hInitializeTimer = os_timerCreate(&iTwdCtrl.tOsContext,(fTimerFunction)TIWhaAdaptCB::InitializeAfterTimer,this); |
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506 |
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507 #ifndef WLAN_SDIO |
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508 /* Wait some time for the HW to complete initialization */ |
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509 os_timerStart (&iTwdCtrl.tOsContext,hInitializeTimer,200); |
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510 #else |
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511 InitializeAfterTimer(); |
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512 #endif |
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513 } |
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514 |
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515 |
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516 /** |
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517 * \fn InitializeAfterTimer |
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518 * \brief start second part of initialization after timer expired |
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519 * |
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520 * \note |
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521 * \param |
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522 * \return |
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523 * \sa |
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524 */ |
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525 void TIWha::InitializeAfterTimer() |
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526 { |
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527 TI_STATUS status; |
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528 TUint8* data = (TUint8*)iData; |
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529 TUint8* pRadio; |
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530 |
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531 TUint32 nvsLength = 0; |
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532 TUint32 radioLength = 0; |
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533 |
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534 /* Create a connection timer that will be triggered after Join command */ |
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535 hConnectionTimer = os_timerCreate(&iTwdCtrl.tOsContext,(fTimerFunction)TIWhaAdaptCB::ConnectionTimeOut,this); |
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536 if (hConnectionTimer == NULL) |
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537 { |
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538 WLAN_OS_REPORT(("Error Failed to create hConnectionTimer")); |
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539 } |
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540 |
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541 /* Create a timer for losing context for Station ID Mib */ |
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542 readDot11StationIdMibTmr = os_timerCreate(&iTwdCtrl.tOsContext,(fTimerFunction)TIWhaAdaptCB::ReadDot11StationIdCb,this); |
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543 if (readDot11StationIdMibTmr == NULL) |
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544 { |
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545 WLAN_OS_REPORT(("Error Faild to create readDot11StationIdMibTmr")); |
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546 } |
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547 |
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548 /* Create a timer in case RequestForBuffer fails */ |
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549 hRxMemFailTimer = os_timerCreate(&iTwdCtrl.tOsContext,(fTimerFunction)TIWhaAdaptCB::RxMemFailTimerCb,this); |
|
550 if (hRxMemFailTimer == NULL) |
|
551 { |
|
552 WLAN_OS_REPORT(("Error Faild to create hRxMemFailTimer")); |
|
553 } |
|
554 |
|
555 /* enable timer operation */ |
|
556 tmr_UpdateDriverState (iTwdCtrl.hTimer, TI_TRUE); |
|
557 |
|
558 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "init TWD"); |
|
559 /*init the txnq */ |
|
560 |
|
561 txnQ_Init (iTwdCtrl.hTxnQ, |
|
562 (TI_HANDLE)&iTwdCtrl.tOsContext, |
|
563 iTwdCtrl.hReport, |
|
564 iTwdCtrl.hContext); |
|
565 |
|
566 /* Next section retrieves the pointer and Lenght of NVS & FW accordingly in th eaData Buf */ |
|
567 |
|
568 /* |
|
569 aData structue : |
|
570 ____________________________________________________________________________________________ |
|
571 | | | | | | | |
|
572 |NVS Len | NVS File | Radio Len | Radio File | FW Len | FW File | |
|
573 |4 Bytes | WiLink6_nvs.h | 4 Bytes | radio_ini.h | 4 Bytes | WiLink6_firmware.h | |
|
574 |_________|_______________|____________|______________|__________|__________________________| |
|
575 |
|
576 */ |
|
577 |
|
578 #ifdef _SYMBIAN_ |
|
579 nvsLength = *reinterpret_cast<const TUint32*>(&data[0]); |
|
580 radioLength = *reinterpret_cast<const TUint32*>(&data[sizeof(TUint32) + nvsLength]); |
|
581 TUint32 fwLength = *reinterpret_cast<const TUint32*>(&data[sizeof(TUint32) + nvsLength + sizeof(TUint32) + radioLength]); |
|
582 |
|
583 /* in case no fw in aData, use wilink6_firmware */ |
|
584 if (fwLength == 0 ) |
|
585 { |
|
586 WLAN_OS_REPORT(("TIWha::Initialize:: Taking default fw")); |
|
587 iFwFile.pBuffer = (TI_UINT8*)wilink6_firmware; |
|
588 } |
|
589 else |
|
590 { |
|
591 WLAN_OS_REPORT(("TIWha::Initialize::received fw from LDD, fwLength : %d", fwLength )); |
|
592 /* Update first FW Pointer to be the one residing in the firmware array from the fw1273_chip.h */ |
|
593 iFwFile.pBuffer = data + 3*sizeof(TUint32) + nvsLength + radioLength; |
|
594 } |
|
595 |
|
596 /* Retrieve NVS pointer & Lenght */ |
|
597 ipNVSbuf = data + sizeof(TUint32); |
|
598 iNVSlength = nvsLength; |
|
599 |
|
600 /* Copy the content of NVS Buffer for saving the MAC Address and Burst Read to be retrieved back when NVS |
|
601 Array is received back from the FW */ |
|
602 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,iNvsStart,ipNVSbuf,24); |
|
603 |
|
604 /* FEM Auto Detection */ |
|
605 /* Retrieve Radio pointer */ |
|
606 pRadio = data + sizeof(TUint32) + nvsLength + sizeof(TUint32); |
|
607 |
|
608 /* save Radio params*/ |
|
609 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iAutoRadioParams.tGeneralParams, pRadio, GENERAL_RADIO_PARAM_LEN); |
|
610 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iAutoRadioParams.tStatRadioParams, (TUint8*)(pRadio + STATIC_RADIO_PARAM_OFFSET), STATIC_RADIO_PARAM_LEN); |
|
611 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iAutoRadioParams.tDynRadioParams[0], (TUint8*)(pRadio + FEM0_DYNAMIC_RADIO_PARAM_OFFSET), DYNAMIC_RADIO_PARAM_LEN); |
|
612 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iAutoRadioParams.tDynRadioParams[1], (TUint8*)(pRadio + FEM1_DYNAMIC_RADIO_PARAM_OFFSET), DYNAMIC_RADIO_PARAM_LEN); |
|
613 |
|
614 #else /* Other OS */ |
|
615 /* Retrieve FW pointer */ |
|
616 iFwFile.pBuffer = (TI_UINT8*)wilink6_firmware; |
|
617 |
|
618 /*saving NVS pointer */ |
|
619 ipNVSbuf = (uint8*)aData; |
|
620 /* Set NVS length */ |
|
621 iNVSlength = aLength; |
|
622 |
|
623 /* Copy the content of NVS Buffer frir saving the MACF Address and Burst Read to be retrieved back when NVS |
|
624 Array is receuved back from the FW */ |
|
625 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,iNvsStart,ipNVSbuf,24); |
|
626 |
|
627 /* FEM Auto Detection fill radio params */ |
|
628 /*FillRadioData();*/ |
|
629 |
|
630 #endif |
|
631 |
|
632 #if TI_DBG |
|
633 WLAN_OS_REPORT(("TIWha::Initialize::nvsLength : %d", nvsLength )); |
|
634 WLAN_OS_REPORT(("TIWha::Initialize::radioLength : %d", radioLength )); |
|
635 #endif |
|
636 |
|
637 WLAN_OS_REPORT((" in Initialize calling txnQ_ConnectBus ")); |
|
638 /* Configure the bus - in WSPI configuration is done internaly */ |
|
639 /* This will download the FW image into part with DMA of 512 bytes each time */ |
|
640 BusDrvCfg.tSdioCfg.uBlkSizeShift = SDIO_BLK_SIZE_SHIFT_DEF; |
|
641 status = txnQ_ConnectBus (iTwdCtrl.hTxnQ, &BusDrvCfg,(TTxnDoneCb)TIWhaAdaptCB::ConnectBus,this,NULL,NULL); |
|
642 |
|
643 /* If the bus connect is sync, then we should lose the context and call the CB */ |
|
644 if (status == TI_OK) |
|
645 { |
|
646 /* Register ConnectDfcClient to handle the connect bus CB from a different context */ |
|
647 pConnectDfcClient->pConnectDfc->Enqueue(*pConnectDfcClient ,(TInt)this); |
|
648 } |
|
649 #ifdef OMAP3430_CPU_STALL |
|
650 /* Add a stall to make sure that CPU is not going idle while initializing */ |
|
651 os_StalluSec ((TI_HANDLE)&iTwdCtrl.tOsContext, STALL_ON_CPU ); |
|
652 #endif |
|
653 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "TIWha::Initialize --"); |
|
654 } |
|
655 |
|
656 /** |
|
657 * \fn Configure |
|
658 * \brief Configures the WLAN device after firmware download and basic |
|
659 * chip init has taken place |
|
660 * \note |
|
661 * Method configures the WLAN device after the WHA layer has send the |
|
662 * EInitializeResponse event. Only after calling this method, |
|
663 * WLAN device is ready for use. |
|
664 * Note: the memory supplied by the command is valid to point the |
|
665 * corresponding command response event is send |
|
666 * |
|
667 * |
|
668 * /param aData firmware - data. The content is vendor specific. |
|
669 * /param aWhaSettings - output data that holds the capabilities |
|
670 * of the WLAN vendor specific solution. |
|
671 * \return |
|
672 * \sa |
|
673 */ |
|
674 void TIWha::Configure( const WHA::SConfigureData& aData, |
|
675 WHA::SSettings& aWhaSettings) |
|
676 { |
|
677 TFwInfo *tChipVer; |
|
678 TI_UINT8 *pMac; |
|
679 |
|
680 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "WHA-Configure +"); |
|
681 |
|
682 /* Enable interrupts on HPA */ |
|
683 ((WlanHpa*)iTwdCtrl.tOsContext.hHpa)->EnableIrq(); |
|
684 |
|
685 TWD_EnableInterrupts (iTwdCtrl.hTWD); |
|
686 |
|
687 /* Call the function to fill all the parameters in the NWSA Settings */ |
|
688 FillNWSASettings (&aWhaSettings); |
|
689 |
|
690 /* Retrieve FW information from TWD */ |
|
691 tChipVer= TWD_GetFWInfo (iTwdCtrl.hTWD); |
|
692 pMac = (TI_UINT8 *)tChipVer->macAddress; |
|
693 |
|
694 /* Update driver's MAC address */ |
|
695 MAC_COPY (iTwdCtrl.pMacAddr, tChipVer->macAddress); |
|
696 |
|
697 /* |
|
698 * Exit from init mode should be before smeSM starts. this enable us to send |
|
699 * command to the MboxQueue(that store the command) while the interrupts are masked. |
|
700 * the interrupt would be enable at the end of the init process. |
|
701 */ |
|
702 TWD_ExitFromInitMode (iTwdCtrl.hTWD); |
|
703 |
|
704 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, " TIWha::Configure : Before Config HW"); |
|
705 if (TWD_ConfigFw (iTwdCtrl.hTWD) != TI_OK) |
|
706 { |
|
707 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, " TIWha:: TWD_ConfigFw returned error"); |
|
708 ConfigFwCb( WHA::KFailed); |
|
709 return; |
|
710 } |
|
711 |
|
712 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "EXIT FROM INIT\n"); |
|
713 |
|
714 /* Print the driver and firmware version and the mac address */ |
|
715 WLAN_OS_REPORT(("\n")); |
|
716 WLAN_OS_REPORT(("--------------------------------------------------------------------\n")); |
|
717 WLAN_OS_REPORT(("Driver Version : %s\n", SW_VERSION_STR)); |
|
718 WLAN_OS_REPORT(("Firmware Version: %s\n", tChipVer->fwVer)); |
|
719 WLAN_OS_REPORT(("Station ID : %02X-%02X-%02X-%02X-%02X-%02X\n", |
|
720 pMac[0], pMac[1], pMac[2], pMac[3], pMac[4], pMac[5])); |
|
721 WLAN_OS_REPORT(("--------------------------------------------------------------------\n")); |
|
722 WLAN_OS_REPORT(("\n")); |
|
723 |
|
724 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "WHA-Configure --"); |
|
725 } |
|
726 |
|
727 |
|
728 /** |
|
729 * \fn Release |
|
730 * \brief Destroy TWD and utils |
|
731 * \note |
|
732 * Any symbian classes (sandbox) will be deleted in the destructor |
|
733 * |
|
734 * /param aSynchronous - not used |
|
735 * \return KSuccess |
|
736 * \sa |
|
737 */ |
|
738 WHA::TStatus TIWha::Release( TBool aSynchronous ) |
|
739 { |
|
740 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "\n"); |
|
741 |
|
742 /* Power off chip */ |
|
743 ((WlanHpa*)iTwdCtrl.tOsContext.hHpa)->PowerOffDevice(); |
|
744 |
|
745 /* Delete all modules */ |
|
746 DestroyDriver(); |
|
747 |
|
748 return WHA::KSuccess; |
|
749 } |
|
750 |
|
751 /** |
|
752 * Note: The WLAN host driver does not issue this command while measure |
|
753 * or 802.11 power management mode transition process is in progress. |
|
754 * This method commands the WLAN device to start scanning in order to |
|
755 * determine the characteristics of the available BSSs and IBSSs to which |
|
756 * it may later to elect to join. |
|
757 * When the WLAN device receives this command, |
|
758 * it goes into a scanning mode. |
|
759 * The WHA layer sends the EScanCommandResponse event to inform the |
|
760 * WLAN host driver that the WLAN vendor specific |
|
761 * solution has accepted the command. |
|
762 * For each command there will be both EScanCommandResponse and |
|
763 * EScanComplete event regardless the fact if the scan did start or not. |
|
764 * If the WLAN device is able to start the scanning process, all beacons |
|
765 * and Probe response frames are sent to the WLAN host driver. |
|
766 * When the scanning has completed, the WHA layer sends the EScanComplete |
|
767 * event to inform the WLAN host driver that the scan process has |
|
768 * completed in the WLAN device. |
|
769 * Note: while this command is in progress it disables the current Rx |
|
770 * frame filtering settings for the duration of the scan. |
|
771 * This means that only beacon and probe response frames are forwarded to |
|
772 * the WLAN host driver (unless doing a split scan) in depended of the |
|
773 * current configuration related to Rx frame handling. |
|
774 * Note: scanning must be supported by the WLAN vendor specific solution |
|
775 * both in infrastructure and IBSS mode. |
|
776 * Although frames can be lost in IBSS mode due to scanning, |
|
777 * support for it is required. |
|
778 * |
|
779 * |
|
780 * /param aMaxTransmitRate - specifies the transmission rate of the |
|
781 * probe request in case of a active scan |
|
782 * Note: just a single rate is selected not multiple as rate fallback |
|
783 * is not to be used during the scan process |
|
784 * /param aBand - selects the used frequency band. |
|
785 * Only 1 band is scanned at a time |
|
786 * and 1 bit is used to select the band to be scanned |
|
787 * /param aNumOfChannels - number of channels provided in the command |
|
788 * /param aChannels - specifies the scanned channels |
|
789 * /param aScanType - specifies the scan type: |
|
790 * 0 foreground scan |
|
791 * 1 background scan |
|
792 * 2 forced background scan |
|
793 * /param aNumOfProbeRequests - number of probe requests (per SSID) |
|
794 * sent to one (1) channel. |
|
795 * Zero (0) means that none is send, |
|
796 * which means that a passive scan is to be done. |
|
797 * Value greater than zero (0) means that an active scan is to be done |
|
798 * /param aSplitScan - ETrue if a split scan method is to be used. |
|
799 * EFalse if not |
|
800 * /param aNumOfSSID - number of SSID provided in the scan command |
|
801 * (this is zero (0) in broadcast scan) |
|
802 * /param aSsid - Array of the SSID to be probed in scan |
|
803 */ |
|
804 #ifdef PLT_TESTER |
|
805 TTestCmd tTest; |
|
806 #endif /* PLT_TESTER */ |
|
807 void TIWha::Scan( WHA::TRate aMaxTransmitRate, |
|
808 WHA::TBand aBand, |
|
809 TUint8 aNumOfChannels, |
|
810 const WHA::SChannels* aChannels, |
|
811 WHA::TScanType aScanType, |
|
812 TUint8 aNumOfProbeRequests, |
|
813 TBool aSplitScan, |
|
814 TUint8 aNumOfSSID, |
|
815 const WHA::SSSID* aSsid) |
|
816 { |
|
817 E80211PsMode PS_mode; |
|
818 TBool bEnterPS; /* whether to enter PS */ |
|
819 TBool bScanOnDriverModeError; /* Forced background option */ |
|
820 |
|
821 |
|
822 #ifdef PLT_TESTER |
|
823 //OpenAllReports(); |
|
824 WLAN_OS_REPORT(("**************************************\n")); |
|
825 WLAN_OS_REPORT(("PLT_TESTER\n")); |
|
826 WLAN_OS_REPORT(("**************************************\n")); |
|
827 |
|
828 iRealPlt = 0; |
|
829 |
|
830 os_printf("************ PLT Test os_printf working ***************\n"); |
|
831 PltSm(NULL); |
|
832 |
|
833 |
|
834 return; |
|
835 #endif /* PLT_TESTER */ |
|
836 |
|
837 |
|
838 |
|
839 |
|
840 TRACE4(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "TIWha::Scan: aMaxTransmitRate %d aBand %d aNumOfChannels %d aScanType 0x%x\n", aMaxTransmitRate, aBand, aNumOfChannels, aScanType); |
|
841 |
|
842 TRACE4(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "TIWha::Scan: aNumOfProbeRequests %d aSplitScan %d aNumOfSSID %d aSsid.Len %d\n", aNumOfProbeRequests, aSplitScan, aNumOfSSID, aSsid->iSSIDLength); |
|
843 |
|
844 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "[WLANPDD] WHA-Scan +"); |
|
845 |
|
846 /* |
|
847 * Configure Scan type: |
|
848 * (aNumOfProbeRequests > 0) ==> Active scan. (TI_TRUE == aSplitScan) ==> Triggered scan |
|
849 */ |
|
850 iTwdCtrl.iScanParams.scanType = |
|
851 (aNumOfProbeRequests > 0) ? |
|
852 ((TI_TRUE == aSplitScan) ? SCAN_TYPE_TRIGGERED_ACTIVE : SCAN_TYPE_NORMAL_ACTIVE) : |
|
853 ((TI_TRUE == aSplitScan) ? SCAN_TYPE_TRIGGERED_PASSIVE : SCAN_TYPE_NORMAL_PASSIVE); |
|
854 |
|
855 /* |
|
856 * On "split scan" defines the access category for which the Fw waits before scanning the next channel |
|
857 * The default value is any AC. Note: ScanSrv configures TimeOut |
|
858 */ |
|
859 iTwdCtrl.iScanParams.Tid = AC_ANY_TID; |
|
860 |
|
861 /* Band */ |
|
862 iTwdCtrl.iScanParams.band = |
|
863 (aBand == WHA::KBand2dot4GHzMask) ? RADIO_BAND_2_4_GHZ : RADIO_BAND_5_0_GHZ; |
|
864 |
|
865 /* Probe requests */ |
|
866 #ifdef ENHANCE_PROB_SCAN |
|
867 if (aNumOfProbeRequests) { |
|
868 iTwdCtrl.iScanParams.probeReqNumber = aNumOfProbeRequests * PB_FACTOR_FOR_SG; |
|
869 } |
|
870 #else |
|
871 iTwdCtrl.iScanParams.probeReqNumber = aNumOfProbeRequests; |
|
872 #endif |
|
873 iTwdCtrl.iScanParams.probeRequestRate = (ERateMask)TIWhaUtils::WhaToMaskRate (aMaxTransmitRate); |
|
874 |
|
875 /***************** Channels ******************/ |
|
876 iTwdCtrl.iScanParams.numOfChannels = aNumOfChannels; |
|
877 |
|
878 for (int i = 0; i < aNumOfChannels; i++) |
|
879 { |
|
880 for (int j = 0; j < MAC_ADDR_LEN; j++ ) |
|
881 { |
|
882 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.bssId[j] = 0xFF; |
|
883 } |
|
884 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.channel = aChannels[i].iChannel; |
|
885 #ifdef ENHANCE_PROB_SCAN |
|
886 if (aNumOfProbeRequests) { |
|
887 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.maxChannelDwellTime = CONVERT_TU_2_MICRO(aChannels[i].iMaxChannelTime * MAX_TIME_FACTOR_FOR_SG); |
|
888 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.minChannelDwellTime = CONVERT_TU_2_MICRO(aChannels[i].iMinChannelTime * MIN_TIME_FACTOR_FOR_SG); |
|
889 } |
|
890 else { |
|
891 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.maxChannelDwellTime = CONVERT_TU_2_MICRO(aChannels[i].iMaxChannelTime); |
|
892 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.minChannelDwellTime = CONVERT_TU_2_MICRO(aChannels[i].iMinChannelTime); |
|
893 } |
|
894 #else |
|
895 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.maxChannelDwellTime = CONVERT_TU_2_MICRO(aChannels[i].iMaxChannelTime); |
|
896 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.minChannelDwellTime = CONVERT_TU_2_MICRO(aChannels[i].iMinChannelTime); |
|
897 #endif |
|
898 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.earlyTerminationEvent = SCAN_ET_COND_DISABLE; |
|
899 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.ETMaxNumOfAPframes = 0; |
|
900 (iTwdCtrl.iScanParams.channelEntry[i]).normalChannelEntry.txPowerDbm = DBM2DBMDIV10(aChannels[i].iTxPowerLevel); |
|
901 } |
|
902 |
|
903 /* Mix the channel to increase scan result and avoid collisions */ |
|
904 if (aNumOfChannels > 4) { |
|
905 int Channelscan = 0; |
|
906 int Channel = 0; |
|
907 int k = 0; |
|
908 while (k < aNumOfChannels/2) { |
|
909 (iTwdCtrl.iScanParams.channelEntry[Channel]).normalChannelEntry.channel = aChannels[Channelscan].iChannel; |
|
910 Channel++; |
|
911 Channelscan += aNumOfChannels/2; |
|
912 if (aNumOfChannels - Channelscan <= 0) { |
|
913 k++; |
|
914 Channelscan = k; |
|
915 } |
|
916 } |
|
917 } |
|
918 |
|
919 /* Set SSID if present. This replaces the Template Frame configuration */ |
|
920 if ( aNumOfSSID ) |
|
921 { |
|
922 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "TIWha::Scan: aSsid.Len %d\n", aSsid->iSSIDLength); |
|
923 |
|
924 iTwdCtrl.iScanParams.desiredSsid.len = aSsid->iSSIDLength; |
|
925 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
926 (void *)iTwdCtrl.iScanParams.desiredSsid.str, |
|
927 (void *)aSsid->iSSID, |
|
928 aSsid->iSSIDLength); |
|
929 } |
|
930 else |
|
931 { |
|
932 iTwdCtrl.iScanParams.desiredSsid.len = 0; |
|
933 } |
|
934 |
|
935 /* PS on scan */ |
|
936 switch (aScanType) |
|
937 { |
|
938 case WHA::EFgScan: |
|
939 bEnterPS = TI_FALSE; |
|
940 /* Internal TI mode - means "don't care" for the Power save */ |
|
941 PS_mode = POWER_SAVE_KEEP_CURRENT; |
|
942 bScanOnDriverModeError = TI_FALSE; |
|
943 break; |
|
944 |
|
945 case WHA::EBgScan: |
|
946 bEnterPS = TI_TRUE; |
|
947 PS_mode = POWER_SAVE_ON; |
|
948 bScanOnDriverModeError = TI_FALSE; |
|
949 break; |
|
950 |
|
951 case WHA::EForcedBgScan: |
|
952 bEnterPS = TI_TRUE; |
|
953 PS_mode = POWER_SAVE_ON; |
|
954 bScanOnDriverModeError = TI_TRUE; |
|
955 break; |
|
956 |
|
957 default: |
|
958 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "TIWha::Scan aScanType 0x%x:\n",aScanType); |
|
959 /* Use some defaults */ |
|
960 bEnterPS = TI_FALSE; |
|
961 PS_mode = POWER_SAVE_KEEP_CURRENT; |
|
962 bScanOnDriverModeError = TI_FALSE; |
|
963 } |
|
964 |
|
965 /* Replace the Receive Packet while Scan to all scan resault sent to |
|
966 LDD befor scan complete event sent */ |
|
967 TWD_RegisterCb (iTwdCtrl.hTWD, |
|
968 TWD_EVENT_RX_RECEIVE_PACKET, |
|
969 (TTwdCB *)TIWhaAdaptCB::ReceivePacketWhileScan, |
|
970 this); |
|
971 /* Set the Scan result count at the beginning of the scan to large value to continue sending resault |
|
972 till the scan complete arrive from FW and set the correct scan result */ |
|
973 aScanResultCount = 0xFFFF; |
|
974 /* Initiate the Sent resault to Zero */ |
|
975 SentScanResult = 0; |
|
976 |
|
977 /* Perform Scan */ |
|
978 TI_STATUS status = TWD_Scan (iTwdCtrl.hTWD, |
|
979 &iTwdCtrl.iScanParams, |
|
980 SCAN_RESULT_TAG_APPLICATION_ONE_SHOT, |
|
981 TI_FALSE, |
|
982 bEnterPS, |
|
983 bScanOnDriverModeError, |
|
984 PS_mode, |
|
985 TI_TRUE, |
|
986 (TCmdResponseCb)TIWhaAdaptCB::ScanResponse, |
|
987 this); |
|
988 |
|
989 if (status != TI_OK) |
|
990 { |
|
991 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "TIWha::Scan returned status = 0x%x:\n", status); |
|
992 } |
|
993 } |
|
994 |
|
995 /** |
|
996 * \fn StopScan |
|
997 * \brief stop scan |
|
998 * \note |
|
999 * Any symbian classes (sandbox) will be deleted in the destructor |
|
1000 * |
|
1001 * /param aSynchronous - not used |
|
1002 * \return KSuccess |
|
1003 * \sa |
|
1004 */ |
|
1005 void TIWha::StopScan() |
|
1006 { |
|
1007 TI_STATUS status; |
|
1008 |
|
1009 status = TWD_StopScan (iTwdCtrl.hTWD, |
|
1010 SCAN_RESULT_TAG_APPLICATION_ONE_SHOT, |
|
1011 TI_FALSE, |
|
1012 (TCmdResponseCb)TIWhaAdaptCB::StopScanResponse, |
|
1013 this); |
|
1014 |
|
1015 if (status != TI_OK) |
|
1016 { |
|
1017 ASSERT_ERR (iTwdCtrl.hReport, "Stop scan failure, status=%d\n", status) |
|
1018 } |
|
1019 } |
|
1020 |
|
1021 /** |
|
1022 * \fn Join |
|
1023 * \brief Join a BSS/IBSS |
|
1024 * |
|
1025 * \note |
|
1026 * \return |
|
1027 * \sa |
|
1028 */ |
|
1029 void TIWha::Join( |
|
1030 WHA::TOperationMode aMode, |
|
1031 const WHA::TMacAddress& aBSSID, |
|
1032 const WHA::SSSID& aSSID, |
|
1033 WHA::TBand aBand, |
|
1034 WHA::TChannelNumber aChannel, |
|
1035 TUint32 aBeaconInterval, |
|
1036 WHA::TRate aBasicRateSet, |
|
1037 TUint16 aAtimWindow, |
|
1038 WHA::TPreamble aPreambleType, |
|
1039 TBool aProbeForJoin ) |
|
1040 { |
|
1041 TJoinBss joinBssParams; |
|
1042 TI_STATUS status; |
|
1043 |
|
1044 #ifdef HT_SUPPORT |
|
1045 /* Svae the join MAC address for BA use */ |
|
1046 os_memoryCopy(&iTwdCtrl.tOsContext,iJoinedMacAddress,(void*)(aBSSID.iMacAddress),aBSSID.KMacAddressLength); |
|
1047 /* If re-join remove first all BA sessions */ |
|
1048 if (bJoined) { |
|
1049 TWD_CloseAllBaSessions(iTwdCtrl.hTWD); |
|
1050 } |
|
1051 #endif /* HT_SUPPORT */ |
|
1052 |
|
1053 WLAN_OS_REPORT(("TWD_JoinBss : bssType = %d beaconInterval = %d channel = %d\n",aMode, (TUint16)aBeaconInterval, aChannel)); |
|
1054 WLAN_OS_REPORT(("BSSID = %x-%x-%x-%x-%x-%x\n",aBSSID.iMacAddress[0],aBSSID.iMacAddress[1],aBSSID.iMacAddress[2],aBSSID.iMacAddress[3],aBSSID.iMacAddress[4],aBSSID.iMacAddress[5])); |
|
1055 |
|
1056 /* If we are in PS mode, wake up from ELP and exit 802.11 PS mode */ |
|
1057 if ( TWD_GetPsStatus (iTwdCtrl.hTWD) ) |
|
1058 { |
|
1059 /* Configure H/W to awake */ |
|
1060 SleepMode (WHA::KAwakeMode, TI_FALSE); |
|
1061 |
|
1062 /* Exit 802.11 PS mode with dummy callbacks */ |
|
1063 TWD_SetPsMode (iTwdCtrl.hTWD, |
|
1064 POWER_SAVE_OFF, |
|
1065 TI_FALSE, |
|
1066 this, |
|
1067 (TPowerSaveCompleteCb)TIWhaAdaptCB::SetPsModeCompleteDummy, |
|
1068 (TPowerSaveResponseCb)TIWhaAdaptCB::SetPsModeResponseDummy); |
|
1069 } |
|
1070 |
|
1071 /* |
|
1072 * Save BSS info parameters |
|
1073 */ |
|
1074 joinBssParams.bssType = (ScanBssType_e)aMode; |
|
1075 /* Save bss type for tx packets */ |
|
1076 iTwdCtrl.bssType = aMode; |
|
1077 joinBssParams.pBSSID = (TUint8 *)aBSSID.iMacAddress; |
|
1078 joinBssParams.pSSID = (TUint8 *)aSSID.iSSID; |
|
1079 joinBssParams.ssidLength = aSSID.iSSIDLength; |
|
1080 joinBssParams.beaconInterval = aBeaconInterval; |
|
1081 joinBssParams.channel = aChannel; |
|
1082 #ifndef HT_SUPPORT |
|
1083 joinBssParams.basicRateSet = TIWhaUtils::WhaToMaskRate (aBasicRateSet); |
|
1084 #else |
|
1085 joinBssParams.basicRateSet = TIWhaUtils::HTWhaToMaskRate(aBasicRateSet,iMcsRates); |
|
1086 #endif /* HT_SUPPORT */ |
|
1087 |
|
1088 joinBssParams.txSessionCount = 0; /* currently not used - we always use session '0' */ |
|
1089 /* |
|
1090 * ATIM window of IBSS |
|
1091 * Note that when ATIM window is zero the |
|
1092 * initiated IBSS does not support power-save |
|
1093 * Note that PS on IBSS is not supported. |
|
1094 */ |
|
1095 |
|
1096 /* |
|
1097 * DTIM - Temporary value till the Fw will find the right value from the first beacon |
|
1098 */ |
|
1099 joinBssParams.dtimInterval = TIWha_DEFAULT_DTIM_PERIOD; |
|
1100 |
|
1101 /* |
|
1102 * Band value is determined out of the channel |
|
1103 */ |
|
1104 if (aBand == WHA::KBand2dot4GHzMask) |
|
1105 { |
|
1106 joinBssParams.radioBand = RADIO_BAND_2_4_GHZ; |
|
1107 } |
|
1108 else if (aBand == WHA::KBand5GHzMask) |
|
1109 { |
|
1110 joinBssParams.radioBand = RADIO_BAND_5_0_GHZ; |
|
1111 } |
|
1112 else |
|
1113 { |
|
1114 ASSERT_ERR (iTwdCtrl.hReport, "Invalid band=%d\n", aBand) |
|
1115 } |
|
1116 |
|
1117 |
|
1118 /* Set preamble MIB. The generic command response will be stopped in TIWhaAdaptCB::CommandResponse */ |
|
1119 if (aPreambleType == WHA::ELongPreamble) |
|
1120 { |
|
1121 TWD_CfgPreamble (iTwdCtrl.hTWD, PREAMBLE_LONG ); |
|
1122 } |
|
1123 else |
|
1124 { |
|
1125 TWD_CfgPreamble (iTwdCtrl.hTWD, PREAMBLE_SHORT ); |
|
1126 } |
|
1127 |
|
1128 |
|
1129 /* |
|
1130 * Reset both group and pairwise keys to WEP in order to avoid |
|
1131 * a scenario which only group or pairwise are actually configured in WEP |
|
1132 */ |
|
1133 iTwdCtrl.ePairwiseKeyMode = TWD_CIPHER_WEP; |
|
1134 iTwdCtrl.eGroupKeyMode = TWD_CIPHER_WEP; |
|
1135 |
|
1136 /* |
|
1137 * Set new Tx fail low threshold so that FW fall back will start faster |
|
1138 * The reason is that at first we start in 54Mbps and we need to drop faster if the AP is far away. |
|
1139 * This will change after few seconds with the hConnectionTimer |
|
1140 */ |
|
1141 SetTxFailLowThreshold (TIWHA_TX_FAIL_LOW_TH_FOR_CONNECTION); |
|
1142 if (bConnectionTimerRunning) |
|
1143 { |
|
1144 /* Other join started and ended soon, so just stop the timer before setting it again */ |
|
1145 os_timerStop(&iTwdCtrl.tOsContext, hConnectionTimer); |
|
1146 } |
|
1147 bConnectionTimerRunning = TI_TRUE; |
|
1148 os_timerStart (&iTwdCtrl.tOsContext, hConnectionTimer, uConnectionApproxTimeMs); |
|
1149 |
|
1150 |
|
1151 status = TWD_CmdJoinBss (iTwdCtrl.hTWD, &joinBssParams); |
|
1152 |
|
1153 if (status != TI_OK) |
|
1154 { |
|
1155 ASSERT_ERR (iTwdCtrl.hReport, "Start join failure, status=%d\n", status) |
|
1156 } |
|
1157 |
|
1158 /* set the join flag to true */ |
|
1159 bJoined = 1; |
|
1160 |
|
1161 #ifdef HT_SUPPORT |
|
1162 /* Reset the BA Vectors */ |
|
1163 iTxBlockAckUsageLast = 0; |
|
1164 iRxBlockAckUsageLast = 0; |
|
1165 #endif |
|
1166 } |
|
1167 |
|
1168 /** |
|
1169 * \fn SetPsMode |
|
1170 * \brief SetPsMode |
|
1171 * |
|
1172 * \note |
|
1173 * \return |
|
1174 * \sa |
|
1175 */ |
|
1176 void TIWha::SetPsMode( WHA::TPsMode aPsMode ) |
|
1177 { |
|
1178 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "\n"); |
|
1179 TI_STATUS status; |
|
1180 E80211PsMode ePsMode; /* TWD parameter for power save on/off */ |
|
1181 |
|
1182 if (aPsMode == WHA::KPsDisable) |
|
1183 { |
|
1184 ePsMode = POWER_SAVE_OFF; |
|
1185 |
|
1186 /* Configure H/W to awake, don't wait for a response */ |
|
1187 SleepMode (WHA::KAwakeMode, FALSE); |
|
1188 } |
|
1189 else |
|
1190 { |
|
1191 ePsMode = POWER_SAVE_ON; |
|
1192 } |
|
1193 |
|
1194 /* Set 802.11 PS mode */ |
|
1195 status = TWD_SetPsMode (iTwdCtrl.hTWD, |
|
1196 ePsMode, |
|
1197 TI_TRUE, |
|
1198 this, |
|
1199 (TPowerSaveCompleteCb)TIWhaAdaptCB::SetPsModeComplete, |
|
1200 (TPowerSaveResponseCb)TIWhaAdaptCB::SetPsModeResponse); |
|
1201 |
|
1202 /* Convert status */ |
|
1203 switch (status) |
|
1204 { |
|
1205 case TI_OK: |
|
1206 case POWER_SAVE_802_11_PENDING: |
|
1207 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, ": aPsMode 0x%x, status = %d (OK or PENDING)\n", aPsMode, status); |
|
1208 break; |
|
1209 |
|
1210 case POWER_SAVE_802_11_SUCCESS: |
|
1211 case POWER_SAVE_802_11_IS_CURRENT: |
|
1212 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, ": aPsMode 0x%x, status = %d (IS_CURRENT || SUCCESS)\n", aPsMode, status); |
|
1213 |
|
1214 /* This case will never return a response, that's why we don't 'break' this case */ |
|
1215 |
|
1216 default: |
|
1217 ASSERT_ERR (iTwdCtrl.hReport, "Set PS mode failure, mode=%d", aPsMode) |
|
1218 } |
|
1219 } |
|
1220 |
|
1221 /** |
|
1222 * \fn SetBssParameters |
|
1223 * \brief Set AID |
|
1224 * |
|
1225 * \note |
|
1226 * \return |
|
1227 * \sa |
|
1228 */ |
|
1229 void TIWha::SetBssParameters( |
|
1230 TUint8 aDTIM, |
|
1231 TUint16 aAID ) |
|
1232 { |
|
1233 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "\n"); |
|
1234 |
|
1235 TTwdParamInfo tTwdParam; |
|
1236 TI_STATUS status; |
|
1237 |
|
1238 /* Set AID */ |
|
1239 tTwdParam.paramType = TWD_AID_PARAM_ID; |
|
1240 tTwdParam.content.halCtrlAid = aAID; |
|
1241 status = TWD_SetParam (iTwdCtrl.hTWD, &tTwdParam); |
|
1242 |
|
1243 /* DTIM is calculated in the Fw now, this is a change from WiLink 4.0.4 */ |
|
1244 |
|
1245 if (status != TI_OK) |
|
1246 { |
|
1247 ASSERT_ERR (iTwdCtrl.hReport, "Set BSS parameters failure, status=%d\n", status) |
|
1248 } |
|
1249 |
|
1250 /* Send Station connect Signaling to FW for COEX and 11N purpose */ |
|
1251 TWD_CmdSetStaState(iTwdCtrl.hTWD,1,NULL,NULL); |
|
1252 |
|
1253 } |
|
1254 |
|
1255 /** |
|
1256 * \fn Measure |
|
1257 * \brief Not supported in Symbian |
|
1258 * |
|
1259 * \note |
|
1260 * \return |
|
1261 * \sa |
|
1262 */ |
|
1263 void TIWha::Measure( |
|
1264 WHA::TPowerLevel aTxPowerLevel, |
|
1265 WHA::TBand aBand, |
|
1266 WHA::TChannelNumber aChannel, |
|
1267 TUint8 aActivationDelay, |
|
1268 TUint8 aMeasurementOffset, |
|
1269 TUint8 aNumberOfMeasurementTypes, |
|
1270 const WHA::SParameterSet* aParameterSet ) |
|
1271 { |
|
1272 ASSERT_ERR (iTwdCtrl.hReport, "%s not supported\n", __FUNCTION__) |
|
1273 } |
|
1274 |
|
1275 /** |
|
1276 * \fn StopMeasure |
|
1277 * \brief Not supported in Symbian |
|
1278 * |
|
1279 * \note |
|
1280 * \return |
|
1281 * \sa |
|
1282 */ |
|
1283 void TIWha::StopMeasure() |
|
1284 { |
|
1285 ASSERT_ERR (iTwdCtrl.hReport, "%s not supported\n", __FUNCTION__) |
|
1286 } |
|
1287 |
|
1288 /** |
|
1289 * \fn ReadMib |
|
1290 * \brief ReadMib |
|
1291 * |
|
1292 * |
|
1293 * \note |
|
1294 * \param aMib - ENUM according to wha_types.h in LDD |
|
1295 * \return |
|
1296 * \sa |
|
1297 */ |
|
1298 void TIWha::ReadMib( WHA::TMib aMib ) |
|
1299 { |
|
1300 void *pCb = (void*)iTwdCtrl.readMIBBuf; |
|
1301 TMib *pMibBuf = (TMib *)pCb; |
|
1302 WHA::TMib prevMib; |
|
1303 TI_STATUS status = TI_OK; |
|
1304 |
|
1305 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "ReadMIB: aMib %x:\n",aMib); |
|
1306 |
|
1307 prevMib = iTwdCtrl.currentReadMibID; |
|
1308 iTwdCtrl.currentReadMibID = aMib; |
|
1309 |
|
1310 switch (aMib) |
|
1311 { |
|
1312 case WHA::KMibDot11StationId: |
|
1313 /* |
|
1314 * open a timer since we can't send read mib results in one context |
|
1315 */ |
|
1316 os_timerStart(&iTwdCtrl.tOsContext,readDot11StationIdMibTmr,0); |
|
1317 |
|
1318 return; |
|
1319 |
|
1320 case WHA::KMibStatisticsTable: |
|
1321 /* |
|
1322 * Retrieve required information from the device |
|
1323 */ |
|
1324 pMibBuf->aMib = MIB_statisticsTable; |
|
1325 |
|
1326 status = TWD_ReadMib (iTwdCtrl.hTWD, |
|
1327 this, |
|
1328 (void *)TIWhaAdaptCB::ReadMIBResponse, |
|
1329 pCb); |
|
1330 break; |
|
1331 |
|
1332 case WHA::KMibCountersTable: |
|
1333 /* |
|
1334 * Retrieve required information from the device. |
|
1335 */ |
|
1336 pMibBuf->aMib = MIB_countersTable; |
|
1337 status = TWD_ReadMib (iTwdCtrl.hTWD, |
|
1338 this, |
|
1339 (void *)TIWhaAdaptCB::ReadMIBResponse, |
|
1340 pCb); |
|
1341 break; |
|
1342 |
|
1343 #if 0 /* Used for debug in WiLink 4.0.4 */ |
|
1344 case EMIBBtCoexistenceProfile: |
|
1345 /* |
|
1346 * DEBUG ONLY: |
|
1347 */ |
|
1348 paramInfo.paramType = TWD_SG_CONFIG_PARAM_ID; |
|
1349 paramInfo.content.interogateCmdCBParams.pCb = (TI_UINT8*)pCb; |
|
1350 paramInfo.content.interogateCmdCBParams.hCb = (TI_HANDLE)this; |
|
1351 paramInfo.content.interogateCmdCBParams.fCb = (void *)TIWhaAdaptCB::ReadMIBResponse; |
|
1352 |
|
1353 status = TWD_GetParam (iTwdCtrl.hTWD, ¶mInfo); |
|
1354 break; |
|
1355 |
|
1356 case EMIBVersion: |
|
1357 /* |
|
1358 * Retrieve firmware revision |
|
1359 */ |
|
1360 paramInfo.paramType = TWD_REVISION_PARAM_ID; |
|
1361 paramInfo.content.interogateCmdCBParams.pCb = (TI_UINT8*)pCb; |
|
1362 paramInfo.content.interogateCmdCBParams.hCb = (TI_HANDLE)this; |
|
1363 paramInfo.content.interogateCmdCBParams.fCb = (void *)TIWhaAdaptCB::ReadMIBResponse; |
|
1364 |
|
1365 status = TWD_GetParam (iTwdCtrl.hTWD, ¶mInfo); |
|
1366 break; |
|
1367 #endif |
|
1368 |
|
1369 default: |
|
1370 iTwdCtrl.currentReadMibID = prevMib; |
|
1371 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, ": aMib %x: Not supported\n",aMib); |
|
1372 } |
|
1373 |
|
1374 if (status != TI_OK) |
|
1375 { |
|
1376 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, ": aMib %x: status = %d\n",aMib,status); |
|
1377 } |
|
1378 } |
|
1379 |
|
1380 /** |
|
1381 * \fn WriteMib |
|
1382 * \brief WriteMib |
|
1383 * |
|
1384 * |
|
1385 * \note |
|
1386 * \param aMib - ENUM according to wha_types.h in LDD |
|
1387 * \param aLength - size of aData |
|
1388 * \param aData - pointer to general data |
|
1389 * \param aMore - not used |
|
1390 * \return |
|
1391 * \sa |
|
1392 */ |
|
1393 WHA::TStatus TIWha::WriteMib( |
|
1394 WHA::TMib aMib, |
|
1395 TUint16 aLength, |
|
1396 const void* aData, |
|
1397 TBool aMore ) |
|
1398 { |
|
1399 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, " Mib = 0x%x\n",aMib); |
|
1400 |
|
1401 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "WriteMIB - aMib = %d, aData\n", aMib); |
|
1402 |
|
1403 switch (aMib) |
|
1404 { |
|
1405 case WHA::KMibDot11MaxReceiveLifetime: |
|
1406 /* |
|
1407 * Converts the WriteMIB back to the correlated TWD command |
|
1408 * and activate the TWD set command |
|
1409 */ |
|
1410 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1411 Dot11MaxReceiveLifeTime (aData)) |
|
1412 break; |
|
1413 |
|
1414 case WHA::KMibDot11SlotTime: |
|
1415 /* |
|
1416 * Converts the WriteMIB back to the correlated whal command |
|
1417 * and activate the WHAL Set command |
|
1418 */ |
|
1419 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1420 SetSlotTime (aData)) |
|
1421 break; |
|
1422 |
|
1423 case WHA::KMibDot11GroupAddressesTable: |
|
1424 /* |
|
1425 * Converts the WriteMIB back to the correlated TWD command |
|
1426 * and activate the TWD Set command |
|
1427 */ |
|
1428 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1429 SetDot11GroupAddrTable (aData)) |
|
1430 |
|
1431 break; |
|
1432 |
|
1433 case WHA::KMibDot11WepDefaultKeyId: |
|
1434 /* |
|
1435 * Set the default Key Id |
|
1436 */ |
|
1437 |
|
1438 /* |
|
1439 * NOTE: Setting default key will cause the securityMode to change into WEP |
|
1440 */ |
|
1441 ASSERT_MIB(iTwdCtrl.hReport, aMib, |
|
1442 SetDefaultKeyID (aData)) |
|
1443 break; |
|
1444 |
|
1445 case WHA::KMibDot11CurrentTxPowerLevel: |
|
1446 |
|
1447 /* |
|
1448 * NOTE: no assert here. This function may return: |
|
1449 * KSuccess - if the same value is already configured |
|
1450 * KPending - if operation has succeeded |
|
1451 * KFailed - UnKnown error |
|
1452 */ |
|
1453 return SetCurrentTxPowerLevel ( aData); |
|
1454 |
|
1455 case WHA::KMibDot11RTSThreshold: |
|
1456 /* |
|
1457 * Converts the WriteMIB back to the correlated TWD command |
|
1458 * and activate the TWD Set command |
|
1459 */ |
|
1460 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1461 Dot11RTSThreshold (aData)) |
|
1462 break; |
|
1463 |
|
1464 case WHA::KMibCtsToSelf: |
|
1465 /* |
|
1466 * Converts the WriteMIB back to the correlated TWD command |
|
1467 * and activate the TWD Set command |
|
1468 */ |
|
1469 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1470 CtsToSelf (aData)) |
|
1471 break; |
|
1472 |
|
1473 case WHA::KMibArpIpAddressTable: |
|
1474 /* |
|
1475 * Converts the WriteMIB back to the correlated TWD command |
|
1476 * and activate the TWD Set command |
|
1477 */ |
|
1478 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1479 SetArpIpAddrTable (aData)) |
|
1480 break; |
|
1481 |
|
1482 case WHA::KMibTemplateFrame: |
|
1483 /* |
|
1484 * Converts the WriteMIB back to the correlated TWD command |
|
1485 * and activate the TWD Set command |
|
1486 */ |
|
1487 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1488 SetTemplateFrame (aData)) |
|
1489 break; |
|
1490 |
|
1491 case WHA::KMibRxFilter: |
|
1492 /* |
|
1493 * Converts the WriteMIB back to the correlated TWD command |
|
1494 * and activate the TWD Set command |
|
1495 */ |
|
1496 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1497 SetRxFilter (aData)) |
|
1498 break; |
|
1499 |
|
1500 case WHA::KMibBeaconFilterIeTable: |
|
1501 /* |
|
1502 * Converts the beacon filter IE table configuration |
|
1503 * to TWD parameters and sets specific configuration |
|
1504 */ |
|
1505 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1506 SetBeaconFilterIETable (aData)) |
|
1507 break; |
|
1508 |
|
1509 case WHA::KMibBeaconFilterEnable: |
|
1510 /* |
|
1511 * Converts beacon filtering configuration |
|
1512 * to TWD parameters and sets specific configuration |
|
1513 */ |
|
1514 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1515 SetBeaconFilterEnable ( aData)) |
|
1516 break; |
|
1517 |
|
1518 case WHA::KMibSleepMode: |
|
1519 /* |
|
1520 * Set user sleep mode |
|
1521 */ |
|
1522 iTwdCtrl.sleepMode = *(WHA::TSleepMode *)aData; |
|
1523 |
|
1524 /* If we are in 802.11 PS mode then we should enter new sleepMode (otherwise we just save it) */ |
|
1525 if (TWD_GetPsStatus (iTwdCtrl.hTWD)) |
|
1526 { |
|
1527 /* |
|
1528 * NOTE: no assert here. This function may return: |
|
1529 * KSuccess - if the same value is already configured |
|
1530 * KPending - if operation has succeeded |
|
1531 */ |
|
1532 return SleepMode ( iTwdCtrl.sleepMode, TI_TRUE); |
|
1533 } |
|
1534 |
|
1535 else |
|
1536 { |
|
1537 return WHA::KSuccess; |
|
1538 } |
|
1539 |
|
1540 case WHA::KMibWlanWakeUpInterval: |
|
1541 /* |
|
1542 * Converts the WriteMIB back to the correlated TWD command |
|
1543 * and activate the TWD Set command |
|
1544 */ |
|
1545 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1546 WakeUpConditions ( aData)) |
|
1547 |
|
1548 break; |
|
1549 |
|
1550 case WHA::KMibBeaconLostCount: |
|
1551 /* |
|
1552 * Configure the amount of consecutive beacons that can be lost |
|
1553 * before the WLAN device should report BSSLost indication to the |
|
1554 * WLAN host driver. |
|
1555 */ |
|
1556 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1557 SetBeaconLostCount (aData)) |
|
1558 break; |
|
1559 |
|
1560 case WHA::KMibRcpiThreshold: |
|
1561 /* |
|
1562 * Configure the threshold value for RCPI indication to the WLAN |
|
1563 * host driver. RcpiIndication event is triggered when the RCPI goes |
|
1564 * below or over the threshold. |
|
1565 */ |
|
1566 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1567 SetRcpiThreshold (aData)) |
|
1568 break; |
|
1569 |
|
1570 |
|
1571 case WHA::KMibTxRatePolicy: |
|
1572 /* |
|
1573 * Converts the WriteMIB back to the correlated TWD command |
|
1574 * and activate the TWD Set command |
|
1575 */ |
|
1576 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1577 TxRatePolicy ( aLength, aData)) |
|
1578 break; |
|
1579 |
|
1580 /* SG Mibs should be integrated to Symbian */ |
|
1581 case 0x110F: /* Should be KMibbtCoexistenceMode */ |
|
1582 |
|
1583 /* Call the TWD with the specific mode of Bt */ |
|
1584 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1585 btCoexistenceMode ( aLength, aData)) |
|
1586 break; |
|
1587 |
|
1588 case 0x1110: /* should be KMibbtCoexistenceProfile */ |
|
1589 |
|
1590 /* Call the TWD with the parameters of Bt */ |
|
1591 ASSERT_MIB (iTwdCtrl.hReport, aMib, |
|
1592 btCoexistenceProfile ( aLength, aData)) |
|
1593 break; |
|
1594 |
|
1595 #ifdef HT_SUPPORT |
|
1596 case WHA::KMibHtCapabilities: |
|
1597 /* send the HT Capabilties to FW */ |
|
1598 SetHTCapabilities ((WHA::ShtCapabilities*)aData); |
|
1599 break; |
|
1600 |
|
1601 case WHA::KMibHtBssOperation: |
|
1602 /* send the HT Information to FW */ |
|
1603 SetHTInformation ((WHA::ShtBssOperation*)aData); |
|
1604 break; |
|
1605 |
|
1606 case WHA::KMibHtBlockAckConfigure: |
|
1607 /* BA Initiator and Receiver to FW */ |
|
1608 if (ConfigureBA ((WHA::ShtBlockAckConfigure*)aData) == TI_NOK) |
|
1609 { |
|
1610 /* Return success for not stuck the LDD */ |
|
1611 /* This value return when ConfigureBA do nothing */ |
|
1612 return WHA::KSuccess; |
|
1613 } |
|
1614 break; |
|
1615 #endif /* HT_SUPPORT */ |
|
1616 |
|
1617 case WHA::KMibTxAutoRatePolicy: |
|
1618 /* Set the supported rates */ |
|
1619 TxAutoRatePolicy((WHA::StxAutoRatePolicy*)aData); |
|
1620 break; |
|
1621 |
|
1622 |
|
1623 #ifdef TI_TEST |
|
1624 case EMIBPltTest: |
|
1625 |
|
1626 #ifdef PLT_TESTER |
|
1627 iRealPlt = 1; |
|
1628 #endif |
|
1629 os_printf("EMIBPltTest"); |
|
1630 PltTester(aData); |
|
1631 break; |
|
1632 |
|
1633 /* FW statistics */ |
|
1634 case TWD_FW_PRINT_STATISTICS: |
|
1635 TWD_ItrStatistics (iTwdCtrl.hTWD, (void*)TIWhaAdaptCB::StatisticsReadResponse, this, &(((TTwd *)(iTwdCtrl.hTWD))->acxStatistic)); |
|
1636 break; |
|
1637 |
|
1638 /* Get AVR RSSI */ |
|
1639 case AVR_RSSI: |
|
1640 TWD_ItrRSSI (iTwdCtrl.hTWD, (void*)TIWhaAdaptCB::AvrRssiReadResponse, this, &roamingStatistics); |
|
1641 break; |
|
1642 |
|
1643 case QOS_CHANGE_QEUEU: /* change output Queue */ |
|
1644 ChangeQueue(aData); |
|
1645 break; |
|
1646 |
|
1647 case SET_POWER_LEVEL: // KMibDot11PowerSavePowerLevel |
|
1648 SetPowerSavePowerLevel((void *)aData); |
|
1649 #endif /* TI_TEST */ |
|
1650 |
|
1651 default: |
|
1652 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, ": aMib %x: Not supported\n",aMib); |
|
1653 return WHA::KSuccess; |
|
1654 |
|
1655 } /* End switch */ |
|
1656 |
|
1657 /* Indicate that the WriteMIB will return a Response in a different context */ |
|
1658 return WHA::KPending; |
|
1659 } |
|
1660 |
|
1661 |
|
1662 /** |
|
1663 * \fn SetSlotTime |
|
1664 * |
|
1665 * \param aData - TSlotTime |
|
1666 * \return KSuccess or KFailed |
|
1667 * \sa |
|
1668 */ |
|
1669 WHA::TStatus TIWha::SetSlotTime (const void *aData) |
|
1670 { |
|
1671 ESlotTime slot = PHY_SLOT_TIME_LONG; |
|
1672 |
|
1673 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "WRITE_MIB,TIWha::, slot time = 0x%x\n", *((WHA::TSlotTime *)aData)); |
|
1674 |
|
1675 switch (*((WHA::TSlotTime *)aData)) |
|
1676 { |
|
1677 case WHA::KSlotTime9: |
|
1678 slot = PHY_SLOT_TIME_SHORT; |
|
1679 break; |
|
1680 case WHA::KSlotTime20: |
|
1681 slot = PHY_SLOT_TIME_LONG; |
|
1682 break; |
|
1683 default: |
|
1684 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "TIWha:: recieving slot time = %d !!!\n",*((WHA::TSlotTime *)aData)); |
|
1685 } |
|
1686 |
|
1687 return (TWD_CfgSlotTime (iTwdCtrl.hTWD, slot) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1688 } |
|
1689 |
|
1690 /** |
|
1691 * \fn Dot11MaxReceiveLifeTime |
|
1692 * |
|
1693 * \param aData - TUint32* |
|
1694 * \return KSuccess or KFailed |
|
1695 * \sa |
|
1696 */ |
|
1697 WHA::TStatus TIWha::Dot11MaxReceiveLifeTime (const void *aData) |
|
1698 { |
|
1699 TMib Mib; |
|
1700 |
|
1701 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "TIWha::Dot11MaxReceiveLifeTime *aData= 0x%x\n", *(TUint32 *)(aData)); |
|
1702 |
|
1703 Mib.aMib = MIB_dot11MaxReceiveLifetime; |
|
1704 Mib.aData.MaxReceiveLifeTime = *(TUint32 *)(aData); |
|
1705 |
|
1706 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1707 } |
|
1708 |
|
1709 /** |
|
1710 * \fn SetRxFilter |
|
1711 * |
|
1712 * |
|
1713 * \note - Always filter BSSID |
|
1714 * \param aData - not used |
|
1715 * \return |
|
1716 * \sa |
|
1717 */ |
|
1718 WHA::TStatus TIWha::SetRxFilter (const void *aData) |
|
1719 { |
|
1720 TMib Mib; |
|
1721 |
|
1722 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetRxFilter,*aData= 0x%x\n",*(TUint8 *)aData); |
|
1723 |
|
1724 Mib.aMib = MIB_rxFilter; |
|
1725 /* |
|
1726 * Note that we ignore the requested configuration, since any other configuration is |
|
1727 * causing a crash in the LDD. This is agreed with Palau |
|
1728 */ |
|
1729 Mib.aData.RxFilter = MIB_RX_FILTER_BSSID_SET; |
|
1730 |
|
1731 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1732 } |
|
1733 |
|
1734 /** |
|
1735 * \fn SetCurrentTxPowerLevel |
|
1736 * |
|
1737 * |
|
1738 * \note - |
|
1739 * \param aData -TPowerLevel (Power level in dbm) |
|
1740 * \return |
|
1741 * KSuccess - if the same value is already configured |
|
1742 * KPending - if operation has succeeded |
|
1743 * KFailed - UnKnown error |
|
1744 * \sa |
|
1745 */ |
|
1746 WHA::TStatus TIWha::SetCurrentTxPowerLevel (const void *aData) |
|
1747 { |
|
1748 TTwdParamInfo param; |
|
1749 |
|
1750 /* Activates the TWD_SetParam function */ |
|
1751 param.paramType = TWD_TX_POWER_PARAM_ID; |
|
1752 param.content.halCtrlTxPowerDbm = DBM2DBMDIV10((*((WHA::TPowerLevel *) aData))); |
|
1753 |
|
1754 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetCurrentTxPowerLevel, Dbm = %d Power DBm*10 = %d \n", *((WHA::TPowerLevel *) aData), param.content.halCtrlTxPowerDbm); |
|
1755 |
|
1756 TI_STATUS status = TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
1757 |
|
1758 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetCurrentTxPowerLevel, status = %d \n",status); |
|
1759 |
|
1760 switch (status) |
|
1761 { |
|
1762 case TI_OK: return WHA::KPending; |
|
1763 case PARAM_ALREADY_CONFIGURED: return WHA::KSuccess; |
|
1764 default: |
|
1765 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR , "SetCurrentTxPowerLevel, returned status = %d Power DBm*10 = %d \n", status, param.content.halCtrlTxPowerDbm); |
|
1766 return WHA::KFailed; |
|
1767 |
|
1768 } |
|
1769 } |
|
1770 |
|
1771 /** |
|
1772 * \fn SetTemplateFrame |
|
1773 * |
|
1774 * |
|
1775 * \note - |
|
1776 * \param aData - StemplateFrame defined in wha_mib.h inside the LDD |
|
1777 * \return |
|
1778 * \sa |
|
1779 */ |
|
1780 WHA::TStatus TIWha::SetTemplateFrame (const void *aData) |
|
1781 { |
|
1782 TMib Mib; |
|
1783 WHA::StemplateFrame* pMIBTemplateFrame = (WHA::StemplateFrame *)aData; |
|
1784 |
|
1785 TRACE3(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetTemplateFrame aLength= %d,aRate= %d aType = %d\n", pMIBTemplateFrame->iLength, pMIBTemplateFrame->iInitialTransmitRate, pMIBTemplateFrame->iFrameType); |
|
1786 |
|
1787 Mib.aMib = MIB_templateFrame; |
|
1788 Mib.aData.TemplateFrame.FrameType = TIWhaUtils::WhaToTwdFrameType(pMIBTemplateFrame->iFrameType); |
|
1789 Mib.aData.TemplateFrame.Rate = (TI_UINT32)TIWhaUtils::WhaToTwdRate (pMIBTemplateFrame->iInitialTransmitRate); |
|
1790 Mib.aData.TemplateFrame.Length = pMIBTemplateFrame->iLength; |
|
1791 |
|
1792 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
1793 (void *)Mib.aData.TemplateFrame.Data, |
|
1794 (void *)pMIBTemplateFrame->iTemplateData, |
|
1795 pMIBTemplateFrame->iLength); |
|
1796 |
|
1797 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1798 } |
|
1799 |
|
1800 /** |
|
1801 * \fn SetDot11GroupAddrTable |
|
1802 * |
|
1803 * \param aData - *Sdot11GroupAddressesTable |
|
1804 * \return KSuccess or KFailed |
|
1805 * \sa |
|
1806 */ |
|
1807 WHA::TStatus TIWha::SetDot11GroupAddrTable (const void *aData) |
|
1808 { |
|
1809 WHA::Sdot11GroupAddressesTable *pTable = (WHA::Sdot11GroupAddressesTable *)aData; |
|
1810 TMib Mib; |
|
1811 int i; |
|
1812 |
|
1813 if (NULL == aData) |
|
1814 { |
|
1815 return WHA::KFailed; |
|
1816 } |
|
1817 |
|
1818 |
|
1819 /* TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, TIWLANWHA_MODULE_LOG, MSG_2159, Mib.aMib, *(TUint32 *)(aData));*/ |
|
1820 |
|
1821 Mib.aMib = MIB_dot11GroupAddressesTable; |
|
1822 Mib.aData.GroupAddressTable.bFilteringEnable = pTable->iEnable; |
|
1823 Mib.aData.GroupAddressTable.nNumberOfAddresses = pTable->iNumOfAddrs; |
|
1824 |
|
1825 for (i = 0; i < Mib.aData.GroupAddressTable.nNumberOfAddresses; i++) |
|
1826 { |
|
1827 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
1828 (void *)Mib.aData.GroupAddressTable.aGroupTable[i], |
|
1829 (void *)((TI_UINT8*)pTable->iAddrData + i*MAC_ADDR_LEN), |
|
1830 MAC_ADDR_LEN); |
|
1831 } |
|
1832 |
|
1833 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetDot11GroupAddrTable -Enabled=%d-num=%d\n" , Mib.aData.GroupAddressTable.bFilteringEnable, Mib.aData.GroupAddressTable.nNumberOfAddresses); |
|
1834 |
|
1835 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1836 } |
|
1837 |
|
1838 /** |
|
1839 * \fn SetDefaultKeyID |
|
1840 * |
|
1841 * \param aData - *Sdot11WepDefaultKeyId |
|
1842 * \return KSuccess or KFailed |
|
1843 * \sa |
|
1844 */ |
|
1845 WHA::TStatus TIWha::SetDefaultKeyID (const void *aData) |
|
1846 { |
|
1847 TTwdParamInfo param; |
|
1848 |
|
1849 // TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, TIWLANWHA_MODULE_LOG, MSG_2161,((WHA::Sdot11WepDefaultKeyId*)aData)->iDot11WepDefaultKeyId); |
|
1850 |
|
1851 /* Set security mode to WEP */ |
|
1852 param.paramType = TWD_RSN_SECURITY_MODE_PARAM_ID; |
|
1853 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_WEP; |
|
1854 TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
1855 |
|
1856 param.paramType = TWD_RSN_DEFAULT_KEY_ID_PARAM_ID; |
|
1857 param.content.configureCmdCBParams.pCb = (void*)aData; |
|
1858 param.content.configureCmdCBParams.fCb = NULL; |
|
1859 param.content.configureCmdCBParams.hCb = NULL; |
|
1860 |
|
1861 return (TWD_SetParam (iTwdCtrl.hTWD, ¶m) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1862 } |
|
1863 |
|
1864 /** |
|
1865 * \fn Dot11RTSThreshold |
|
1866 * |
|
1867 * \param aData - *Sdot11RTSThreshold |
|
1868 * \return KSuccess or KFailed |
|
1869 * \sa |
|
1870 */ |
|
1871 WHA::TStatus TIWha::Dot11RTSThreshold (const void *aData) |
|
1872 { |
|
1873 TTwdParamInfo param; |
|
1874 |
|
1875 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "Dot11RTSThreshold ,*aData= 0x%x\n",((WHA::Sdot11RTSThreshold*)aData)->iDot11RTSThreshold); |
|
1876 |
|
1877 param.paramType = TWD_RTS_THRESHOLD_PARAM_ID; |
|
1878 param.content.halCtrlRtsThreshold = ((WHA::Sdot11RTSThreshold*)aData)->iDot11RTSThreshold; |
|
1879 |
|
1880 return (TWD_SetParam (iTwdCtrl.hTWD, ¶m) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1881 } |
|
1882 |
|
1883 /** |
|
1884 * \fn CtsToSelf |
|
1885 * |
|
1886 * \param aData - *SctsToSelf |
|
1887 * \return KSuccess or KFailed |
|
1888 * \sa |
|
1889 */ |
|
1890 WHA::TStatus TIWha::CtsToSelf (const void *aData) |
|
1891 { |
|
1892 TMib Mib; |
|
1893 |
|
1894 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "CtsToSelf, *aData= 0x%x\n", ((WHA::SctsToSelf *)aData)->iCtsToSelf); |
|
1895 |
|
1896 if (NULL == aData) |
|
1897 { |
|
1898 return PARAM_VALUE_NOT_VALID; |
|
1899 } |
|
1900 |
|
1901 Mib.aMib = MIB_ctsToSelf; |
|
1902 Mib.aData.CTSToSelfEnable = (TI_UINT32)((WHA::SctsToSelf *)aData)->iCtsToSelf; |
|
1903 |
|
1904 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1905 } |
|
1906 |
|
1907 /** |
|
1908 * \fn SetArpIpAddrTable |
|
1909 * |
|
1910 * \param aData - *SarpIpAddressTable |
|
1911 * \return KSuccess or KFailed |
|
1912 * \sa |
|
1913 */ |
|
1914 WHA::TStatus TIWha::SetArpIpAddrTable (const void *aData) |
|
1915 { |
|
1916 TMib Mib; |
|
1917 WHA::SarpIpAddressTable *pTable = (WHA::SarpIpAddressTable *)aData; |
|
1918 |
|
1919 if (NULL == aData) |
|
1920 { |
|
1921 return PARAM_VALUE_NOT_VALID; |
|
1922 } |
|
1923 |
|
1924 Mib.aMib = MIB_arpIpAddressesTable; |
|
1925 Mib.aData.ArpIpAddressesTable.FilteringEnable = pTable->iEnable; |
|
1926 |
|
1927 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
1928 Mib.aData.ArpIpAddressesTable.addr, |
|
1929 (void*)&pTable->iIpV4Addr, |
|
1930 sizeof(pTable->iIpV4Addr)); |
|
1931 |
|
1932 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetarpIpAddressesTable,*aData= 0x%x addr = 0x%x\n", pTable->iIpV4Addr, *(TI_UINT32*)Mib.aData.ArpIpAddressesTable.addr); |
|
1933 |
|
1934 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1935 } |
|
1936 |
|
1937 /** |
|
1938 * \fn SetBeaconFilterIETable |
|
1939 * |
|
1940 * \param aData - *SbeaconFilterIeTable |
|
1941 * \return KSuccess or KFailed |
|
1942 * \sa |
|
1943 */ |
|
1944 WHA::TStatus TIWha::SetBeaconFilterIETable (const void *aData) |
|
1945 { |
|
1946 WHA::SbeaconFilterIeTable *pTable = (WHA::SbeaconFilterIeTable *)aData; |
|
1947 TMib Mib; |
|
1948 |
|
1949 if (NULL == aData) |
|
1950 { |
|
1951 return WHA::KFailed; |
|
1952 } |
|
1953 |
|
1954 Mib.aMib = MIB_beaconFilterIETable; |
|
1955 Mib.aData.BeaconFilter.iNumberOfIEs = pTable->iNumofElems; |
|
1956 |
|
1957 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
1958 (void *)Mib.aData.BeaconFilter.iIETable, |
|
1959 (void *)pTable->iIeTable, |
|
1960 sizeof(Mib.aData.BeaconFilter.iIETable)); |
|
1961 |
|
1962 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1963 } |
|
1964 |
|
1965 /** |
|
1966 * \fn SetBeaconFilterEnable |
|
1967 * |
|
1968 * \param aData - *SbeaconFilterEnable |
|
1969 * \return KSuccess or KFailed |
|
1970 * \sa |
|
1971 */ |
|
1972 WHA::TStatus TIWha::SetBeaconFilterEnable (const void *aData) |
|
1973 { |
|
1974 WHA::SbeaconFilterEnable *pEnable = (WHA::SbeaconFilterEnable *)aData; |
|
1975 |
|
1976 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetBeaconFilterEnable, *beaconFilterEnable Data= 0x%x 0x%x\n", pEnable->iEnable, pEnable->iCount); |
|
1977 |
|
1978 return (TWD_CfgBeaconFilterOpt (iTwdCtrl.hTWD, pEnable->iEnable, |
|
1979 (TI_UINT8)pEnable->iCount) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
1980 } |
|
1981 |
|
1982 /** |
|
1983 * \fn SleepMode |
|
1984 * |
|
1985 * \param aSleepMode - TSleepMode |
|
1986 * \return KSuccess or KFailed |
|
1987 * \sa |
|
1988 */ |
|
1989 WHA::TStatus TIWha::SleepMode ( |
|
1990 const WHA::TSleepMode& aSleepMode, /* aSleepMode */ |
|
1991 TBool bResponse) /* whether Response required */ |
|
1992 { |
|
1993 EPowerPolicy powerPolicy; |
|
1994 |
|
1995 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SleepMode = %d\n",aSleepMode); |
|
1996 |
|
1997 /* Save response request flag in the context */ |
|
1998 iTwdCtrl.bResponse = bResponse; |
|
1999 |
|
2000 switch (aSleepMode) |
|
2001 { |
|
2002 case WHA::KAwakeMode: |
|
2003 powerPolicy = POWERAUTHO_POLICY_AWAKE; |
|
2004 break; |
|
2005 case WHA::KPowerDownMode: |
|
2006 powerPolicy = POWERAUTHO_POLICY_ELP; |
|
2007 break; |
|
2008 case WHA::KLowPowerMode: |
|
2009 powerPolicy = POWERAUTHO_POLICY_ELP; |
|
2010 break; |
|
2011 default: |
|
2012 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "Unknown SleepMode %d, setting to AWAKE\n",aSleepMode); |
|
2013 powerPolicy = POWERAUTHO_POLICY_AWAKE; |
|
2014 } |
|
2015 |
|
2016 /* Currently No support for ELP -- Remove comment when ELP will be added */ |
|
2017 //#ifndef ELP_ENABLED |
|
2018 /* Disabling Low Power (ELP) mode */ |
|
2019 powerPolicy = POWERAUTHO_POLICY_AWAKE; |
|
2020 //#endif |
|
2021 |
|
2022 /* Call the power authentication module to set the new power policy */ |
|
2023 return (TWD_CfgSleepAuth (iTwdCtrl.hTWD, powerPolicy) == TI_OK) ? WHA::KPending : WHA::KSuccess; |
|
2024 } |
|
2025 |
|
2026 /** |
|
2027 * \fn WakeUpConditions |
|
2028 * |
|
2029 * \param aData - *SwlanWakeUpInterval |
|
2030 * \return KSuccess or KFailed |
|
2031 * \sa |
|
2032 */ |
|
2033 WHA::TStatus TIWha::WakeUpConditions (const void *aData) |
|
2034 { |
|
2035 WHA::SwlanWakeUpInterval *pWakeUp = (WHA::SwlanWakeUpInterval *)aData; |
|
2036 TPowerMgmtConfig PowerMgmtConfig; |
|
2037 |
|
2038 PowerMgmtConfig.listenInterval = pWakeUp->iListenInterval; |
|
2039 PowerMgmtConfig.tnetWakeupOn = (ETnetWakeOn)pWakeUp->iMode; |
|
2040 |
|
2041 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "WakeUpConditions ,listenInterval = 0x%x ,iWakeUpMode = 0x%x \n", PowerMgmtConfig.listenInterval, PowerMgmtConfig.tnetWakeupOn); |
|
2042 |
|
2043 return (TWD_CfgWakeUpCondition (iTwdCtrl.hTWD, &PowerMgmtConfig) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
2044 } |
|
2045 |
|
2046 /** |
|
2047 * \fn SetBeaconLostCount |
|
2048 * |
|
2049 * \param aData - *SbeaconLostCount |
|
2050 * \return KSuccess or KFailed |
|
2051 * \sa |
|
2052 */ |
|
2053 WHA::TStatus TIWha::SetBeaconLostCount (const void *aData) |
|
2054 { |
|
2055 TRroamingTriggerParams roamingTriggerCmd; |
|
2056 |
|
2057 /* Configure TWD with 'No BSS' thresholds */ |
|
2058 roamingTriggerCmd.BssLossTimeout = NO_BEACON_DEFAULT_TIMEOUT; |
|
2059 roamingTriggerCmd.TsfMissThreshold = (TI_UINT16)((WHA::SbeaconLostCount *)aData)->iLostCount; |
|
2060 |
|
2061 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "SetBeaconLostCount ,BssLossTimeout = 0x%x ,TsfMissThreshold = 0x%x \n", roamingTriggerCmd.BssLossTimeout, roamingTriggerCmd.TsfMissThreshold); |
|
2062 |
|
2063 return (TWD_CfgConnMonitParams (iTwdCtrl.hTWD, &roamingTriggerCmd) == TI_OK) |
|
2064 ? WHA::KSuccess : WHA::KFailed; |
|
2065 } |
|
2066 |
|
2067 /** |
|
2068 * \fn SetRcpiThreshold |
|
2069 * |
|
2070 * \param aData - *SrcpiThreshold |
|
2071 * \description - we are supporting RCI |
|
2072 * \return KSuccess or KFailed |
|
2073 * \sa |
|
2074 */ |
|
2075 |
|
2076 WHA::TStatus TIWha::SetRcpiThreshold (const void *aData) |
|
2077 { |
|
2078 |
|
2079 RssiSnrTriggerCfg_t tTriggerCfg; |
|
2080 WHA::TRcpi iRCPI = *(WHA::TRcpi *)aData; |
|
2081 |
|
2082 tTriggerCfg.index = TRIGGER_EVENT_LOW_RSSI; |
|
2083 if (iRCPI<= TIWha_MIN_RCPI_VAL) |
|
2084 { |
|
2085 tTriggerCfg.threshold = TIWha_MIN_RSSI_VAL; |
|
2086 } |
|
2087 else |
|
2088 { |
|
2089 if (iRCPI >= TIWha_MAX_RCPI_VAL) |
|
2090 { |
|
2091 tTriggerCfg.threshold = TIWha_MAX_RSSI_VAL; |
|
2092 } |
|
2093 else |
|
2094 { |
|
2095 tTriggerCfg.threshold = (iRCPI / 2) + TIWha_MIN_RSSI_VAL; |
|
2096 } |
|
2097 |
|
2098 } |
|
2099 |
|
2100 tTriggerCfg.pacing = TRIGGER_LOW_RSSI_PACING; |
|
2101 tTriggerCfg.metric = METRIC_EVENT_RSSI_BEACON; |
|
2102 tTriggerCfg.type = RX_QUALITY_EVENT_EDGE; |
|
2103 tTriggerCfg.direction = RSSI_EVENT_DIR_LOW; |
|
2104 tTriggerCfg.hystersis = 3; |
|
2105 tTriggerCfg.enable = TI_TRUE; |
|
2106 |
|
2107 |
|
2108 |
|
2109 if (TI_OK == TWD_CfgRssiSnrTrigger (iTwdCtrl.hTWD, &tTriggerCfg)) |
|
2110 { |
|
2111 return WHA::KSuccess; |
|
2112 } |
|
2113 else |
|
2114 { |
|
2115 return WHA::KFailed; |
|
2116 } |
|
2117 |
|
2118 |
|
2119 } |
|
2120 |
|
2121 |
|
2122 /** |
|
2123 * \fn TxRatePolicy |
|
2124 * |
|
2125 * \param aData - *StxRatePolicy |
|
2126 * \return KSuccess or KFailed |
|
2127 * \sa |
|
2128 */ |
|
2129 WHA::TStatus TIWha::TxRatePolicy ( |
|
2130 TUint32 aLength, /* Specifies the length of the MIB */ |
|
2131 const void *aData) /* Pointer to the MIB data */ |
|
2132 { |
|
2133 TMib Mib; |
|
2134 TUint32 i; |
|
2135 WHA::StxRatePolicy *pPolicy = (WHA::StxRatePolicy*) aData; |
|
2136 |
|
2137 if (NULL == aData) |
|
2138 { |
|
2139 return PARAM_VALUE_NOT_VALID; |
|
2140 } |
|
2141 |
|
2142 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "TxRatePolicy Num of Policies = %d \n",pPolicy->iNumOfPolicyObjects); |
|
2143 |
|
2144 if (pPolicy->iNumOfPolicyObjects > MAX_NUM_OF_TX_RATE_CLASS_POLICIES) |
|
2145 { |
|
2146 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "ERROR: Can't configure more than %d Classes",MAX_NUM_OF_TX_RATE_CLASS_POLICIES); |
|
2147 } |
|
2148 |
|
2149 Mib.aMib = MIB_txRatePolicy; |
|
2150 /* The length field is not in use */ |
|
2151 Mib.Length = 0; |
|
2152 Mib.aData.txRatePolicy.numOfRateClasses = pPolicy->iNumOfPolicyObjects; |
|
2153 |
|
2154 for (i = 0; i < pPolicy->iNumOfPolicyObjects; i++) |
|
2155 { |
|
2156 |
|
2157 Mib.aData.txRatePolicy.rateClass[i].txEnabledRates = 0; |
|
2158 |
|
2159 /* MCS rates not support in Symbian structure */ |
|
2160 (pPolicy->iTxRateClass[i].iTxPolicy54) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_54MBPS : NULL; |
|
2161 (pPolicy->iTxRateClass[i].iTxPolicy48) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_48MBPS : NULL; |
|
2162 (pPolicy->iTxRateClass[i].iTxPolicy36) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_36MBPS : NULL; |
|
2163 /* 33Mbps not support in TWD */ |
|
2164 (pPolicy->iTxRateClass[i].iTxPolicy24) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_24MBPS : NULL; |
|
2165 (pPolicy->iTxRateClass[i].iTxPolicy22) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_22MBPS : NULL; |
|
2166 (pPolicy->iTxRateClass[i].iTxPolicy18) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_18MBPS : NULL; |
|
2167 (pPolicy->iTxRateClass[i].iTxPolicy12) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_12MBPS : NULL; |
|
2168 (pPolicy->iTxRateClass[i].iTxPolicy11) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_11MBPS : NULL; |
|
2169 (pPolicy->iTxRateClass[i].iTxPolicy9) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_9MBPS : NULL; |
|
2170 (pPolicy->iTxRateClass[i].iTxPolicy6) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_6MBPS : NULL; |
|
2171 (pPolicy->iTxRateClass[i].iTxPolicy5_5) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_5_5MBPS : NULL; |
|
2172 (pPolicy->iTxRateClass[i].iTxPolicy2) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_2MBPS : NULL; |
|
2173 (pPolicy->iTxRateClass[i].iTxPolicy1) ? Mib.aData.txRatePolicy.rateClass[i].txEnabledRates |= HW_BIT_RATE_1MBPS : NULL; |
|
2174 |
|
2175 //os_printf("Policy[%d] is %x ",i,Mib.aData.txRatePolicy.rateClass[i]); |
|
2176 Mib.aData.txRatePolicy.rateClass[i].longRetryLimit = pPolicy->iTxRateClass[i].iLongRetryLimit; |
|
2177 Mib.aData.txRatePolicy.rateClass[i].shortRetryLimit = pPolicy->iTxRateClass[i].iShortRetryLimit; |
|
2178 |
|
2179 } |
|
2180 |
|
2181 return (TWD_WriteMib (iTwdCtrl.hTWD, &Mib) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
2182 /*return WHA::KSuccess;*/ |
|
2183 } |
|
2184 |
|
2185 |
|
2186 /** |
|
2187 * \fn btCoexistenceMode |
|
2188 * |
|
2189 * \param aData - *TBTCoexMode |
|
2190 * \ indicats 3 operation modes |
|
2191 * 0 - Disable |
|
2192 * 1 - Enable |
|
2193 * 2 - Auto |
|
2194 * \return KSuccess or KFailed |
|
2195 * \sa |
|
2196 */ |
|
2197 WHA::TStatus TIWha::btCoexistenceMode(TUint32 aLength, const void *aData) |
|
2198 { |
|
2199 ESoftGeminiEnableModes *pSGMode = (ESoftGeminiEnableModes*)aData; |
|
2200 TTwdParamInfo iParamInfo; |
|
2201 |
|
2202 iParamInfo.paramType = TWD_SG_ENABLE_PARAM_ID; |
|
2203 iParamInfo.paramLength = aLength; |
|
2204 switch (*pSGMode) |
|
2205 { |
|
2206 case SG_PROTECTIVE: |
|
2207 case SG_OPPORTUNISTIC: |
|
2208 iParamInfo.content.SoftGeminiEnable = SG_OPPORTUNISTIC; |
|
2209 TWD_SetParam(iTwdCtrl.hTWD,&iParamInfo); |
|
2210 break; |
|
2211 |
|
2212 case SG_DISABLE: |
|
2213 iParamInfo.content.SoftGeminiEnable = SG_DISABLE; |
|
2214 TWD_SetParam(iTwdCtrl.hTWD,&iParamInfo); |
|
2215 break; |
|
2216 |
|
2217 default: |
|
2218 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "btCoexistenceMode - Value Invalide = %d",*pSGMode); |
|
2219 return WHA::KFailed; |
|
2220 } |
|
2221 return WHA::KSuccess; |
|
2222 } |
|
2223 |
|
2224 /** |
|
2225 * \fn btCoexistenceProfile |
|
2226 * |
|
2227 * \param aData - *ESoftGeminiEnableProfile |
|
2228 * \ indicats 3 operation modes |
|
2229 * 0 - Data-Data |
|
2230 * 1 - VOIP-A2DP/Data |
|
2231 * 2 - Data -A2DP |
|
2232 * \return KSuccess or KFailed |
|
2233 * \sa |
|
2234 */ |
|
2235 WHA::TStatus TIWha::btCoexistenceProfile(TUint32 aLength, const void *aData) |
|
2236 { |
|
2237 ESoftGeminiEnableProfile* pSGProfile = (ESoftGeminiEnableProfile*)aData; |
|
2238 TTwdParamInfo iParamInfo; |
|
2239 |
|
2240 iParamInfo.paramType = TWD_SG_CONFIG_PARAM_ID; |
|
2241 iParamInfo.paramLength = aLength; |
|
2242 |
|
2243 |
|
2244 switch (*pSGProfile) |
|
2245 { |
|
2246 case BtCoexProfData: |
|
2247 iSgParams.coexParams[SOFT_GEMINI_BT_LOAD_RATIO] = 50; |
|
2248 break; |
|
2249 |
|
2250 case BtCoexProfDataLowLatency: |
|
2251 iSgParams.coexParams[SOFT_GEMINI_BT_LOAD_RATIO] = 50; |
|
2252 break; |
|
2253 |
|
2254 case BtCoexProfA2DP: |
|
2255 iSgParams.coexParams[SOFT_GEMINI_BT_LOAD_RATIO] = 71; |
|
2256 break; |
|
2257 |
|
2258 default: |
|
2259 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "btCoexistenceProfile - Value Invalide = %d",*pSGProfile); |
|
2260 return WHA::KFailed; |
|
2261 } |
|
2262 |
|
2263 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iParamInfo.content.SoftGeminiParam,&iSgParams,sizeof(TSoftGeminiParams)); |
|
2264 TWD_SetParam(iTwdCtrl.hTWD,&iParamInfo); |
|
2265 return WHA::KSuccess; |
|
2266 } |
|
2267 |
|
2268 |
|
2269 /** |
|
2270 * \fn TConvertTwdHtCapa2SHtCapa |
|
2271 * \brief Convert the TTwdHtCapabilities structure to WHA::SHtCapabilities structure |
|
2272 * |
|
2273 * \param TTwdHtCapabilities |
|
2274 * \param WHA::SHtCapabilities |
|
2275 * |
|
2276 * /note |
|
2277 * |
|
2278 * /return none |
|
2279 */ |
|
2280 #ifdef HT_SUPPORT |
|
2281 void TIWha::TConvertTwdHtCapa2SHtCapa (TTwdHtCapabilities* pTwdHtCapabilities,WHA::SHtCapabilities* pHtCapabilities) |
|
2282 { |
|
2283 os_memoryZero (&iTwdCtrl.tOsContext,pHtCapabilities,sizeof(WHA::SHtCapabilities)); |
|
2284 pHtCapabilities->iHTCapabilitiesBitMask = ( |
|
2285 #ifdef GREENFIELD_FRAME_SUPPORT |
|
2286 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_GREENFIELD_FRAME_FORMAT) << 2) | |
|
2287 #endif |
|
2288 #ifdef SHORT_GI_SUPPORT |
|
2289 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_SHORT_GI_FOR_20MHZ_PACKETS) << 2) | |
|
2290 #endif |
|
2291 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_SHORT_GI_FOR_40MHZ_PACKETS) << 2) | |
|
2292 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_SUPPORT_FOR_STBC_IN_TRANSMISSION) << 2) | |
|
2293 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_DELAYED_BLOCK_ACK) << 2) | |
|
2294 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_DSSS_CCK_IN_40_MHZ) << 2) | |
|
2295 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_LSIG_TXOP_PROTECTION) << 3) | |
|
2296 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_PCO) << 3) | |
|
2297 ((pTwdHtCapabilities->uHTCapabilitiesBitMask & CAP_BIT_MASK_LDPC_CODING) >> 8)); |
|
2298 |
|
2299 pHtCapabilities->iRxMaxDataRate = pTwdHtCapabilities->uRxMaxDataRate; |
|
2300 |
|
2301 pHtCapabilities->iChannelWidth = pTwdHtCapabilities->uChannelWidth; |
|
2302 |
|
2303 #ifdef RXSTBC_SUPPORT |
|
2304 pHtCapabilities->iRxStbc = pTwdHtCapabilities->uRxSTBC; |
|
2305 #else |
|
2306 pHtCapabilities->iRxStbc = RXSTBC_NOT_SUPPORTED; |
|
2307 #endif |
|
2308 |
|
2309 pHtCapabilities->iMaxAmsdu = pTwdHtCapabilities->uMaxAMSDU; |
|
2310 |
|
2311 pHtCapabilities->iMaxAmpdu = pTwdHtCapabilities->uMaxAMPDU; |
|
2312 |
|
2313 pHtCapabilities->iAmpduSpacing = pTwdHtCapabilities->uAMPDUSpacing; |
|
2314 |
|
2315 //pHtCapabilities->iRxMcs = pTwdHtCapabilities->aRxMCS; |
|
2316 os_memoryCopy(&iTwdCtrl.tOsContext,pHtCapabilities->iRxMcs,pTwdHtCapabilities->aRxMCS,sizeof(WHA::THtMcsSet)); |
|
2317 |
|
2318 //pHtCapabilities->iTxMcs = pTwdHtCapabilities->aTxMCS; |
|
2319 |
|
2320 os_memoryCopy(&iTwdCtrl.tOsContext,pHtCapabilities->iTxMcs,pTwdHtCapabilities->aTxMCS,sizeof(WHA::THtMcsSet)); |
|
2321 |
|
2322 pHtCapabilities->iPcoTransTime = pTwdHtCapabilities->uPCOTransTime; |
|
2323 |
|
2324 pHtCapabilities->iMcsFeedback = pTwdHtCapabilities->uMCSFeedback; |
|
2325 } |
|
2326 #endif /* HT_SUPPORT */ |
|
2327 |
|
2328 /** |
|
2329 * \fn SetHTCapabilities |
|
2330 * \brief set the HT capabilities of the AP coming from become/prob resp to FW |
|
2331 * |
|
2332 * \param ShtCapabilities |
|
2333 * |
|
2334 * /note |
|
2335 * |
|
2336 * /return OK for sucsses NOK for failed |
|
2337 */ |
|
2338 #ifdef HT_SUPPORT |
|
2339 WHA::TStatus TIWha::SetHTCapabilities (WHA::ShtCapabilities* pApCapabilities) |
|
2340 { |
|
2341 Tdot11HtCapabilitiesUnparse aHtCapabilitiesUnparse; |
|
2342 Tdot11HtCapabilitiesUnparse* pHtCapabilitiesUnparse = &aHtCapabilitiesUnparse; |
|
2343 |
|
2344 os_memoryZero(&iTwdCtrl.tOsContext,pHtCapabilitiesUnparse, sizeof(Tdot11HtCapabilitiesUnparse)); |
|
2345 /* Etract the HT Capabilities for FW, at this poin we ignore the HT Control field bit |
|
2346 since no support in FW */ |
|
2347 pHtCapabilitiesUnparse->aHtCapabilitiesIe[1] |= (((pApCapabilities->iPeerFeatures & WHA::KGreenfieldFormat) ? HT_CAP_GREENFIELD_FRAME_FORMAT_BITMASK : 0) | |
|
2348 ((pApCapabilities->iPeerFeatures & WHA::KShortGiFor20Mhz) ? HT_CAP_SHORT_GI_FOR_20MHZ_BITMASK : 0)); |
|
2349 |
|
2350 pHtCapabilitiesUnparse->aHtCapabilitiesIe[0] |= (((pApCapabilities->iPeerFeatures & WHA::KLsigTxopProtection) ? (HT_CAP_LSIG_TXOP_PROTECTION_BITMASK >> 8) : 0) | |
|
2351 ((pApCapabilities->iPeerFeatures & WHA::KReverseDirectionResp) ? (HT_EXT_RD_INITIATION_BITMASK >> 8) : 0)); |
|
2352 |
|
2353 |
|
2354 pHtCapabilitiesUnparse->aHtCapabilitiesIe[0] |= ((pApCapabilities->iPeerFeatures & WHA::KHtcField) ? (HT_EXT_HT_CONTROL_FIELDS_BITMASK >> 8) : 0); |
|
2355 |
|
2356 /* Extract the MAX MPDU and MPDU Spacing */ |
|
2357 pHtCapabilitiesUnparse->aHtCapabilitiesIe[HT_CAP_AMPDU_PARAMETERS_FIELD_OFFSET] = ((pApCapabilities->iMaxAmpduLength) | |
|
2358 (pApCapabilities->iAmpduSpacing << 2)); |
|
2359 |
|
2360 |
|
2361 return TWD_CfgSetFwHtCapabilities(iTwdCtrl.hTWD,pHtCapabilitiesUnparse,(pApCapabilities->iHtSupport > 0 ? TI_TRUE : TI_FALSE)); |
|
2362 } |
|
2363 #endif /* HT_SUPPORT */ |
|
2364 |
|
2365 |
|
2366 /** |
|
2367 * \fn SetHTInformation |
|
2368 * \brief set the HT Information to FW |
|
2369 * |
|
2370 * \param ShtBssOperation |
|
2371 * |
|
2372 * /note |
|
2373 * |
|
2374 * /return OK for sucsses NOK for failed |
|
2375 */ |
|
2376 #ifdef HT_SUPPORT |
|
2377 WHA::TStatus TIWha::SetHTInformation (WHA::ShtBssOperation* pHtInformarion) |
|
2378 { |
|
2379 Tdot11HtInformationUnparse aHtInformationUnparse; |
|
2380 Tdot11HtInformationUnparse* pHtInformationUnparse = &aHtInformationUnparse; |
|
2381 |
|
2382 pHtInformationUnparse->aHtInformationIe[1] = ((pHtInformarion->iInfo & WHA::ShtBssOperation::KRifsPermitted) ? WHA::ShtBssOperation::KRifsPermitted : 0); |
|
2383 pHtInformationUnparse->aHtInformationIe[2] = pHtInformarion->iOpMode; |
|
2384 pHtInformationUnparse->aHtInformationIe[3] = (((pHtInformarion->iInfo & WHA::ShtBssOperation::KNonGreenfieldPresent) ? HT_INF_NON_GF_PRES_BITMASK : 0)); |
|
2385 |
|
2386 pHtInformationUnparse->aHtInformationIe[4] = ((pHtInformarion->iInfo & WHA::ShtBssOperation::KDualCtsProtReq) ? HT_INF_DUAL_BEACON_BITMASK : 0); |
|
2387 |
|
2388 /* Save the MCS rates for use in Join command at basic rates */ |
|
2389 os_memoryCopy(&iTwdCtrl.tOsContext,iMcsRates,pHtInformarion->iMcsSet,sizeof(WHA::THtMcsSet)); |
|
2390 |
|
2391 return TWD_CfgSetFwHtInformation(iTwdCtrl.hTWD,pHtInformationUnparse); |
|
2392 } |
|
2393 #endif /* HT_SUPPORT */ |
|
2394 |
|
2395 |
|
2396 /** |
|
2397 * \fn ConfigureBA |
|
2398 * \brief configure the BA initiator and BA receiver |
|
2399 * |
|
2400 * \param ShtBssOperation |
|
2401 * |
|
2402 * /note |
|
2403 * |
|
2404 * /return OK for sucsses NOK for failed |
|
2405 */ |
|
2406 #ifdef HT_SUPPORT |
|
2407 WHA::TStatus TIWha::ConfigureBA (WHA::ShtBlockAckConfigure* pBABitMask) |
|
2408 { |
|
2409 WHA::TStatus status = TI_NOK; |
|
2410 iBACounertRespone = 0; |
|
2411 #ifndef __AMSDU_MODE__ |
|
2412 |
|
2413 // Check for which TID is enabled for BA session |
|
2414 |
|
2415 #ifdef TX_BA_SUPPORT |
|
2416 /* Set all Transmit BA Support */ |
|
2417 for (int i = 0;i <= MAX_NUM_OF_802_1d_TAGS; i++) |
|
2418 { |
|
2419 if (((pBABitMask->iTxBlockAckUsage >> i) & 0x1) > ((iTxBlockAckUsageLast >> i) & 0x1)) |
|
2420 { |
|
2421 status = TWD_CfgSetBaInitiator(iTwdCtrl.hTWD,i,TRUE,iJoinedMacAddress,RX_QUEUE_WIN_SIZE,HT_BA_INACTIVITY_TIMEOUT_DEF); |
|
2422 iBACounertRespone++; |
|
2423 } |
|
2424 else { |
|
2425 if (((pBABitMask->iTxBlockAckUsage >> i) & 0x1) < ((iTxBlockAckUsageLast >> i) & 0x1)) |
|
2426 { |
|
2427 status = TWD_CfgSetBaInitiator(iTwdCtrl.hTWD,i,FALSE,iJoinedMacAddress,RX_QUEUE_WIN_SIZE,HT_BA_INACTIVITY_TIMEOUT_DEF); |
|
2428 iBACounertRespone++; |
|
2429 } |
|
2430 } |
|
2431 } |
|
2432 iTxBlockAckUsageLast = pBABitMask->iTxBlockAckUsage; |
|
2433 #endif |
|
2434 |
|
2435 /* Set all Receive BA */ |
|
2436 |
|
2437 for (int i = 0;i <= MAX_NUM_OF_802_1d_TAGS; i++) |
|
2438 { |
|
2439 if (((pBABitMask->iRxBlockAckUsage >> i) & 0x1) > ((iRxBlockAckUsageLast >> i) & 0x1)) |
|
2440 { |
|
2441 status = TWD_CfgSetBaReceiver(iTwdCtrl.hTWD,i,TRUE,iJoinedMacAddress,RX_QUEUE_WIN_SIZE); |
|
2442 iBACounertRespone++; |
|
2443 } |
|
2444 else { |
|
2445 if (((pBABitMask->iRxBlockAckUsage >> i) & 0x1) < ((iRxBlockAckUsageLast >> i) & 0x1)) |
|
2446 { |
|
2447 status = TWD_CfgSetBaReceiver(iTwdCtrl.hTWD,i,FALSE,iJoinedMacAddress,RX_QUEUE_WIN_SIZE); |
|
2448 iBACounertRespone++; |
|
2449 } |
|
2450 } |
|
2451 } |
|
2452 |
|
2453 |
|
2454 /* Save the current BA vectors */ |
|
2455 iRxBlockAckUsageLast = pBABitMask->iRxBlockAckUsage; |
|
2456 #endif |
|
2457 return status; |
|
2458 } |
|
2459 #endif /* HT_SUPPORT */ |
|
2460 |
|
2461 /** |
|
2462 * \fn TxAutoRatePolicy |
|
2463 * \brief Specifies the supported rates |
|
2464 * |
|
2465 * \param StxAutoRatePolicy |
|
2466 * |
|
2467 * /note |
|
2468 * |
|
2469 * /return OK for sucsses NOK for failed |
|
2470 */ |
|
2471 WHA::TStatus TIWha::TxAutoRatePolicy (WHA::StxAutoRatePolicy* pTxAutoRatePolicy) |
|
2472 { |
|
2473 iTxRatePolicy.aMib = MIB_txRatePolicy; |
|
2474 /* The length field is not in use */ |
|
2475 iTxRatePolicy.Length = 0; |
|
2476 /* we only have 1 policy since FW decide on which rate to use */ |
|
2477 iTxRatePolicy.aData.txRatePolicy.numOfRateClasses = pTxAutoRatePolicy->iTxRateClassId; |
|
2478 |
|
2479 #ifdef HT_SUPPORT |
|
2480 iTxRatePolicy.aData.txRatePolicy.rateClass[pTxAutoRatePolicy->iTxRateClassId - 1].txEnabledRates = TIWhaUtils::HTWhaRateToRatePolicy(pTxAutoRatePolicy); |
|
2481 #else |
|
2482 iTxRatePolicy.aData.txRatePolicy.rateClass[pTxAutoRatePolicy->iTxRateClassId - 1].txEnabledRates = TIWhaUtils::WhaRateToRatePolicy(pTxAutoRatePolicy); |
|
2483 #endif |
|
2484 |
|
2485 #ifdef ALL_RATES_OPEN_DEBUG |
|
2486 if ( iTxRatePolicy.aData.txRatePolicy.rateClass[pTxAutoRatePolicy->iTxRateClassId - 1].txEnabledRates & HW_BIT_RATE_54MBPS) |
|
2487 { |
|
2488 iTxRatePolicy.aData.txRatePolicy.rateClass[pTxAutoRatePolicy->iTxRateClassId - 1].txEnabledRates = 0x1DFF; |
|
2489 } |
|
2490 #endif |
|
2491 |
|
2492 iTxRatePolicy.aData.txRatePolicy.rateClass[pTxAutoRatePolicy->iTxRateClassId - 1].shortRetryLimit = pTxAutoRatePolicy->iShortRetryLimit; |
|
2493 iTxRatePolicy.aData.txRatePolicy.rateClass[pTxAutoRatePolicy->iTxRateClassId - 1].longRetryLimit = pTxAutoRatePolicy->iLongRetryLimit; |
|
2494 |
|
2495 return (TWD_WriteMib (iTwdCtrl.hTWD, &iTxRatePolicy) == TI_OK) ? WHA::KSuccess : WHA::KFailed; |
|
2496 } |
|
2497 |
|
2498 /** |
|
2499 * \fn SetPowerSavePowerLevel |
|
2500 * \brief Set the Power save power level |
|
2501 * |
|
2502 * |
|
2503 * /note |
|
2504 * |
|
2505 * /return |
|
2506 */ |
|
2507 void TIWha::SetPowerSavePowerLevel(void *aMib) |
|
2508 { |
|
2509 //os_printf("SetPowerSavePowerLevel send EPowerPolicy = %d",*((EPowerPolicy*)aMib)); |
|
2510 TWD_CfgSleepAuth(iTwdCtrl.hTWD, *((EPowerPolicy*)aMib)); |
|
2511 } |
|
2512 |
|
2513 |
|
2514 /** |
|
2515 * \fn SoftGemini_SetParams |
|
2516 * \brief initialization of Soft Gemini parameters |
|
2517 * |
|
2518 * used for init stage to initialize the SG parameters |
|
2519 * /note |
|
2520 * |
|
2521 * /return |
|
2522 */ |
|
2523 |
|
2524 TI_STATUS TIWha::SoftGemini_SetParams (TI_HANDLE hTWD, TSoftGeminiParams *pSgParams,ESoftGeminiEnableModes aSgMode ) |
|
2525 { |
|
2526 TTwdParamInfo iParamInfo; |
|
2527 |
|
2528 iParamInfo.paramType = TWD_SG_CONFIG_PARAM_ID; |
|
2529 iParamInfo.paramLength = sizeof(TSoftGeminiParams); |
|
2530 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iParamInfo.content.SoftGeminiParam,&iSgParams,sizeof(TSoftGeminiParams)); |
|
2531 TWD_SetParam(iTwdCtrl.hTWD,&iParamInfo); |
|
2532 |
|
2533 iParamInfo.paramType = TWD_SG_ENABLE_PARAM_ID; |
|
2534 iParamInfo.paramLength = sizeof(ESoftGeminiEnableModes); |
|
2535 iParamInfo.content.SoftGeminiEnable = aSgMode; |
|
2536 TWD_SetParam(iTwdCtrl.hTWD,&iParamInfo); |
|
2537 return TI_OK; |
|
2538 } |
|
2539 |
|
2540 /** |
|
2541 * \fn ConfigureBtCoex |
|
2542 * \brief Set the Soft Gemini parameters and send it to FW |
|
2543 * |
|
2544 * \note |
|
2545 * \return KSuccess or KFailed |
|
2546 * \sa |
|
2547 */ |
|
2548 void TIWha::InitBtCoex() |
|
2549 { |
|
2550 |
|
2551 /* Set Static parameters */ |
|
2552 |
|
2553 /* Setting the ratio for each profile */ |
|
2554 /* Both coexBtLoadRatio & coexBtLoadRatio are 50/50 profiles */ |
|
2555 /* The default profile is set to BtCoexProfData */ |
|
2556 switch (BTCOEX_DEFAULT_PROFILE) |
|
2557 { |
|
2558 case BtCoexProfData: |
|
2559 iSgParams.coexParams[SOFT_GEMINI_BT_LOAD_RATIO] = 50; |
|
2560 break; |
|
2561 |
|
2562 case BtCoexProfDataLowLatency: |
|
2563 iSgParams.coexParams[SOFT_GEMINI_BT_LOAD_RATIO] = 50; |
|
2564 break; |
|
2565 |
|
2566 case BtCoexProfA2DP: |
|
2567 iSgParams.coexParams[SOFT_GEMINI_BT_LOAD_RATIO] = 71; |
|
2568 break; |
|
2569 |
|
2570 default: |
|
2571 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "btCoexistenceProfile - Value Invalide = %d",BTCOEX_DEFAULT_PROFILE); |
|
2572 return; |
|
2573 } |
|
2574 |
|
2575 iSgParams.coexParams[SOFT_GEMINI_BT_PER_THRESHOLD] = 7500; |
|
2576 iSgParams.coexParams[SOFT_GEMINI_HV3_MAX_OVERRIDE] = 0; |
|
2577 iSgParams.coexParams[SOFT_GEMINI_BT_NFS_SAMPLE_INTERVAL] = 400; |
|
2578 iSgParams.coexParams[SOFT_GEMINI_AUTO_PS_MODE] = 0; |
|
2579 iSgParams.coexParams[SOFT_GEMINI_AUTO_SCAN_PROBE_REQ] = 170; |
|
2580 iSgParams.coexParams[SOFT_GEMINI_ACTIVE_SCAN_DURATION_FACTOR_HV3] = 50; |
|
2581 iSgParams.coexParams[SOFT_GEMINI_ANTENNA_CONFIGURATION] = 0; |
|
2582 iSgParams.coexParams[SOFT_GEMINI_BEACON_MISS_PERCENT] = 60; |
|
2583 iSgParams.coexParams[SOFT_GEMINI_RATE_ADAPT_THRESH] = 21; /* Set to MCS_7 */ |
|
2584 #ifdef ENHANCED_OPPORTUNISTIC |
|
2585 iSgParams.coexParams[SOFT_GEMINI_RATE_ADAPT_SNR] = 1; |
|
2586 #else |
|
2587 iSgParams.coexParams[SOFT_GEMINI_RATE_ADAPT_SNR]= 0; |
|
2588 #endif |
|
2589 |
|
2590 |
|
2591 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_MASTER_MIN_BR] = 10; |
|
2592 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_MASTER_MAX_BR] = 30; |
|
2593 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_MAX_BT_ACL_MASTER_BR] = 8; |
|
2594 |
|
2595 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_SLAVE_MIN_BR] = 20; |
|
2596 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_SLAVE_MAX_BR] = 50; |
|
2597 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_MAX_BT_ACL_SLAVE_BR] = 8; |
|
2598 |
|
2599 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_MASTER_MIN_EDR] = 7; |
|
2600 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_MASTER_MAX_EDR] = 25; |
|
2601 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_MAX_BT_ACL_MASTER_EDR] = 20; |
|
2602 |
|
2603 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_SLAVE_MIN_EDR] = 8; |
|
2604 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_BT_ACL_SLAVE_MAX_EDR] = 40; |
|
2605 iSgParams.coexParams[SOFT_GEMINI_WLAN_PS_MAX_BT_ACL_SLAVE_EDR] = 12; |
|
2606 iSgParams.coexParams[SOFT_GEMINI_RXT] = 1200; |
|
2607 iSgParams.coexParams[SOFT_GEMINI_TXT] = 1500; |
|
2608 iSgParams.coexParams[SOFT_GEMINI_ADAPTIVE_RXT_TXT] = 1; |
|
2609 iSgParams.coexParams[SOFT_GEMINI_PS_POLL_TIMEOUT] = 10; |
|
2610 iSgParams.coexParams[SOFT_GEMINI_UPSD_TIMEOUT] = 10; |
|
2611 iSgParams.coexParams[SOFT_GEMINI_UPSD_TIMEOUT] = 10; |
|
2612 |
|
2613 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_BT_ACL_MASTER_MIN_EDR] = 7; |
|
2614 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_BT_ACL_MASTER_MAX_EDR] = 15; |
|
2615 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_MAX_BT_ACL_MASTER_EDR] = 15; |
|
2616 |
|
2617 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_BT_ACL_SLAVE_MIN_EDR] = 8; |
|
2618 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_BT_ACL_SLAVE_MAX_EDR] = 20; |
|
2619 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_MAX_BT_ACL_SLAVE_EDR] = 15; |
|
2620 |
|
2621 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_BT_ACL_MIN_BR] = 20; |
|
2622 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_BT_ACL_MAX_BR] = 50; |
|
2623 iSgParams.coexParams[SOFT_GEMINI_WLAN_ACTIVE_MAX_BT_ACL_BR] = 5; |
|
2624 |
|
2625 iSgParams.coexParams[SOFT_GEMINI_PASSIVE_SCAN_DURATION_FACTOR_HV3] = 200; |
|
2626 iSgParams.coexParams[SOFT_GEMINI_PASSIVE_SCAN_DURATION_FACTOR_A2DP] = 800; |
|
2627 iSgParams.coexParams[SOFT_GEMINI_PASSIVE_SCAN_BT_TIME] = 75; |
|
2628 iSgParams.coexParams[SOFT_GEMINI_PASSIVE_SCAN_WLAN_TIME] = 15; |
|
2629 iSgParams.coexParams[SOFT_GEMINI_HV3_MAX_SERVED] = 6; |
|
2630 |
|
2631 iSgParams.coexParams[SOFT_GEMINI_DHCP_TIME] = 5000; |
|
2632 iSgParams.coexParams[SOFT_GEMINI_ACTIVE_SCAN_DURATION_FACTOR_A2DP] = 100; |
|
2633 |
|
2634 iSgParams.coexParams[SOFT_GEMINI_TEMP_PARAM_1] = 0; |
|
2635 iSgParams.coexParams[SOFT_GEMINI_TEMP_PARAM_2] = 0; |
|
2636 iSgParams.coexParams[SOFT_GEMINI_TEMP_PARAM_3] = 0; |
|
2637 iSgParams.coexParams[SOFT_GEMINI_TEMP_PARAM_4] = 0; |
|
2638 iSgParams.coexParams[SOFT_GEMINI_TEMP_PARAM_5] = 0; |
|
2639 } |
|
2640 |
|
2641 |
|
2642 /** |
|
2643 * \fn AddKey |
|
2644 * \brief Add key according to the key type |
|
2645 * |
|
2646 * \note In case we already used the given index, we remove the old key |
|
2647 * \return |
|
2648 * \sa |
|
2649 */ |
|
2650 void TIWha::AddKey( |
|
2651 WHA::TKeyType aType, |
|
2652 const void* aKey, |
|
2653 TUint8 aEntryIndex ) |
|
2654 { |
|
2655 TTwdParamInfo param; |
|
2656 TSecurityKeys key; |
|
2657 TI_STATUS status; |
|
2658 |
|
2659 os_memoryZero ((TI_HANDLE)&iTwdCtrl.tOsContext, &key, sizeof(TSecurityKeys)); |
|
2660 |
|
2661 if (aEntryIndex >= TIWha_MAX_PRIVACY_KEY_INDEX) |
|
2662 { |
|
2663 ASSERT_ERR (iTwdCtrl.hReport, "Invalid index=%d\n", aEntryIndex) |
|
2664 } |
|
2665 |
|
2666 /* if the Key already exists, we remove it, and add the new one */ |
|
2667 /* we check the encLen field beacuse if there is key in this entry */ |
|
2668 /* the encLen field is always different than zero */ |
|
2669 if (iTwdCtrl.privacyKey[aEntryIndex].encLen !=0) |
|
2670 { |
|
2671 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "Remove duplicate Key from AddKey, aEntryIndex= 0x%x\n", aEntryIndex); |
|
2672 RemoveKey(aEntryIndex); |
|
2673 } |
|
2674 else |
|
2675 { |
|
2676 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "AddKey, New key aEntryIndex= 0x%x, encLen= %d \n", aEntryIndex, iTwdCtrl.privacyKey[aEntryIndex].encLen); |
|
2677 } |
|
2678 |
|
2679 /* Set the security mode */ |
|
2680 switch (aType) |
|
2681 { |
|
2682 case WHA::EWepGroupKey: |
|
2683 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_WEP; |
|
2684 iTwdCtrl.eGroupKeyMode = TWD_CIPHER_WEP; |
|
2685 break; |
|
2686 |
|
2687 case WHA::EWepPairWiseKey: |
|
2688 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_WEP; |
|
2689 iTwdCtrl.ePairwiseKeyMode = TWD_CIPHER_WEP; |
|
2690 break; |
|
2691 |
|
2692 case WHA::ETkipGroupKey: |
|
2693 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_TKIP; |
|
2694 iTwdCtrl.eGroupKeyMode = TWD_CIPHER_TKIP; |
|
2695 break; |
|
2696 |
|
2697 case WHA::ETkipPairWiseKey: |
|
2698 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_TKIP; |
|
2699 iTwdCtrl.ePairwiseKeyMode = TWD_CIPHER_TKIP; |
|
2700 break; |
|
2701 |
|
2702 case WHA::EAesGroupKey: |
|
2703 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_AES_CCMP; |
|
2704 iTwdCtrl.eGroupKeyMode = TWD_CIPHER_AES_CCMP; |
|
2705 break; |
|
2706 |
|
2707 case WHA::EAesPairWiseKey: |
|
2708 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_AES_CCMP; |
|
2709 iTwdCtrl.ePairwiseKeyMode = TWD_CIPHER_AES_CCMP; |
|
2710 break; |
|
2711 |
|
2712 #ifdef GEM_SUPPORT |
|
2713 case GEMGroupKey: |
|
2714 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_GEM; |
|
2715 iTwdCtrl.eGroupKeyMode = TWD_CIPHER_GEM; |
|
2716 break; |
|
2717 |
|
2718 case GEMPairWiseKey: |
|
2719 param.content.rsnEncryptionStatus = (ECipherSuite)TWD_CIPHER_GEM; |
|
2720 iTwdCtrl.ePairwiseKeyMode = TWD_CIPHER_GEM; |
|
2721 break; |
|
2722 #endif |
|
2723 |
|
2724 default: |
|
2725 ASSERT_ERR (iTwdCtrl.hReport, "Unknown key type=%d\n", aType) |
|
2726 } |
|
2727 |
|
2728 param.paramType = TWD_RSN_SECURITY_MODE_PARAM_ID; |
|
2729 TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
2730 |
|
2731 /* Converts the AddKey back to the correlated TWD command */ |
|
2732 if (ConstructAddKey (&key, |
|
2733 aType, |
|
2734 aKey, |
|
2735 aEntryIndex) != WHA::KSuccess) |
|
2736 { |
|
2737 ASSERT_ERR (iTwdCtrl.hReport, "Failed to construct key type=%d\n", aType) |
|
2738 } |
|
2739 |
|
2740 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2741 (void *)&iTwdCtrl.privacyKey[aEntryIndex], |
|
2742 (void *)&key, |
|
2743 sizeof(TSecurityKeys)); |
|
2744 |
|
2745 /* Activates the whal TWD_SetParam function (with TWD_RSN_KEY_ADD_PARAM) */ |
|
2746 param.paramType = TWD_RSN_KEY_ADD_PARAM_ID; |
|
2747 param.content.configureCmdCBParams.pCb = (TUint8*)&key; |
|
2748 param.content.configureCmdCBParams.fCb = (void *)TIWhaAdaptCB::AddKeyResponse; |
|
2749 param.content.configureCmdCBParams.hCb = this; |
|
2750 |
|
2751 status = TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
2752 |
|
2753 if (status != TI_OK) |
|
2754 { |
|
2755 ASSERT_ERR (iTwdCtrl.hReport, "Add key failure, key index=%d\n", aEntryIndex) |
|
2756 } |
|
2757 } |
|
2758 |
|
2759 /** |
|
2760 * \fn ConstructAddKey |
|
2761 * \brief utility function for AddKey |
|
2762 * |
|
2763 * \note |
|
2764 * \return |
|
2765 * \sa |
|
2766 */ |
|
2767 WHA::TStatus TIWha::ConstructAddKey ( |
|
2768 TSecurityKeys *aSecurityKey, /* structure to be filled */ |
|
2769 WHA::TKeyType aType, /* Type of the key to be added */ |
|
2770 const void *aKey, /* Pointer to buffer specifying the key */ |
|
2771 /* material, according to the key type */ |
|
2772 /* (see specification for details). */ |
|
2773 TUint8 aEntryIndex) /* Key entry index. Valid range: 0-8. */ |
|
2774 { |
|
2775 TUint8 broadcast[MAC_ADDR_LEN] = {0xff, 0xff, 0xff, 0xff, 0xff, 0xff}; |
|
2776 |
|
2777 TRACE3(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "(%d) - ConstructAddKey, type=%d ïndex=%d\n",__LINE__,aType, aEntryIndex); |
|
2778 |
|
2779 /* Fill up the mutual fields */ |
|
2780 switch (aType) |
|
2781 { |
|
2782 case WHA::EWepGroupKey: |
|
2783 { |
|
2784 /* |
|
2785 * WEP Group Key: |
|
2786 * 1) Key length |
|
2787 * 2) Key |
|
2788 * 3) Default key number |
|
2789 */ |
|
2790 WHA::SWepGroupKey* pKey = (WHA::SWepGroupKey*)aKey; |
|
2791 |
|
2792 aSecurityKey->keyType = KEY_WEP; |
|
2793 aSecurityKey->encLen = pKey->iKeyLengthInBytes; |
|
2794 aSecurityKey->keyIndex = pKey->iKeyId; |
|
2795 |
|
2796 if (!bJoined) { |
|
2797 /* Clear mac address to distinguish between Group and Pairwise */ |
|
2798 os_memoryZero ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2799 (void*)aSecurityKey->macAddress, |
|
2800 sizeof(TMacAddr)); |
|
2801 } |
|
2802 else |
|
2803 { |
|
2804 MAC_COPY (aSecurityKey->macAddress, broadcast); |
|
2805 } |
|
2806 |
|
2807 |
|
2808 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2809 (void*)aSecurityKey->encKey, |
|
2810 (void*)pKey->iKey, |
|
2811 aSecurityKey->encLen); |
|
2812 |
|
2813 break; |
|
2814 } |
|
2815 case WHA::EWepPairWiseKey: |
|
2816 { |
|
2817 /* |
|
2818 * WEP Pairwise Key: |
|
2819 * 1) MAC Address of the peer station |
|
2820 * 2) Key length |
|
2821 * 3) Key |
|
2822 */ |
|
2823 WHA::SWepPairwiseKey* pKey = (WHA::SWepPairwiseKey*)aKey; |
|
2824 |
|
2825 aSecurityKey->keyType = KEY_WEP; |
|
2826 aSecurityKey->keyIndex = 0; |
|
2827 MAC_COPY (aSecurityKey->macAddress, (TI_UINT8*)&pKey->iMacAddr); |
|
2828 aSecurityKey->encLen = pKey->iKeyLengthInBytes; |
|
2829 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2830 (void*)aSecurityKey->encKey, |
|
2831 (void*)pKey->iKey, |
|
2832 aSecurityKey->encLen); |
|
2833 |
|
2834 break; |
|
2835 } |
|
2836 |
|
2837 case WHA::ETkipGroupKey: |
|
2838 { |
|
2839 /* TKIP Group Key: |
|
2840 * 1) 128 encryption key |
|
2841 * 2) 64 bit Rx MIC Key |
|
2842 * 3) Key ID |
|
2843 */ |
|
2844 WHA::STkipGroupKey* pKey = (WHA::STkipGroupKey*)aKey; |
|
2845 |
|
2846 aSecurityKey->keyType = KEY_TKIP; |
|
2847 aSecurityKey->encLen = WHA::KTKIPKeyLength; |
|
2848 MAC_COPY (aSecurityKey->macAddress, broadcast); |
|
2849 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2850 (void*)aSecurityKey->micRxKey, |
|
2851 (void*)pKey->iRxMicKey, |
|
2852 WHA::KTKIPKeyLength); |
|
2853 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2854 (void*)aSecurityKey->encKey, |
|
2855 (void*)pKey->iTkipKey, |
|
2856 WHA::KTKIPKeyLength); |
|
2857 aSecurityKey->keyIndex = pKey->iKeyId; |
|
2858 break; |
|
2859 } |
|
2860 |
|
2861 case WHA::ETkipPairWiseKey: |
|
2862 { |
|
2863 /* |
|
2864 * TKIP Pairwise Key: |
|
2865 * 1) MAC Address of the peer station |
|
2866 * 2) 64 bit Rx MIC Key |
|
2867 * 3) 64 bit Tx MIC Key |
|
2868 * 4) 128 encryption key |
|
2869 * 5) Key ID |
|
2870 */ |
|
2871 WHA::STkipPairwiseKey* pKey = (WHA::STkipPairwiseKey*)aKey; |
|
2872 |
|
2873 aSecurityKey->keyType = KEY_TKIP; |
|
2874 aSecurityKey->encLen = WHA::KTKIPKeyLength; |
|
2875 MAC_COPY (aSecurityKey->macAddress, (TI_UINT8*)&pKey->iMacAddr); |
|
2876 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2877 (void*)aSecurityKey->micRxKey, |
|
2878 (void*)pKey->iRxMicKey, |
|
2879 WHA::KTKIPKeyLength); |
|
2880 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2881 (void*)aSecurityKey->micTxKey, |
|
2882 (void*)pKey->iTxMicKey, |
|
2883 WHA::KTKIPKeyLength); |
|
2884 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2885 (void*)aSecurityKey->encKey, |
|
2886 (void*)pKey->iTkipKey, |
|
2887 WHA::KTKIPKeyLength); |
|
2888 aSecurityKey->keyIndex = pKey->iKeyId; |
|
2889 break; |
|
2890 } |
|
2891 |
|
2892 case WHA::EAesGroupKey: |
|
2893 { |
|
2894 /* AES Group Key: |
|
2895 * 1) 128 encryption key |
|
2896 * 2) key ID |
|
2897 */ |
|
2898 WHA::SAesGroupKey* pKey = (WHA::SAesGroupKey*)aKey; |
|
2899 |
|
2900 /* Fill security key structure */ |
|
2901 aSecurityKey->keyType = KEY_AES; |
|
2902 aSecurityKey->encLen = WHA::KAesKeyLength; |
|
2903 MAC_COPY (aSecurityKey->macAddress, broadcast); |
|
2904 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2905 (void*)aSecurityKey->encKey, |
|
2906 (void*)pKey->iAesKey, |
|
2907 WHA::KAesKeyLength); |
|
2908 aSecurityKey->keyIndex = pKey->iKeyId; |
|
2909 break; |
|
2910 } |
|
2911 |
|
2912 case WHA::EAesPairWiseKey: |
|
2913 { |
|
2914 /* |
|
2915 * AES Pairwise Key: |
|
2916 * 1) MAC Address of the peer station |
|
2917 * 2) 128 encryption key |
|
2918 */ |
|
2919 WHA::SAesPairwiseKey* pKey = (WHA::SAesPairwiseKey*)aKey; |
|
2920 |
|
2921 /* Fill security key structure */ |
|
2922 aSecurityKey->keyType = KEY_AES; |
|
2923 aSecurityKey->encLen = WHA::KAesKeyLength; |
|
2924 aSecurityKey->keyIndex = 0; |
|
2925 MAC_COPY (aSecurityKey->macAddress, (TI_UINT8*)&pKey->iMacAddr); |
|
2926 os_memoryCopy ((TI_HANDLE)&iTwdCtrl.tOsContext, |
|
2927 (void*)aSecurityKey->encKey, |
|
2928 (void*)pKey->iAesKey, |
|
2929 WHA::KAesKeyLength); |
|
2930 break; |
|
2931 } |
|
2932 |
|
2933 #ifdef GEM_SUPPORT |
|
2934 case GEMGroupKey: |
|
2935 { |
|
2936 SGEMGroupKey* pKey = (SGEMGroupKey*)aKey; |
|
2937 |
|
2938 /* Fill security key structure */ |
|
2939 aSecurityKey->keyType = KEY_GEM; |
|
2940 aSecurityKey->encLen = KGEMKeyLength; |
|
2941 aSecurityKey->keyIndex = pKey->iKeyId; |
|
2942 MAC_COPY (aSecurityKey->macAddress, broadcast); |
|
2943 GROUP_KEY_COPY ((TI_HANDLE)&iTwdCtrl.tOsContext,aSecurityKey,pKey,KGEMKeyLength); |
|
2944 GROUP_MIC_COPY ((TI_HANDLE)&iTwdCtrl.tOsContext,aSecurityKey,pKey,KGEMMicKeyLength); |
|
2945 break; |
|
2946 } |
|
2947 |
|
2948 case GEMPairWiseKey: |
|
2949 { |
|
2950 SGEMPairwiseKey* pKey = (SGEMPairwiseKey*)aKey; |
|
2951 |
|
2952 /* Fill security key structure */ |
|
2953 aSecurityKey->keyType = KEY_GEM; |
|
2954 aSecurityKey->encLen = KGEMKeyLength; |
|
2955 aSecurityKey->keyIndex = pKey->iKeyId; |
|
2956 MAC_COPY (aSecurityKey->macAddress, (TI_UINT8*)&pKey->iMacAddr); |
|
2957 PAIRWISE_KEY_COPY ((TI_HANDLE)&iTwdCtrl.tOsContext,aSecurityKey,pKey,KGEMKeyLength); |
|
2958 PAIRWISE_MIC_COPY ((TI_HANDLE)&iTwdCtrl.tOsContext,aSecurityKey,pKey,KGEMMicKeyLength); |
|
2959 break; |
|
2960 } |
|
2961 #endif /* GEM_SUPPORT */ |
|
2962 |
|
2963 default: |
|
2964 /* |
|
2965 * NULL_KEY, XCC_KEY |
|
2966 */ |
|
2967 TRACE2(iTwdCtrl.hReport, REPORT_SEVERITY_ERROR, "(%d) - ConstructAddKey - ERROR - Key not supported, %d\n",__LINE__,aType); |
|
2968 |
|
2969 break; |
|
2970 } |
|
2971 |
|
2972 return WHA::KSuccess; |
|
2973 } |
|
2974 |
|
2975 /** |
|
2976 * \fn RemoveKey |
|
2977 * \brief Remove key from our data base and from Fw |
|
2978 * |
|
2979 * \note This function is never called from LDD, therfore we use dummy response |
|
2980 * \return |
|
2981 * \sa |
|
2982 */ |
|
2983 void TIWha::RemoveKey( TUint8 aEntryIndex) |
|
2984 { |
|
2985 TTwdParamInfo param; |
|
2986 TI_STATUS status; |
|
2987 ECipherSuite eOldCipherSuite; |
|
2988 TBool bSecurityChanged = FALSE; |
|
2989 |
|
2990 |
|
2991 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "RemoveKey, aEntryIndex= 0x%x\n", aEntryIndex); |
|
2992 |
|
2993 if (aEntryIndex >= TIWha_MAX_PRIVACY_KEY_INDEX) |
|
2994 { |
|
2995 ASSERT_ERR (iTwdCtrl.hReport, "Invalid key index=%d\n", aEntryIndex) |
|
2996 } |
|
2997 |
|
2998 param.paramType = TWD_RSN_SECURITY_MODE_PARAM_ID; |
|
2999 status = TWD_GetParam(iTwdCtrl.hTWD, ¶m); |
|
3000 if (status != TI_OK) |
|
3001 { |
|
3002 ASSERT_ERR (iTwdCtrl.hReport, "RemoveKey : Remove key failure, key index=%d\n", aEntryIndex) |
|
3003 } |
|
3004 |
|
3005 eOldCipherSuite = param.content.rsnEncryptionStatus; |
|
3006 |
|
3007 /* Synchronies the current security mode with the key security mode */ |
|
3008 switch (iTwdCtrl.privacyKey[aEntryIndex].keyType) |
|
3009 { |
|
3010 case KEY_WEP: param.content.rsnEncryptionStatus = TWD_CIPHER_WEP; break; |
|
3011 case KEY_TKIP: param.content.rsnEncryptionStatus = TWD_CIPHER_TKIP; break; |
|
3012 case KEY_AES: param.content.rsnEncryptionStatus = TWD_CIPHER_AES_CCMP; break; |
|
3013 #ifdef GEM_SUPPORT |
|
3014 case KEY_GEM: param.content.rsnEncryptionStatus = TWD_CIPHER_GEM; break; |
|
3015 #endif |
|
3016 } |
|
3017 |
|
3018 TRACE3(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "RemoveKey, keyType= 0x%x, rsnEncryptionStatus = 0x%x eOldCipherSuite = 0x%x\n", iTwdCtrl.privacyKey[aEntryIndex].keyType, param.content.rsnEncryptionStatus, eOldCipherSuite); |
|
3019 |
|
3020 /* Check if we should update security mode */ |
|
3021 if (eOldCipherSuite != param.content.rsnEncryptionStatus) |
|
3022 { |
|
3023 bSecurityChanged = TRUE; |
|
3024 /* Change security mode in whalSecurity */ |
|
3025 status = TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
3026 if (status != TI_OK) |
|
3027 { |
|
3028 ASSERT_ERR (iTwdCtrl.hReport, "RemoveKey : Remove key failure, key index=%d\n", aEntryIndex) |
|
3029 } |
|
3030 } |
|
3031 |
|
3032 /* Activates the TWD_SetParam function (with TWD_RSN_KEY_REMOVE_PARAM) */ |
|
3033 param.paramType = TWD_RSN_KEY_REMOVE_PARAM_ID; |
|
3034 param.content.configureCmdCBParams.pCb = (TUint8*)&iTwdCtrl.privacyKey[aEntryIndex]; |
|
3035 /* Note that we never response a remove key since it is internal command. Symbian never issue this command */ |
|
3036 param.content.configureCmdCBParams.fCb = (void *)TIWhaAdaptCB::DummyResponse; |
|
3037 param.content.configureCmdCBParams.hCb = this; |
|
3038 |
|
3039 status = TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
3040 |
|
3041 if (status != TI_OK) |
|
3042 { |
|
3043 ASSERT_ERR (iTwdCtrl.hReport, "Remove key failure, key index=%d\n", aEntryIndex) |
|
3044 } |
|
3045 else |
|
3046 { |
|
3047 /* remove the key from the keys table */ |
|
3048 os_memoryZero ((TI_HANDLE)&iTwdCtrl.tOsContext, &iTwdCtrl.privacyKey[aEntryIndex], sizeof(TSecurityKeys)); |
|
3049 } |
|
3050 |
|
3051 /* Check if we should update back security mode */ |
|
3052 if (bSecurityChanged) |
|
3053 { |
|
3054 param.content.rsnEncryptionStatus = eOldCipherSuite; |
|
3055 param.paramType = TWD_RSN_SECURITY_MODE_PARAM_ID; |
|
3056 status = TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
3057 if (status != TI_OK) |
|
3058 { |
|
3059 ASSERT_ERR (iTwdCtrl.hReport, "RemoveKey : Remove key failure, key index=%d\n", aEntryIndex) |
|
3060 } |
|
3061 } |
|
3062 } |
|
3063 |
|
3064 /** |
|
3065 * \fn ConfigureQueue |
|
3066 * |
|
3067 * \return |
|
3068 * \sa |
|
3069 */ |
|
3070 void TIWha::ConfigureQueue( |
|
3071 WHA::TQueueId aQueueId, |
|
3072 TUint32 aMaxLifeTime, |
|
3073 WHA::TPsScheme aPsScheme, |
|
3074 const WHA::SSAPSDConfig& aSAPSDConfig, |
|
3075 WHA::TAckPolicy aAckPolicy, |
|
3076 TUint16 aMediumTime ) |
|
3077 { |
|
3078 TTwdParamInfo param; |
|
3079 TQueueTrafficParams QueueTrafficParams; |
|
3080 TI_STATUS status; |
|
3081 |
|
3082 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "\n"); |
|
3083 |
|
3084 TRACE5(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, " TIWha::ConfigureQueue: aQueueId = 0x%x, aPsScheme = 0x%x, APSDConf[0] = 0x%x, APSDConf[1] = 0x%x, aAckPolicy = 0x%x\n", aQueueId,aPsScheme,aSAPSDConfig.iServiceStartTime,aSAPSDConfig.iServiceInterval,aAckPolicy); |
|
3085 |
|
3086 /* Set parameters */ |
|
3087 QueueTrafficParams.queueID = (TUint8)aQueueId; |
|
3088 /* 0- 3 EDCA , 4 - HCCA */ |
|
3089 QueueTrafficParams.channelType = (aQueueId < 4) ? CHANNEL_TYPE_EDCF : CHANNEL_TYPE_HCCA; |
|
3090 QueueTrafficParams.tsid = (TUint8)aQueueId; |
|
3091 QueueTrafficParams.dot11EDCATableMSDULifeTime = 0; |
|
3092 QueueTrafficParams.psScheme = aPsScheme; |
|
3093 QueueTrafficParams.APSDConf[0] = aSAPSDConfig.iServiceStartTime; |
|
3094 QueueTrafficParams.APSDConf[1] = aSAPSDConfig.iServiceInterval; |
|
3095 QueueTrafficParams.ackPolicy = aAckPolicy; |
|
3096 |
|
3097 param.paramType = (TUint32)TWD_QUEUES_PARAM_ID; |
|
3098 param.content.pQueueTrafficParams = &QueueTrafficParams; |
|
3099 |
|
3100 status = TWD_SetParam (iTwdCtrl.hTWD, ¶m); |
|
3101 |
|
3102 if (status != TI_OK) |
|
3103 { |
|
3104 ASSERT_ERR ( iTwdCtrl.hReport, "ERROR:Configure queue failure, queue ID=%d\n", aQueueId) |
|
3105 } |
|
3106 } |
|
3107 |
|
3108 /** |
|
3109 * \fn ConfigureAC |
|
3110 * |
|
3111 * \return |
|
3112 * \sa |
|
3113 */ |
|
3114 void TIWha::ConfigureAC( |
|
3115 TUint16 aCwMin[Wha::KNumOfEdcaQueues], |
|
3116 TUint16 aCwMax[Wha::KNumOfEdcaQueues], |
|
3117 TUint8 aAIFS[Wha::KNumOfEdcaQueues], |
|
3118 TUint16 aTxOplimit[Wha::KNumOfEdcaQueues], |
|
3119 TUint16 aMaxReceiveLifeTime[Wha::KNumOfEdcaQueues] ) |
|
3120 { |
|
3121 TAcQosParams AcQosParams; |
|
3122 WHA::TStatus status = TI_OK; |
|
3123 TUint8 i; |
|
3124 |
|
3125 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "\n"); |
|
3126 |
|
3127 /* configure all AC's but the last one in a loop that returns as a dummy CB */ |
|
3128 for (i = 0; (i < Wha::KNumOfEdcaQueues - 1) && (TI_OK == status); i++) |
|
3129 { |
|
3130 TRACE5(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, " TIWha::ConfigureAC: Index = 0x%x, aCwMin = 0x%x, aCwMax = 0x%x, aAIFS = 0x%x, aTxOpLimit = 0x%x\n", i,aCwMin[i],aCwMax[i],aAIFS[i],aTxOplimit[i]); |
|
3131 |
|
3132 AcQosParams.ac = i; |
|
3133 AcQosParams.cwMin = (TUint8)aCwMin[i]; |
|
3134 AcQosParams.cwMax = aCwMax[i]; |
|
3135 AcQosParams.aifsn = aAIFS[i]; |
|
3136 AcQosParams.txopLimit = aTxOplimit[i]; |
|
3137 |
|
3138 status = TWD_CfgAcParams (iTwdCtrl.hTWD, |
|
3139 &AcQosParams, |
|
3140 (void *)TIWhaAdaptCB::DummyResponse, |
|
3141 this); |
|
3142 } |
|
3143 |
|
3144 /* After the loop - the last AC returns as a real CB */ |
|
3145 if (TI_OK == status) |
|
3146 { |
|
3147 TRACE5(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, " TIWha::ConfigureAC: Index = 0x%x, aCwMin = 0x%x, aCwMax = 0x%x, aAIFS = 0x%x, aTxOpLimit = 0x%x\n", i,aCwMin[i],aCwMax[i],aAIFS[i],aTxOplimit[i]); |
|
3148 |
|
3149 AcQosParams.ac = i; |
|
3150 AcQosParams.cwMin = (TUint8)aCwMin[i]; |
|
3151 AcQosParams.cwMax = aCwMax[i]; |
|
3152 AcQosParams.aifsn = aAIFS[i]; |
|
3153 AcQosParams.txopLimit = aTxOplimit[i]; |
|
3154 |
|
3155 status = TWD_CfgAcParams (iTwdCtrl.hTWD, |
|
3156 &AcQosParams, |
|
3157 NULL, /* The generic CB will be called */ |
|
3158 NULL); |
|
3159 } |
|
3160 |
|
3161 if (status != TI_OK) |
|
3162 { |
|
3163 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "ERROR: Configure AC failure, status=%d\n", status); |
|
3164 } |
|
3165 } |
|
3166 |
|
3167 |
|
3168 |
|
3169 /** |
|
3170 * \fn Reset |
|
3171 * \brief disconnect from BSS/IBSS |
|
3172 * \return |
|
3173 * \sa |
|
3174 */ |
|
3175 void TIWha::Reset() |
|
3176 { |
|
3177 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "\n"); |
|
3178 int status; |
|
3179 |
|
3180 /* Check if we are in 802.11 PS mode. If not we should update sleepMode */ |
|
3181 if (!(TWD_GetPsStatus (iTwdCtrl.hTWD))) |
|
3182 { |
|
3183 /* Configure H/W to user sleep mode */ |
|
3184 SleepMode (iTwdCtrl.sleepMode, FALSE); |
|
3185 } |
|
3186 |
|
3187 |
|
3188 /* If connection timer is running - stop it */ |
|
3189 if (bConnectionTimerRunning) |
|
3190 { |
|
3191 bConnectionTimerRunning = TI_FALSE; |
|
3192 os_timerStop(&iTwdCtrl.tOsContext, hConnectionTimer); |
|
3193 } |
|
3194 |
|
3195 #ifdef HT_SUPPORT |
|
3196 TWD_CloseAllBaSessions(iTwdCtrl.hTWD); |
|
3197 #endif /* HT_SUPPORT */ |
|
3198 |
|
3199 status = TWD_CmdFwDisconnect ( iTwdCtrl.hTWD ,DISCONNECT_IMMEDIATE , STATUS_UNSPECIFIED); |
|
3200 |
|
3201 if (status != TI_OK) |
|
3202 { |
|
3203 ASSERT_ERR ( iTwdCtrl.hReport, "Reset failure, status=%d\n", status) |
|
3204 } |
|
3205 |
|
3206 /* We are not connected */ |
|
3207 bJoined = 0; |
|
3208 } |
|
3209 |
|
3210 #ifdef TI_TEST |
|
3211 TTestCmd mTest; |
|
3212 /** |
|
3213 * \fn PltTester |
|
3214 * \brief Called when PLT commands sent externally |
|
3215 * |
|
3216 * /Param aData - parametrs of PLT command |
|
3217 * /return |
|
3218 */ |
|
3219 void TIWha::PltTester(const void *aData) |
|
3220 { |
|
3221 TTestCmd* pPltTester = (TTestCmd*)aData; |
|
3222 os_memoryCopy(NULL,&mTest,(void *)aData,sizeof(TTestCmd)); |
|
3223 Plt(pPltTester->testCmdId,&mTest.testCmd_u); |
|
3224 } |
|
3225 |
|
3226 |
|
3227 |
|
3228 /** |
|
3229 * \fn ChangeQueue |
|
3230 * \brief Change the output queue for all packets |
|
3231 * |
|
3232 * /Param aData - queue to be set |
|
3233 * /return |
|
3234 */ |
|
3235 void TIWha::ChangeQueue(const void *aData) |
|
3236 { |
|
3237 iQueueId = *(WHA::TQueueId*)aData; |
|
3238 |
|
3239 if( bErrorIndication == TI_FALSE) |
|
3240 { |
|
3241 WhaCb()->CommandResponse(WHA::EWriteMIBResponse, WHA::KSuccess, iUCommandResponseParams); |
|
3242 } |
|
3243 #if TI_DBG |
|
3244 else |
|
3245 { |
|
3246 WLAN_OS_REPORT(("%s : CommandResponse Block call to LDD response \n",__FUNCTION__)); |
|
3247 } |
|
3248 #endif |
|
3249 } |
|
3250 #endif /* TI_TEST */ |
|
3251 |
|
3252 |
|
3253 /** |
|
3254 * \fn Plt |
|
3255 * \brief production line testing |
|
3256 * |
|
3257 * The host driver calls this method to perform production |
|
3258 * line testing of the WLAN device |
|
3259 * /param eTestCmd - specific test enum |
|
3260 * /param pTestCmdParams - test specific parameters and place for return buffer |
|
3261 * /return TStatus - KPending or KError |
|
3262 */ |
|
3263 WHA::TStatus TIWha::Plt (ETestCmdID eTestCmd, void *pTestCmdParams) |
|
3264 { |
|
3265 TI_STATUS status; |
|
3266 TRACE1(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, " CmdID = 0x%x\n", eTestCmd); |
|
3267 |
|
3268 /* Save type of test to be retrieved later on the CB */ |
|
3269 iTwdCtrl.ePlt = eTestCmd; |
|
3270 |
|
3271 switch (eTestCmd) |
|
3272 { |
|
3273 case TEST_CMD_P2G_CAL: |
|
3274 status = TWDriverTest (iTwdCtrl.hTWD, |
|
3275 (TestCmdID_enum) eTestCmd, |
|
3276 pTestCmdParams, |
|
3277 TIWhaAdaptCB::TxBipResponse, |
|
3278 (TI_HANDLE) this); |
|
3279 break; |
|
3280 |
|
3281 case TEST_CMD_RX_PLT_CAL: |
|
3282 status = TWDriverTest (iTwdCtrl.hTWD, |
|
3283 (TestCmdID_enum) eTestCmd, |
|
3284 pTestCmdParams, |
|
3285 TIWhaAdaptCB::RxBipResponse, |
|
3286 (TI_HANDLE) this); |
|
3287 break; |
|
3288 |
|
3289 case TEST_CMD_RX_STAT_GET: |
|
3290 status = TWDriverTest (iTwdCtrl.hTWD, |
|
3291 (TestCmdID_enum) eTestCmd, |
|
3292 pTestCmdParams, |
|
3293 TIWhaAdaptCB::RxStatResponse, |
|
3294 (TI_HANDLE) this); |
|
3295 break; |
|
3296 case TEST_CMD_FREE_RUN_RSSI: |
|
3297 status = TWDriverTest (iTwdCtrl.hTWD, |
|
3298 (TestCmdID_enum) eTestCmd, |
|
3299 pTestCmdParams, |
|
3300 TIWhaAdaptCB::RunRssiResponse, |
|
3301 (TI_HANDLE) this); |
|
3302 break; |
|
3303 |
|
3304 default: |
|
3305 status = TWDriverTest (iTwdCtrl.hTWD, |
|
3306 (TestCmdID_enum) eTestCmd, |
|
3307 pTestCmdParams, |
|
3308 TIWhaAdaptCB::PltResponse, |
|
3309 (TI_HANDLE) this); |
|
3310 } /* switch */ |
|
3311 |
|
3312 return (status == TI_OK) ? WHA::KPending : WHA::KFailed; |
|
3313 } |
|
3314 /** |
|
3315 * \fn Plt |
|
3316 * \brief production line testing |
|
3317 * |
|
3318 * The host driver calls this method to perform production |
|
3319 * line testing of the WLAN device |
|
3320 * /param TPltType - specific test enum |
|
3321 * /param aParams - test specific parameters and place for return buffer |
|
3322 * /return TStatus - KPending or KError |
|
3323 */ |
|
3324 void TIWha::Plt (WHA::TPltType aType, void *aParams) |
|
3325 { |
|
3326 Plt((ETestCmdID) aType,aParams); |
|
3327 } |
|
3328 |
|
3329 |
|
3330 /** |
|
3331 * \fn WriteMem |
|
3332 * \brief write buffer to HW address |
|
3333 * |
|
3334 * \note |
|
3335 * \param pMemoryAccess - address, length, buffer |
|
3336 * \return TStatus |
|
3337 */ |
|
3338 WHA::TStatus TIWha::WriteMem (TMemoryAccess *pMemoryAccess) |
|
3339 { |
|
3340 TRACE3(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, " addr = 0x%x length = %d p = %p\n", pMemoryAccess->addr, pMemoryAccess->length, pMemoryAccess); |
|
3341 |
|
3342 TI_STATUS status = TWD_writeMem (iTwdCtrl.hTWD, |
|
3343 (TFwDebugParams*) pMemoryAccess, (void*)TIWhaAdaptCB::WriteMemResponse, this); |
|
3344 |
|
3345 /* convert status to WHA::TStatus */ |
|
3346 return (status == TI_OK) ? WHA::KPending : WHA::KFailed; |
|
3347 } |
|
3348 |
|
3349 |
|
3350 /** |
|
3351 * \fn ReadMem |
|
3352 * \brief read buffer from HW address |
|
3353 * |
|
3354 * \note |
|
3355 * \param pMemoryAccess - address, length, buffer |
|
3356 * \return TStatus |
|
3357 */ |
|
3358 WHA::TStatus TIWha::ReadMem (TMemoryAccess *pMemoryAccess) |
|
3359 { |
|
3360 TRACE3(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, " addr = 0x%x length = %d p = %p\n", pMemoryAccess->addr, pMemoryAccess->length, pMemoryAccess); |
|
3361 |
|
3362 TI_STATUS status = TWD_readMem (iTwdCtrl.hTWD, |
|
3363 (TFwDebugParams*) pMemoryAccess, (void*)TIWhaAdaptCB::ReadMemResponse, this); |
|
3364 |
|
3365 /* convert status to WHA::TStatus */ |
|
3366 return (status == TI_OK) ? WHA::KPending : WHA::KFailed; |
|
3367 } |
|
3368 |
|
3369 |
|
3370 /********************************************************** |
|
3371 TIWha Service functions |
|
3372 **********************************************************/ |
|
3373 |
|
3374 /** |
|
3375 * \fn getMacAddress |
|
3376 * \brief return the Mac address from the TWDCtrl |
|
3377 * |
|
3378 * |
|
3379 * /note |
|
3380 * |
|
3381 * /return |
|
3382 */ |
|
3383 void * TIWha::getMacAddress() |
|
3384 { |
|
3385 return (void *)iTwdCtrl.pMacAddr; |
|
3386 |
|
3387 } |
|
3388 |
|
3389 /** |
|
3390 * \fn InitTwdParamTable |
|
3391 * \brief initialization of TWD parameters |
|
3392 * |
|
3393 * since we have no ini file, we are initializing the |
|
3394 * Modules wit hard coded values |
|
3395 * /note |
|
3396 * |
|
3397 * /return |
|
3398 */ |
|
3399 void TIWha::InitTwdParamTable() |
|
3400 { |
|
3401 os_memoryZero (&iTwdCtrl.tOsContext, (TI_UINT8*)&iTwdCtrl.twdInitParams, sizeof(TTwdInitParams)); |
|
3402 |
|
3403 iTwdCtrl.twdInitParams.tGeneral.packetDetectionThreshold = 0; |
|
3404 iTwdCtrl.twdInitParams.tGeneral.qosNullDataTemplateSize = sizeof(QosNullDataTemplate_t); |
|
3405 iTwdCtrl.twdInitParams.tGeneral.PsPollTemplateSize = sizeof(psPollTemplate_t); |
|
3406 iTwdCtrl.twdInitParams.tGeneral.probeResponseTemplateSize = sizeof(probeRspTemplate_t); |
|
3407 iTwdCtrl.twdInitParams.tGeneral.probeRequestTemplateSize = sizeof(probeReqTemplate_t); |
|
3408 iTwdCtrl.twdInitParams.tGeneral.beaconTemplateSize = sizeof(probeRspTemplate_t); |
|
3409 iTwdCtrl.twdInitParams.tGeneral.nullTemplateSize = sizeof(nullDataTemplate_t); |
|
3410 iTwdCtrl.twdInitParams.tGeneral.disconnTemplateSize = sizeof(disconnTemplate_t); |
|
3411 /* Beacon broadcast options */ |
|
3412 iTwdCtrl.twdInitParams.tGeneral.BeaconRxTimeout = BCN_RX_TIMEOUT_DEF_VALUE; |
|
3413 iTwdCtrl.twdInitParams.tGeneral.BroadcastRxTimeout = BROADCAST_RX_TIMEOUT_DEF_VALUE; |
|
3414 iTwdCtrl.twdInitParams.tGeneral.RxBroadcastInPs = RX_BROADCAST_IN_PS_DEF_VALUE; |
|
3415 iTwdCtrl.twdInitParams.tGeneral.ConsecutivePsPollDeliveryFailureThreshold = CONSECUTIVE_PS_POLL_FAILURE_DEF; |
|
3416 |
|
3417 iTwdCtrl.twdInitParams.tGeneral.halCtrlRxDisableBroadcast = TWD_RX_DISABLE_BROADCAST_DEF; |
|
3418 iTwdCtrl.twdInitParams.tGeneral.halCtrlCalibrationChannel2_4 = TWD_CALIBRATION_CHANNEL_2_4_DEF; |
|
3419 iTwdCtrl.twdInitParams.tGeneral.halCtrlCalibrationChannel5_0 = TWD_CALIBRATION_CHANNEL_5_0_DEF; |
|
3420 |
|
3421 |
|
3422 iTwdCtrl.twdInitParams.tGeneral.halCtrlRtsThreshold = TWD_RTS_THRESHOLD_DEF; |
|
3423 |
|
3424 |
|
3425 iTwdCtrl.twdInitParams.tGeneral.WiFiWmmPS = WIFI_WMM_PS_DEF; |
|
3426 |
|
3427 iTwdCtrl.twdInitParams.tGeneral.halCtrlMaxTxMsduLifetime = TWD_MAX_TX_MSDU_LIFETIME_DEF; |
|
3428 iTwdCtrl.twdInitParams.tGeneral.halCtrlMaxRxMsduLifetime = TWD_MAX_RX_MSDU_LIFETIME_DEF; |
|
3429 |
|
3430 iTwdCtrl.twdInitParams.tGeneral.rxTimeOut.psPoll = QOS_RX_TIMEOUT_PS_POLL_DEF; |
|
3431 iTwdCtrl.twdInitParams.tGeneral.rxTimeOut.UPSD = QOS_RX_TIMEOUT_UPSD_DEF; |
|
3432 |
|
3433 /* RSSI/SNR Weights for Average calculations */ |
|
3434 iTwdCtrl.twdInitParams.tGeneral.uRssiBeaconAverageWeight = TWD_RSSI_WEIGHT_DEF; |
|
3435 iTwdCtrl.twdInitParams.tGeneral.uRssiPacketAverageWeight = TWD_RSSI_WEIGHT_DEF; |
|
3436 iTwdCtrl.twdInitParams.tGeneral.uSnrBeaconAverageWeight = TWD_RSSI_WEIGHT_DEF; |
|
3437 iTwdCtrl.twdInitParams.tGeneral.uSnrPacketAverageWeight = TWD_RSSI_WEIGHT_DEF; |
|
3438 |
|
3439 /* No used */ |
|
3440 iTwdCtrl.twdInitParams.tGeneral.halCtrlFragThreshold = TWD_FRAG_THRESHOLD_DEF; |
|
3441 iTwdCtrl.twdInitParams.tGeneral.halCtrlListenInterval = TWD_LISTEN_INTERVAL_DEF; |
|
3442 iTwdCtrl.twdInitParams.tGeneral.halCtrlRateFallbackRetry = TWD_RATE_FB_RETRY_LIMIT_DEF; |
|
3443 iTwdCtrl.twdInitParams.tGeneral.halCtrlMacClock = 80; |
|
3444 iTwdCtrl.twdInitParams.tGeneral.halCtrlArmClock = 80; |
|
3445 |
|
3446 iTwdCtrl.twdInitParams.tGeneral.TxCompletePacingThreshold = TWD_TX_CMPLT_THRESHOLD_DEF; |
|
3447 iTwdCtrl.twdInitParams.tGeneral.TxCompletePacingTimeout = TWD_TX_CMPLT_TIMEOUT_DEF; |
|
3448 iTwdCtrl.twdInitParams.tGeneral.RxIntrPacingThreshold = TWD_RX_INTR_THRESHOLD_DEF; |
|
3449 iTwdCtrl.twdInitParams.tGeneral.RxIntrPacingTimeout = TWD_RX_INTR_TIMEOUT_DEF; |
|
3450 |
|
3451 /* FM Coexistence params */ |
|
3452 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uEnable = FM_COEX_ENABLE_DEF; |
|
3453 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uSwallowPeriod = FM_COEX_SWALLOW_PERIOD_DEF; |
|
3454 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uNDividerFrefSet1 = FM_COEX_N_DIVIDER_FREF_SET1_DEF; |
|
3455 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uNDividerFrefSet2 = FM_COEX_N_DIVIDER_FREF_SET2_DEF; |
|
3456 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uMDividerFrefSet1 = FM_COEX_M_DIVIDER_FREF_SET1_DEF; |
|
3457 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uMDividerFrefSet2 = FM_COEX_M_DIVIDER_FREF_SET2_DEF; |
|
3458 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uCoexPllStabilizationTime = FM_COEX_PLL_STABILIZATION_TIME_DEF; |
|
3459 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uLdoStabilizationTime = FM_COEX_LDO_STABILIZATION_TIME_DEF; |
|
3460 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uFmDisturbedBandMargin = FM_COEX_DISTURBED_BAND_MARGIN_DEF; |
|
3461 iTwdCtrl.twdInitParams.tGeneral.tFmCoexParams.uSwallowClkDif = FM_COEX_SWALLOW_CLK_DIF_DEF; |
|
3462 |
|
3463 |
|
3464 /* Configure ARP IP */ |
|
3465 |
|
3466 iTwdCtrl.twdInitParams.tArpIpFilter.isFilterEnabled = DEF_FILTER_ENABLE_VALUE; |
|
3467 // Compialtion problem IP_COPY(iTwdCtrl.twdInitParams.tArpIpFilter.addr = "00 22 11 33 44 55"); |
|
3468 |
|
3469 |
|
3470 /* Configure address group */ |
|
3471 iTwdCtrl.twdInitParams.tMacAddrFilter.numOfMacAddresses = NUM_GROUP_ADDRESS_VALUE_DEF; |
|
3472 iTwdCtrl.twdInitParams.tMacAddrFilter.isFilterEnabled = DEF_FILTER_ENABLE_VALUE; |
|
3473 #if 0 |
|
3474 for (k = 0; k < pWlanParams->numGroupAddrs; k++) |
|
3475 { |
|
3476 MAC_COPY (iTwdCtrl.twdInitParams.tMacAddrFilter.macAddrTable[k]); |
|
3477 } |
|
3478 #endif |
|
3479 |
|
3480 /* QoS configure queue */ |
|
3481 iTwdCtrl.twdInitParams.tGeneral.TxBlocksThresholdPerAc[0] = QOS_TX_BLKS_THRESHOLD_BE_DEF; |
|
3482 iTwdCtrl.twdInitParams.tGeneral.TxBlocksThresholdPerAc[1] = QOS_TX_BLKS_THRESHOLD_BK_DEF; |
|
3483 iTwdCtrl.twdInitParams.tGeneral.TxBlocksThresholdPerAc[2] = QOS_TX_BLKS_THRESHOLD_VI_DEF; |
|
3484 iTwdCtrl.twdInitParams.tGeneral.TxBlocksThresholdPerAc[3] = QOS_TX_BLKS_THRESHOLD_VO_DEF; |
|
3485 |
|
3486 |
|
3487 |
|
3488 /* Configure the MAC services */ |
|
3489 |
|
3490 /* Power server */ |
|
3491 iTwdCtrl.twdInitParams.tPowerSrv.hangOverPeriod = HANGOVER_PERIOD_DEF_VALUE + 5; /* Increase the hang over time to 10ms */ |
|
3492 iTwdCtrl.twdInitParams.tPowerSrv.numNullPktRetries = POWER_MGMNT_NUM_NULL_PACKET_RETRY_DEF_VALUE; |
|
3493 /* Scan Server */ |
|
3494 iTwdCtrl.twdInitParams.tScanSrv.numberOfNoScanCompleteToRecovery = SCAN_SRV_NUMBER_OF_NO_SCAN_COMPLETE_TO_RECOVERY_DEF; |
|
3495 iTwdCtrl.twdInitParams.tScanSrv.uTriggeredScanTimeOut = SCAN_SRV_TRIGGERED_SCAN_TIME_OUT_DEF; |
|
3496 iTwdCtrl.TxAlign.uCurrSend = 0; |
|
3497 iTwdCtrl.TxAlign.uCurrHandle = 0; |
|
3498 |
|
3499 /* Configure the rate adaptaion */ |
|
3500 iTwdCtrl.twdInitParams.tRateMngParams.InverseCuriosityFactor[0] = RATE_MGMT_INVERSE_CURIOSITY_FACTOR_OTHER; |
|
3501 iTwdCtrl.twdInitParams.tRateMngParams.InverseCuriosityFactor[1] = RATE_MGMT_INVERSE_CURIOSITY_FACTOR_VOICE; |
|
3502 iTwdCtrl.twdInitParams.tRateMngParams.MaxPer = RATE_MGMT_MAX_PER; |
|
3503 iTwdCtrl.twdInitParams.tRateMngParams.PerAdd = RATE_MGMT_PER_ADD; |
|
3504 iTwdCtrl.twdInitParams.tRateMngParams.PerAddShift = RATE_MGMT_PER_ADD_SHIFT; |
|
3505 iTwdCtrl.twdInitParams.tRateMngParams.PerAlphaShift = RATE_MGMT_PER_ALPHA_SHIFT; |
|
3506 iTwdCtrl.twdInitParams.tRateMngParams.PerBeta1Shift = RATE_MGMT_PER_BETA1_SHIFT; |
|
3507 iTwdCtrl.twdInitParams.tRateMngParams.PerBeta2Shift = RATE_MGMT_PER_BETA2_SHIFT; |
|
3508 iTwdCtrl.twdInitParams.tRateMngParams.PerTh1 = RATE_MGMT_PER_TH1; |
|
3509 iTwdCtrl.twdInitParams.tRateMngParams.PerTh2 = RATE_MGMT_PER_TH2; |
|
3510 iTwdCtrl.twdInitParams.tRateMngParams.RateCheckDown = RATE_MGMT_RATE_CHECK_DOWN; |
|
3511 iTwdCtrl.twdInitParams.tRateMngParams.RateCheckUp = RATE_MGMT_RATE_CHECK_UP; |
|
3512 |
|
3513 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[0] = 1; |
|
3514 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[1] = 1; |
|
3515 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[2] = 1; |
|
3516 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[3] = 3; |
|
3517 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[4] = 3; |
|
3518 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[5] = 3; |
|
3519 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[6] = 6; |
|
3520 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[7] = 6; |
|
3521 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[8] = 6; |
|
3522 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[9] = 6; |
|
3523 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[10] = 9; |
|
3524 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[11] = 9; |
|
3525 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryPolicy[12] = 9; |
|
3526 |
|
3527 iTwdCtrl.twdInitParams.tRateMngParams.RateRetryScore = RATE_MGMT_RATE_RETRY_SCORE; |
|
3528 iTwdCtrl.twdInitParams.tRateMngParams.TxFailLowTh = RATE_MGMT_TX_FAIL_LOW_TH; |
|
3529 iTwdCtrl.twdInitParams.tRateMngParams.TxFailHighTh = RATE_MGMT_TX_FAIL_HIGH_TH; |
|
3530 iTwdCtrl.twdInitParams.tRateMngParams.PerWeightShift[0] = RATE_MGMT_PER_WEIGHT_SHIFT_OTHER; |
|
3531 iTwdCtrl.twdInitParams.tRateMngParams.PerWeightShift[1] = RATE_MGMT_PER_WEIGHT_SHIFT_VOICE; |
|
3532 iTwdCtrl.twdInitParams.tRateMngParams.TpWeightShift[0] = RATE_MGMT_TP_WEIGHT_SHIFT_OTHER; |
|
3533 iTwdCtrl.twdInitParams.tRateMngParams.TpWeightShift[1] = RATE_MGMT_TP_WEIGHT_SHIFT_VOICE; |
|
3534 iTwdCtrl.twdInitParams.tRateMngParams.paramIndex = RATE_MGMT_ALL_PARAMS; |
|
3535 |
|
3536 iTwdCtrl.twdInitParams.tDcoItrimParams.enable = TWD_DCO_ITRIM_ENABLE_DEF; |
|
3537 iTwdCtrl.twdInitParams.tDcoItrimParams.moderationTimeoutUsec = TWD_DCO_ITRIM_MODERATION_TIMEOUT_DEF; |
|
3538 } |
|
3539 /** |
|
3540 * \fn InitTwdPlatformGenParam |
|
3541 * \brief initialization Platform General parameters |
|
3542 * |
|
3543 * |
|
3544 * /return |
|
3545 */ |
|
3546 |
|
3547 void TIWha::InitTwdPlatformGenParam() |
|
3548 { |
|
3549 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iTwdCtrl.twdInitParams.tPlatformGenParams,&iAutoRadioParams.tGeneralParams,sizeof(IniFileGeneralParam)); |
|
3550 } |
|
3551 |
|
3552 |
|
3553 /** |
|
3554 * \fn InitTwdRadioParam |
|
3555 * \brief initialization of Radio params |
|
3556 * * /return |
|
3557 */ |
|
3558 |
|
3559 void TIWha::InitTwdRadioParam() |
|
3560 { |
|
3561 uint8 FemType; |
|
3562 |
|
3563 if (iAutoRadioParams.tGeneralParams.TXBiPFEMAutoDetect == FEM_MANUAL_DETECT_MODE_E) |
|
3564 FemType = iAutoRadioParams.tGeneralParams.TXBiPFEMManufacturer; |
|
3565 else |
|
3566 FemType = TWD_GetFEMType(iTwdCtrl.hTWD); |
|
3567 /* fill TWD init parms with relevant (RFMD or TriQuint) Radio parms before calling TWD_SetDefault*/ |
|
3568 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iTwdCtrl.twdInitParams.tIniFileRadioParams.tDynRadioParams,&iAutoRadioParams.tDynRadioParams[FemType],sizeof(TDynRadioParams)); |
|
3569 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iTwdCtrl.twdInitParams.tIniFileRadioParams.tStatRadioParams,&iAutoRadioParams.tStatRadioParams,sizeof(TStatRadioParams)); |
|
3570 } |
|
3571 |
|
3572 |
|
3573 /** |
|
3574 * \fn InitTwdRadioParam |
|
3575 * \brief initialization of Radio params |
|
3576 * * /return |
|
3577 */ |
|
3578 |
|
3579 void TIWha::InitTwdRadioSmartReflexParam() |
|
3580 { |
|
3581 /* fill TWD init parms with relevant (RFMD or TriQuint) Radio parms before calling TWD_SetDefault*/ |
|
3582 os_memoryCopy(iTwdCtrl.tOsContext.hOsa,&iTwdCtrl.twdInitParams.tSmartReflexParams.errorTable, &iSmartReflexParams.tErrorTable,sizeof(TSmartReflexErrTable)); |
|
3583 os_memoryZero(iTwdCtrl.tOsContext.hOsa, &iSmartReflexDebugParams, sizeof(TSmartReflexDebugParams)); |
|
3584 iTwdCtrl.twdInitParams.tSmartReflexState.enable = iSmartReflexParams.SmartReflexState; |
|
3585 } |
|
3586 |
|
3587 |
|
3588 /** |
|
3589 * \fn InitReportParamTable |
|
3590 * \brief initialization of Report parameters |
|
3591 * |
|
3592 * since we ave no ini file, we are initializing the |
|
3593 * Modules with hard coded values |
|
3594 * /note |
|
3595 * |
|
3596 * /return |
|
3597 */ |
|
3598 void TIWha::InitReportParamTable() |
|
3599 { |
|
3600 /* Open All Modules and some severity */ |
|
3601 iTwdCtrl.report_init.aSeverityTable [REPORT_SEVERITY_INIT] = '0'; |
|
3602 iTwdCtrl.report_init.aSeverityTable [REPORT_SEVERITY_INFORMATION] = '0'; |
|
3603 iTwdCtrl.report_init.aSeverityTable [REPORT_SEVERITY_WARNING] = '0'; |
|
3604 iTwdCtrl.report_init.aSeverityTable [REPORT_SEVERITY_ERROR] = '1'; |
|
3605 iTwdCtrl.report_init.aSeverityTable [REPORT_SEVERITY_FATAL_ERROR] = '1'; |
|
3606 iTwdCtrl.report_init.aSeverityTable [REPORT_SEVERITY_SM] = '0'; |
|
3607 iTwdCtrl.report_init.aSeverityTable [REPORT_SEVERITY_CONSOLE] = '0'; |
|
3608 |
|
3609 for (TUint8 index = 0; index < REPORT_FILES_NUM; index++) |
|
3610 { |
|
3611 iTwdCtrl.report_init.aFileEnable [index] = '1'; |
|
3612 } |
|
3613 } |
|
3614 |
|
3615 /** |
|
3616 * \fn OpenAllReports |
|
3617 * \brief open all reports in report module. |
|
3618 * |
|
3619 * Use this function if you encounter some problem in a specific area. |
|
3620 * |
|
3621 * /note Used for debug only. |
|
3622 * |
|
3623 * /return |
|
3624 */ |
|
3625 void TIWha::OpenAllReports() |
|
3626 { |
|
3627 for (TUint8 index = 0; index < SIZE_ARR(iTwdCtrl.report_init.aSeverityTable); index++) |
|
3628 { |
|
3629 iTwdCtrl.report_init.aSeverityTable [index] = '1'; |
|
3630 } |
|
3631 |
|
3632 for (TUint8 index = 0; index < REPORT_FILES_NUM; index++) |
|
3633 { |
|
3634 iTwdCtrl.report_init.aFileEnable [index] = '1'; |
|
3635 } |
|
3636 |
|
3637 report_SetDefaults (iTwdCtrl.hReport, &(iTwdCtrl.report_init)); |
|
3638 |
|
3639 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, "\n"); |
|
3640 } |
|
3641 |
|
3642 |
|
3643 /** |
|
3644 * \fn RegisterCb |
|
3645 * \brief registers the TIWha callbacks |
|
3646 * |
|
3647 * Register callbacks To Twd level according to the action |
|
3648 * that we would like to be triggered on |
|
3649 * |
|
3650 * \note |
|
3651 * \return status whther the registration succeed or not. |
|
3652 * \sa |
|
3653 */ |
|
3654 WHA::TStatus TIWha::RegisterCb () |
|
3655 { |
|
3656 /* Register the failure event callback */ |
|
3657 TWD_RegisterCb (iTwdCtrl.hTWD, |
|
3658 TWD_EVENT_FAILURE, |
|
3659 (TTwdCB *)TIWhaAdaptCB::FailureIndication, |
|
3660 this); |
|
3661 |
|
3662 /* Register the send packet callback */ |
|
3663 TWD_RegisterCb (iTwdCtrl.hTWD, |
|
3664 TWD_EVENT_TX_XFER_SEND_PKT_TRANSFER, |
|
3665 (TTwdCB *)TIWhaAdaptCB::TxXfer, |
|
3666 this); |
|
3667 |
|
3668 /* Register the send complete packet callback */ |
|
3669 TWD_RegisterCb (iTwdCtrl.hTWD, |
|
3670 TWD_EVENT_TX_RESULT_SEND_PKT_COMPLETE, |
|
3671 (TTwdCB *)TIWhaAdaptCB::TxComplete, |
|
3672 this); |
|
3673 |
|
3674 /* Register the receive packet callback */ |
|
3675 TWD_RegisterCb (iTwdCtrl.hTWD, |
|
3676 TWD_EVENT_RX_RECEIVE_PACKET, |
|
3677 (TTwdCB *)TIWhaAdaptCB::ReceivePacket, |
|
3678 this); |
|
3679 |
|
3680 /* Register the request for buffer callback */ |
|
3681 TWD_RegisterCb (iTwdCtrl.hTWD, |
|
3682 TWD_EVENT_RX_REQUEST_FOR_BUFFER, |
|
3683 (TTwdCB *)TIWhaAdaptCB::RequestForBuffer, |
|
3684 this); |
|
3685 |
|
3686 /* register scan SRV scan complete CB */ |
|
3687 TWD_RegisterScanCompleteCb (iTwdCtrl.hTWD, |
|
3688 (TScanSrvCompleteCb)TIWhaAdaptCB::ScanComplete, this); |
|
3689 |
|
3690 return WHA::KSuccess; |
|
3691 } |
|
3692 |
|
3693 /** |
|
3694 * \fn RegisterEvents |
|
3695 * \brief register the TIWha Events |
|
3696 * |
|
3697 * Register callbacks To Twd level according to the event |
|
3698 * that we would like to be triggered on |
|
3699 * |
|
3700 * \note |
|
3701 * \return status whther the registration succeed or not. |
|
3702 * \sa |
|
3703 */ |
|
3704 WHA::TStatus TIWha::RegisterEvents () |
|
3705 { |
|
3706 /* Register the Regain BSS callback */ |
|
3707 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3708 TWD_OWN_EVENT_BSS_REGAIN, |
|
3709 (void *)TIWhaAdaptCB::RegainBssIndication, |
|
3710 this); |
|
3711 |
|
3712 /* Register the RSSI callback */ |
|
3713 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3714 TWD_OWN_EVENT_RSSI_SNR_TRIGGER_0, //adi - rssi - use TWD_EVENT_RSSI_SNR_TRIGGER_0 |
|
3715 (void *)TIWhaAdaptCB::RcpiIndication, |
|
3716 this); |
|
3717 TWD_EnableEvent (iTwdCtrl.hTWD, TWD_OWN_EVENT_RSSI_SNR_TRIGGER_0); |
|
3718 #if 0 |
|
3719 assaf: no support |
|
3720 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3721 TWD_EVENT_RSSI_LEVEL_REGAIN, //adi - rssi - use TWD_EVENT_RSSI_SNR_TRIGGER_0 |
|
3722 (void *)TIWhaAdaptCB::RcpiIndication, |
|
3723 this); |
|
3724 #endif |
|
3725 /* Register & enable the Join callback */ |
|
3726 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3727 TWD_OWN_EVENT_JOIN_CMPLT, |
|
3728 (void *)TIWhaAdaptCB::JoinComplete, |
|
3729 this); |
|
3730 |
|
3731 TWD_EnableEvent (iTwdCtrl.hTWD, TWD_OWN_EVENT_JOIN_CMPLT); |
|
3732 |
|
3733 #if 0 |
|
3734 assaf: no BT support |
|
3735 /* Register the BtCoexsitence indications */ |
|
3736 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3737 TWD_EVENT_BT_COEX_SENSE, |
|
3738 (void *)TIWhaAdaptCB::btCoexSenseIndication, |
|
3739 this); |
|
3740 |
|
3741 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3742 TWD_EVENT_BT_COEX_PROTECTIVE_MODE, |
|
3743 (void *)TIWhaAdaptCB::btCoexProtectiveIndication, |
|
3744 this); |
|
3745 |
|
3746 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3747 TWD_EVENT_BT_COEX_AVALANCHE, |
|
3748 (void *)TIWhaAdaptCB::btCoexAvalancheIndication, |
|
3749 this); |
|
3750 #endif |
|
3751 /* Roaming Triggers */ |
|
3752 TWD_RegisterEvent (iTwdCtrl.hTWD, |
|
3753 TWD_OWN_EVENT_BSS_LOSE, |
|
3754 (void *)TIWhaAdaptCB::LostBssIndication, |
|
3755 this); |
|
3756 |
|
3757 TWD_EnableEvent (iTwdCtrl.hTWD, TWD_OWN_EVENT_BSS_LOSE); |
|
3758 |
|
3759 |
|
3760 |
|
3761 return WHA::KSuccess; |
|
3762 } |
|
3763 |
|
3764 |
|
3765 |
|
3766 |
|
3767 /** |
|
3768 * \fn FillNWSASettings |
|
3769 * \brief Fill UMAC structure with correct settings |
|
3770 * |
|
3771 * since we ave no ini file, we are initializing the |
|
3772 * Modules wit hard coded values |
|
3773 * \note |
|
3774 * |
|
3775 * \param SNWSASettings - pointer pointer to the UMAC settings struct |
|
3776 * \return status |
|
3777 */ |
|
3778 WHA::TStatus TIWha::FillNWSASettings (WHA::SSettings *SNWSASettings) |
|
3779 { |
|
3780 #ifdef HT_SUPPORT |
|
3781 TTwdHtCapabilities* pTwdHtCapabilities; |
|
3782 #endif /* HT_SUPPORT */ |
|
3783 TRACE0(iTwdCtrl.hReport, REPORT_SEVERITY_INIT, "FillNWSASettings +"); |
|
3784 |
|
3785 /* Fill all the parameters in the NWSA Settings */ |
|
3786 SNWSASettings->iNumOfSSIDs = TIWha_SCAN_MAX_SSID_NUM; |
|
3787 SNWSASettings->iRxBufAlignment = TIWha_NO_BUFFER_ALIGNMENT_SETTING; /* no alignment is needed */ |
|
3788 SNWSASettings->iNumOfBytesForSsid = TIWha_MAX_SSID_LEN; |
|
3789 SNWSASettings->iRates = TIWha_RATE_BIT_MASK_SUPPORT; |
|
3790 SNWSASettings->iBand = TIWha_BAND_BIT_MASK_SUPPORT; |
|
3791 SNWSASettings->iRxoffset = WSPI_PAD_LEN_READ + sizeof(RxIfDescriptor_t); |
|
3792 SNWSASettings->iNumOfGroupTableEntrys = ADDRESS_GROUP_MAX; |
|
3793 SNWSASettings->iNumOfTxRateClasses = MAX_NUM_OF_TX_RATE_CLASS_POLICIES; |
|
3794 SNWSASettings->iTxFrameTrailerSpace = 0; |
|
3795 SNWSASettings->iTxFrameHeaderSpace = TX_TOTAL_OFFSET_BEFORE_DATA; |
|
3796 SNWSASettings->iFlagsMask = TIWha_RECEIVE_PACKET_BIT_MASK_SUPPORT; |
|
3797 SNWSASettings->iCapability = TIWha_CAPABILITY_BIT_MASK_SUPPORT; |
|
3798 |
|
3799 #ifdef GEM_SUPPORT |
|
3800 SNWSASettings->iCapability |= TIWha_CAPABILITY_GEM_SUPPORT; |
|
3801 #endif /* GEM_SUPPORT */ |
|
3802 |
|
3803 #ifdef MB_ENABLE |
|
3804 SNWSASettings->iCapability |= TIWha_CAPABILITY_MB_SUPPORT; |
|
3805 #endif |
|
3806 |
|
3807 #ifdef HT_SUPPORT |
|
3808 SNWSASettings->iCapability |= TIWha_CAPABILITY_HT_OPERATION; |
|
3809 #endif /* HT_SUPPORT */ |
|
3810 |
|
3811 SNWSASettings->iCapability |= TIWha_CAPABILITY_AUTO_RATE; |
|
3812 |
|
3813 /* Add DS Parameters -- Allow only APs from the requested channel |
|
3814 to answer the probe increase scan result in crowded environment */ |
|
3815 |
|
3816 //SNWSASettings->iCapability |= WHA::SSettings::KDsParamSetIeInProbe; |
|
3817 |
|
3818 /* Tx power level for each radio band */ |
|
3819 TFwInfo *pFwInfo = TWD_GetFWInfo (iTwdCtrl.hTWD); |
|
3820 |
|
3821 /* |
|
3822 * 2.4 GHz |
|
3823 * in txPowerTable[x][y]: x - 0 for 2.4GHz, y - power level starting from 0 to NUM_POWER_LEVELS - 1 |
|
3824 */ |
|
3825 SNWSASettings->iTxPowerRange[0].iMaxPowerLevel = |
|
3826 pFwInfo->txPowerTable[RADIO_BAND_2_4_GHZ][0] / DBM_TO_TX_POWER_FACTOR; |
|
3827 SNWSASettings->iTxPowerRange[0].iMinPowerLevel = |
|
3828 pFwInfo->txPowerTable[RADIO_BAND_2_4_GHZ][NUM_POWER_LEVELS - 1] / DBM_TO_TX_POWER_FACTOR; |
|
3829 SNWSASettings->iTxPowerRange[0].iStepping = 0; |
|
3830 |
|
3831 TRACE3(iTwdCtrl.hReport, REPORT_SEVERITY_INFORMATION, ": 2.4 iMaxPowerLevel = %d iMinPowerLevel = %d stepping = %d\n", SNWSASettings->iTxPowerRange[0].iMaxPowerLevel, SNWSASettings->iTxPowerRange[0].iMinPowerLevel, SNWSASettings->iTxPowerRange[0].iStepping); |
|
3832 |
|
3833 /* 4.9 GHZ temporary not supported for the power level */ |
|
3834 SNWSASettings->iTxPowerRange[1].iMaxPowerLevel = 0; |
|
3835 SNWSASettings->iTxPowerRange[1].iMinPowerLevel = 0; |
|
3836 SNWSASettings->iTxPowerRange[1].iStepping = 0; |
|
3837 |
|
3838 /* 5.0 GHZ temporary not supported for the power level since there are 4 sub-bands */ |
|
3839 SNWSASettings->iTxPowerRange[2].iMaxPowerLevel = 0; |
|
3840 SNWSASettings->iTxPowerRange[2].iMinPowerLevel = 0; |
|
3841 SNWSASettings->iTxPowerRange[2].iStepping = 0; |
|
3842 |
|
3843 #ifdef HT_SUPPORT |
|
3844 TWD_GetTwdHtCapabilities (iTwdCtrl.hTWD,&pTwdHtCapabilities); |
|
3845 TConvertTwdHtCapa2SHtCapa (pTwdHtCapabilities,&SNWSASettings->iHtCapabilities); |
|
3846 #endif /* HT_SUPPORT */ |
|
3847 |
|
3848 return WHA::KSuccess; |
|
3849 } |
|
3850 |
|
3851 |
|
3852 /**************************************************************************** |
|
3853 * FillRadioData |
|
3854 **************************************************************************** |
|
3855 * DESCRIPTION: fill Radio params , in future will be done by Radio scope |
|
3856 * |
|
3857 * INPUTS: |
|
3858 * |
|
3859 * OUTPUT: radio params |
|
3860 * |
|
3861 * RETURNS: OK |
|
3862 ****************************************************************************/ |
|
3863 void TIWha::FillRadioData() |
|
3864 { |
|
3865 |
|
3866 iAutoRadioParams.tGeneralParams.TXBiPFEMAutoDetect = FEM_AUTO_DETECT_MODE_E; |
|
3867 iAutoRadioParams.tGeneralParams.TXBiPFEMManufacturer = FEM_TRIQUINT_TYPE_E; |
|
3868 |
|
3869 iAutoRadioParams.tGeneralParams.RefClk = eREF_CLK_38_4_E; |
|
3870 iAutoRadioParams.tGeneralParams.SettlingTime = 5; |
|
3871 iAutoRadioParams.tGeneralParams.ClockValidOnWakeup = REF_CLK_NOT_VALID_E; |
|
3872 iAutoRadioParams.tGeneralParams.DC2DCMode = BT_SPI_IS_NOT_USED_E; |
|
3873 iAutoRadioParams.tGeneralParams.Single_Dual_Band_Solution = SINGLE_BAND_SOLUTION_E; |
|
3874 |
|
3875 iAutoRadioParams.tStatRadioParams.RxTraceInsertionLoss_2_4G = 0; |
|
3876 iAutoRadioParams.tStatRadioParams.TXTraceLoss_2_4G = 0; |
|
3877 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[0] = 0xEC; |
|
3878 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[1] = 0xF6; |
|
3879 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[2] = 0x00; |
|
3880 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[3] = 0x0C; |
|
3881 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[4] = 0x18; |
|
3882 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[5] = 0xF8; |
|
3883 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[6] = 0xFC; |
|
3884 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[7] = 0x00; |
|
3885 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[8] = 0x08; |
|
3886 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[9] = 0x10; |
|
3887 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[10] = 0xF0; |
|
3888 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[11] = 0xF8; |
|
3889 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[12] = 0x00; |
|
3890 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[13] = 0x0A; |
|
3891 iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_2_4G[14] = 0x14; |
|
3892 memset(&iAutoRadioParams.tStatRadioParams.RxTraceInsertionLoss_5G[0],0,NUMBER_OF_SUB_BANDS_IN_5G_BAND_E); |
|
3893 memset(&iAutoRadioParams.tStatRadioParams.TXTraceLoss_5G[0],0,NUMBER_OF_SUB_BANDS_IN_5G_BAND_E); |
|
3894 memset(&iAutoRadioParams.tStatRadioParams.RxRssiAndProcessCompensation_5G[0],0,RSSI_AND_PROCESS_COMPENSATION_TABLE_SIZE); |
|
3895 |
|
3896 /* RMFD deafult value */ |
|
3897 if (iAutoRadioParams.tGeneralParams.Single_Dual_Band_Solution == DUAL_BAND_SOLUTION_E) |
|
3898 { |
|
3899 |
|
3900 iAutoRadioParams.tDynRadioParams[0].TXBiPReferencePDvoltage_2_4G = 0 ; |
|
3901 iAutoRadioParams.tDynRadioParams[0].TxBiPReferencePower_2_4G = 0; |
|
3902 iAutoRadioParams.tDynRadioParams[0].TxBiPOffsetdB_2_4G = 0; |
|
3903 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[0] = 0x1E; |
|
3904 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[1] = 0x1F; |
|
3905 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[2] = 0x22; |
|
3906 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[3] = 0x24; |
|
3907 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[4] = 0x28; |
|
3908 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[5] = 0x29; |
|
3909 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[0] = 0x1B; |
|
3910 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[1] = 0x1C; |
|
3911 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[2] = 0x1E; |
|
3912 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[3] = 0x20; |
|
3913 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[4] = 0x24; |
|
3914 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[5] = 0x25; |
|
3915 for (int i=0; i<NUMBER_OF_2_4_G_CHANNELS;i++) |
|
3916 { |
|
3917 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_11b[i] = 0x50; |
|
3918 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_OFDM[i] = 0x50; |
|
3919 } |
|
3920 |
|
3921 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_OFDM[0] = 0x20; |
|
3922 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_OFDM[10] = 0x20; |
|
3923 memset(&iAutoRadioParams.tDynRadioParams[0].TxPDVsRateOffsets_2_4G[0],0,NUMBER_OF_RATE_GROUPS_E); |
|
3924 for (int i=0; i<NUMBER_OF_RATE_GROUPS_E;i++) |
|
3925 { |
|
3926 iAutoRadioParams.tDynRadioParams[0].TxIbiasTable_2_4G[i] = 0x0E; |
|
3927 } |
|
3928 iAutoRadioParams.tDynRadioParams[0].TxIbiasTable_2_4G[5] = 0x17; |
|
3929 iAutoRadioParams.tDynRadioParams[0].RxFemInsertionLoss_2_4G = 0x0D; |
|
3930 |
|
3931 // SECTION 2: 5G parameters |
|
3932 memset(&iAutoRadioParams.tDynRadioParams[0].TXBiPReferencePDvoltage_5G[0],0,NUMBER_OF_RATE_GROUPS_E); |
|
3933 memset(&iAutoRadioParams.tDynRadioParams[0].TxBiPReferencePower_5G[0],0,NUMBER_OF_RATE_GROUPS_E); |
|
3934 memset(&iAutoRadioParams.tDynRadioParams[0].TxBiPOffsetdB_5G[0],0,NUMBER_OF_RATE_GROUPS_E); |
|
3935 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Normal[0] = 0x1D; |
|
3936 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Normal[1] = 0x1E; |
|
3937 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Normal[2] = 0x21; |
|
3938 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Normal[3] = 0x23; |
|
3939 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Normal[4] = 0x27; |
|
3940 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Normal[5] = 0; |
|
3941 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Degraded[0]= 0x1A; |
|
3942 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Degraded[1] = 0x1B; |
|
3943 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Degraded[2] = 0x1D; |
|
3944 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Degraded[3] = 0x1F; |
|
3945 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Degraded[4] = 0x23; |
|
3946 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_5G_Degraded[5] = 0x00; |
|
3947 memset(&iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_5G_OFDM[0],0,NUMBER_OF_5G_CHANNELS); |
|
3948 memset(&iAutoRadioParams.tDynRadioParams[0].TxPDVsRateOffsets_5G[0],0,NUMBER_OF_RATE_GROUPS_E); |
|
3949 for (int i=0;i<NUMBER_OF_RATE_GROUPS_E;i++) |
|
3950 { |
|
3951 iAutoRadioParams.tDynRadioParams[0].TxIbiasTable_5G[i] = 0x27; |
|
3952 iAutoRadioParams.tDynRadioParams[0].RxFemInsertionLoss_5G[i] = 0x12; |
|
3953 } |
|
3954 |
|
3955 iAutoRadioParams.tDynRadioParams[0].TxIbiasTable_5G[5] = 0; |
|
3956 |
|
3957 } |
|
3958 else |
|
3959 { |
|
3960 iAutoRadioParams.tDynRadioParams[0].TXBiPReferencePDvoltage_2_4G =0x24E ; |
|
3961 iAutoRadioParams.tDynRadioParams[0].TxBiPReferencePower_2_4G = 0x78; |
|
3962 iAutoRadioParams.tDynRadioParams[0].TxBiPOffsetdB_2_4G = 0; |
|
3963 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[0] = 0x1E; |
|
3964 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[1] = 0x1F; |
|
3965 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[2] = 0x22; |
|
3966 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[3] = 0x24; |
|
3967 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[4] = 0x28; |
|
3968 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Normal[5] = 0x29; |
|
3969 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[0] = 0x1B; |
|
3970 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[1] = 0x1C; |
|
3971 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[2] = 0x1E; |
|
3972 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[3] = 0x20; |
|
3973 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[4] = 0x24; |
|
3974 iAutoRadioParams.tDynRadioParams[0].TxPerRatePowerLimits_2_4G_Degraded[5] = 0x25; |
|
3975 for (int i =0;i<NUMBER_OF_2_4_G_CHANNELS;i++) |
|
3976 { |
|
3977 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_11b[i] = 0x50; |
|
3978 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_OFDM[i] = 0x50; |
|
3979 } |
|
3980 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_OFDM[0] = 0x20; |
|
3981 iAutoRadioParams.tDynRadioParams[0].TxPerChannelPowerLimits_2_4G_OFDM[10] = 0x20; |
|
3982 memset(&iAutoRadioParams.tDynRadioParams[0].TxPDVsRateOffsets_2_4G[0],0,NUMBER_OF_RATE_GROUPS_E); |
|
3983 for (int i = 0 ;i <NUMBER_OF_RATE_GROUPS_E;i++) |
|
3984 { |
|
3985 iAutoRadioParams.tDynRadioParams[0].TxIbiasTable_2_4G[i] = 0x1A; |
|
3986 } |
|
3987 |
|
3988 iAutoRadioParams.tDynRadioParams[0].TxIbiasTable_2_4G[5] = 0x2F; |
|
3989 iAutoRadioParams.tDynRadioParams[0].RxFemInsertionLoss_2_4G = 0; |
|
3990 |
|
3991 /* TriQuint default value */ |
|
3992 iAutoRadioParams.tDynRadioParams[1].TXBiPReferencePDvoltage_2_4G= 0x168; |
|
3993 iAutoRadioParams.tDynRadioParams[1].TxBiPReferencePower_2_4G= 0x83; |
|
3994 iAutoRadioParams.tDynRadioParams[1].TxBiPOffsetdB_2_4G=0; |
|
3995 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Normal[0] = 0x1E; |
|
3996 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Normal[1] = 0x1F; |
|
3997 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Normal[2] = 0x22; |
|
3998 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Normal[3] = 0x24; |
|
3999 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Normal[4] = 0x28; |
|
4000 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Normal[5] = 0x29; |
|
4001 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Degraded[0] = 0x1B; |
|
4002 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Degraded[1] = 0x1C; |
|
4003 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Degraded[2] = 0x1E; |
|
4004 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Degraded[3] = 0x20; |
|
4005 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Degraded[4] = 0x24; |
|
4006 iAutoRadioParams.tDynRadioParams[1].TxPerRatePowerLimits_2_4G_Degraded[5] = 0x25; |
|
4007 for (int i =0;i<NUMBER_OF_2_4_G_CHANNELS;i++) |
|
4008 { |
|
4009 iAutoRadioParams.tDynRadioParams[1].TxPerChannelPowerLimits_2_4G_11b[i] = 0x50; |
|
4010 iAutoRadioParams.tDynRadioParams[1].TxPerChannelPowerLimits_2_4G_OFDM[i] = 0x50; |
|
4011 } |
|
4012 iAutoRadioParams.tDynRadioParams[1].TxPerChannelPowerLimits_2_4G_OFDM[0] = 0x20; |
|
4013 iAutoRadioParams.tDynRadioParams[1].TxPerChannelPowerLimits_2_4G_OFDM[10] = 0x20; |
|
4014 memset(&iAutoRadioParams.tDynRadioParams[1].TxPDVsRateOffsets_2_4G[0],0,NUMBER_OF_RATE_GROUPS_E); |
|
4015 for (int i = 0 ;i <NUMBER_OF_RATE_GROUPS_E;i++) |
|
4016 { |
|
4017 iAutoRadioParams.tDynRadioParams[1].TxIbiasTable_2_4G[i] = 0x11; |
|
4018 } |
|
4019 |
|
4020 iAutoRadioParams.tDynRadioParams[1].TxIbiasTable_2_4G[5] = 0x12; |
|
4021 iAutoRadioParams.tDynRadioParams[1].RxFemInsertionLoss_2_4G = 0x12; |
|
4022 } |
|
4023 } |
|
4024 |
|
4025 void TIWha::FillSmartReflexData() |
|
4026 { |
|
4027 iSmartReflexParams.SmartReflexState = 0; |
|
4028 |
|
4029 iSmartReflexParams.tErrorTable[0].len = 7; |
|
4030 iSmartReflexParams.tErrorTable[0].upperLimit = 3; |
|
4031 iSmartReflexParams.tErrorTable[0].values[0] = 24; |
|
4032 iSmartReflexParams.tErrorTable[0].values[1] = 16; |
|
4033 iSmartReflexParams.tErrorTable[0].values[2] = 5; |
|
4034 iSmartReflexParams.tErrorTable[0].values[3] = -5; |
|
4035 iSmartReflexParams.tErrorTable[0].values[4] = -16; |
|
4036 iSmartReflexParams.tErrorTable[0].values[5] = -24; |
|
4037 iSmartReflexParams.tErrorTable[1].len = 7; |
|
4038 iSmartReflexParams.tErrorTable[1].upperLimit = 3; |
|
4039 iSmartReflexParams.tErrorTable[1].values[0] = 24; |
|
4040 iSmartReflexParams.tErrorTable[1].values[1] = 16; |
|
4041 iSmartReflexParams.tErrorTable[1].values[2] = 5; |
|
4042 iSmartReflexParams.tErrorTable[1].values[3] = -5; |
|
4043 iSmartReflexParams.tErrorTable[1].values[4] = -16; |
|
4044 iSmartReflexParams.tErrorTable[1].values[5] = -24; |
|
4045 iSmartReflexParams.tErrorTable[2].len = 7; |
|
4046 iSmartReflexParams.tErrorTable[2].upperLimit = 3; |
|
4047 iSmartReflexParams.tErrorTable[2].values[0] = 24; |
|
4048 iSmartReflexParams.tErrorTable[2].values[1] = 16; |
|
4049 iSmartReflexParams.tErrorTable[2].values[2] = 5; |
|
4050 iSmartReflexParams.tErrorTable[2].values[3] = -5; |
|
4051 iSmartReflexParams.tErrorTable[2].values[4] = -16; |
|
4052 iSmartReflexParams.tErrorTable[2].values[5] = -24; |
|
4053 } |
|
4054 |
|
4055 #if TI_DBG |
|
4056 /**************************************************************************** |
|
4057 * PrintRadioData |
|
4058 **************************************************************************** |
|
4059 * DESCRIPTION: print Radio params , used for debug |
|
4060 * |
|
4061 * INPUTS: |
|
4062 * |
|
4063 * OUTPUT: radio params |
|
4064 * |
|
4065 * RETURNS: OK |
|
4066 ****************************************************************************/ |
|
4067 void TIWha::PrintRadioData() |
|
4068 { |
|
4069 TI_UINT32 i,j; |
|
4070 TI_UINT8* pRadio; |
|
4071 |
|
4072 pRadio = reinterpret_cast<TI_UINT8*>(&iAutoRadioParams); |
|
4073 |
|
4074 i=0; |
|
4075 os_printf("/**********************/ \n"); |
|
4076 os_printf("/* INI General params */ \n"); |
|
4077 os_printf("/**********************/ \n"); |
|
4078 |
|
4079 os_printf("0x%x, /* RefClk */ \n", pRadio[i++]); |
|
4080 os_printf("0x%x, /* SettlingTime */ \n", pRadio[i++]); |
|
4081 os_printf("0x%x, /* ClockValidOnWakeup */ \n", pRadio[i++]); |
|
4082 os_printf("0x%x, /* DC2DCMode */ \n", pRadio[i++]); |
|
4083 os_printf("0x%x, /* Single_Dual_Band_Solution */ \n", pRadio[i++]); |
|
4084 os_printf("0x%x, /* TXBiPFEMAutoDetect */ \n", pRadio[i++]); |
|
4085 os_printf("0x%x, /* TXBiPFEMManufacturer */ \n", pRadio[i++]); |
|
4086 os_printf("0x%x, /* Padding */ \n", pRadio[i++]); |
|
4087 |
|
4088 os_printf("/*************************/ \n"); |
|
4089 os_printf("/* INI Stat Radio params */ \n"); |
|
4090 os_printf("/*************************/ \n"); |
|
4091 |
|
4092 os_printf("0x%x, /* RxTraceInsertionLoss_2_4G */ \n", pRadio[i++]); |
|
4093 os_printf("0x%x, /* TXTraceLoss_2_4G */ \n", pRadio[i++]); |
|
4094 for (j=0;j<15;j++) |
|
4095 os_printf("0x%x, ", pRadio[i++]); |
|
4096 os_printf("/* RxRssiAndProcessCompensation_2_4G[15] */ \n"); |
|
4097 for (j=0;j<7;j++) |
|
4098 os_printf("0x%x, ", pRadio[i++]); |
|
4099 os_printf("/* RxTraceInsertionLoss_5G[7] */ \n"); |
|
4100 for (j=0;j<7;j++) |
|
4101 os_printf("0x%x, ", pRadio[i++]); |
|
4102 os_printf("/* TXTraceLoss_5G[7] */ \n"); |
|
4103 for (j=0;j<15;j++) |
|
4104 os_printf("0x%x, ", pRadio[i++]); |
|
4105 os_printf("/* RxRssiAndProcessCompensation_5G[15] */ \n"); |
|
4106 |
|
4107 os_printf("/*******************************/ \n"); |
|
4108 os_printf("/* Dyn Radio Params. First FEM */ \n"); |
|
4109 os_printf("/*******************************/ \n"); |
|
4110 |
|
4111 os_printf("0x%x, ", pRadio[i++]); |
|
4112 os_printf("0x%x, /* TXBiPReferencePDvoltage_2_4G */ \n", pRadio[i++]); |
|
4113 os_printf("0x%x, /* TxBiPReferencePower_2_4G */ \n", pRadio[i++]); |
|
4114 os_printf("0x%x, /* TxBiPOffsetdB_2_4G */ \n", pRadio[i++]); |
|
4115 for (j=0;j<6;j++) |
|
4116 os_printf("0x%x, ", pRadio[i++]); |
|
4117 os_printf("/* TxPerRatePowerLimits_2_4G_Normal[6] */ \n"); |
|
4118 for (j=0;j<6;j++) |
|
4119 os_printf("0x%x, ", pRadio[i++]); |
|
4120 os_printf("/* TxPerRatePowerLimits_2_4G_Degraded[6] */ \n"); |
|
4121 for (j=0;j<14;j++) |
|
4122 os_printf("0x%x, ", pRadio[i++]); |
|
4123 os_printf("/* TxPerChannelPowerLimits_2_4G_11b[14] */ \n"); |
|
4124 for (j=0;j<14;j++) |
|
4125 os_printf("0x%x, ", pRadio[i++]); |
|
4126 os_printf("/* TxPerChannelPowerLimits_2_4G_OFDM[14] */ \n"); |
|
4127 for (j=0;j<6;j++) |
|
4128 os_printf("0x%x, ", pRadio[i++]); |
|
4129 os_printf("/* TxPDVsRateOffsets_2_4G[6] */ \n"); |
|
4130 for (j=0;j<6;j++) |
|
4131 os_printf("0x%x, ", pRadio[i++]); |
|
4132 os_printf("/* TxIbiasTable_2_4G[6] */ \n"); |
|
4133 os_printf("0x%x, /* RxFemInsertionLoss_2_4G */ \n", pRadio[i++]); |
|
4134 for (j=0;j<35;j++) |
|
4135 os_printf("0x%x, ", pRadio[i++]); |
|
4136 os_printf("/* TxPerChannelPowerLimits_5G_OFDM[35] */ \n"); |
|
4137 for (j=0;j<14;j++) |
|
4138 os_printf("0x%x, ", pRadio[i++]); |
|
4139 os_printf("/* TXBiPReferencePDvoltage_5G[7*2] */ \n"); |
|
4140 for (j=0;j<7;j++) |
|
4141 os_printf("0x%x, ", pRadio[i++]); |
|
4142 os_printf("/* TxBiPReferencePower_5G[7] */ \n"); |
|
4143 for (j=0;j<7;j++) |
|
4144 os_printf("0x%x, ", pRadio[i++]); |
|
4145 os_printf("/* TxBiPOffsetdB_5G[7] */ \n"); |
|
4146 for (j=0;j<6;j++) |
|
4147 os_printf("0x%x, ", pRadio[i++]); |
|
4148 os_printf("/* TxPerRatePowerLimits_5G_Normal[6] */ \n"); |
|
4149 for (j=0;j<6;j++) |
|
4150 os_printf("0x%x, ", pRadio[i++]); |
|
4151 os_printf("/* TxPerRatePowerLimits_5G_Degraded[6] */ \n"); |
|
4152 for (j=0;j<6;j++) |
|
4153 os_printf("0x%x, ", pRadio[i++]); |
|
4154 os_printf("/* TxPDVsRateOffsets_5G[6] */ \n"); |
|
4155 for (j=0;j<6;j++) |
|
4156 os_printf("0x%x, ", pRadio[i++]); |
|
4157 os_printf("/* TxIbiasTable_5G[6] */ \n"); |
|
4158 for (j=0;j<7;j++) |
|
4159 os_printf("0x%x, ", pRadio[i++]); |
|
4160 os_printf("/* RxFemInsertionLoss_5G[7] */ \n"); |
|
4161 os_printf("0x%x, /* Padding */ \n", pRadio[i++]); |
|
4162 |
|
4163 os_printf("/************************************/ \n"); |
|
4164 os_printf("/* INI Dyn Radio Params. Second FEM */ \n"); |
|
4165 os_printf("/************************************/ \n"); |
|
4166 |
|
4167 os_printf("0x%x, ", pRadio[i++]); |
|
4168 os_printf("0x%x, /* TXBiPReferencePDvoltage_2_4G */ \n", pRadio[i++]); |
|
4169 os_printf("0x%x, /* TxBiPReferencePower_2_4G */ \n", pRadio[i++]); |
|
4170 os_printf("0x%x, /* TxBiPOffsetdB_2_4G */ \n", pRadio[i++]); |
|
4171 for (j=0;j<6;j++) |
|
4172 os_printf("0x%x, ", pRadio[i++]); |
|
4173 os_printf("/* TxPerRatePowerLimits_2_4G_Normal[6] */ \n"); |
|
4174 for (j=0;j<6;j++) |
|
4175 os_printf("0x%x, ", pRadio[i++]); |
|
4176 os_printf("/* TxPerRatePowerLimits_2_4G_Degraded[6] */ \n"); |
|
4177 for (j=0;j<14;j++) |
|
4178 os_printf("0x%x, ", pRadio[i++]); |
|
4179 os_printf("/* TxPerChannelPowerLimits_2_4G_11b[14] */ \n"); |
|
4180 for (j=0;j<14;j++) |
|
4181 os_printf("0x%x, ", pRadio[i++]); |
|
4182 os_printf("/* TxPerChannelPowerLimits_2_4G_OFDM[14] */ \n"); |
|
4183 for (j=0;j<6;j++) |
|
4184 os_printf("0x%x, ", pRadio[i++]); |
|
4185 os_printf("/* TxPDVsRateOffsets_2_4G[6] */ \n"); |
|
4186 for (j=0;j<6;j++) |
|
4187 os_printf("0x%x, ", pRadio[i++]); |
|
4188 os_printf("/* TxIbiasTable_2_4G[6] */ \n"); |
|
4189 os_printf("0x%x, /* RxFemInsertionLoss_2_4G */ \n", pRadio[i++]); |
|
4190 for (j=0;j<14;j++) |
|
4191 { |
|
4192 os_printf("0x%x, ", pRadio[i++]); |
|
4193 } |
|
4194 os_printf("/* TXBiPReferencePDvoltage_5G[7*2] */ \n"); |
|
4195 for (j=0;j<7;j++) |
|
4196 os_printf("0x%x, ", pRadio[i++]); |
|
4197 os_printf("/* TxBiPReferencePower_5G[7] */ \n"); |
|
4198 for (j=0;j<7;j++) |
|
4199 os_printf("0x%x, ", pRadio[i++]); |
|
4200 os_printf("/* TxBiPOffsetdB_5G[7] */ \n"); |
|
4201 for (j=0;j<6;j++) |
|
4202 os_printf("0x%x, ", pRadio[i++]); |
|
4203 os_printf("/* TxPerRatePowerLimits_5G_Normal[6] */ \n"); |
|
4204 for (j=0;j<6;j++) |
|
4205 os_printf("0x%x, ", pRadio[i++]); |
|
4206 os_printf("/* TxPerRatePowerLimits_5G_Degraded[6] */ \n"); |
|
4207 for (j=0;j<35;j++) |
|
4208 os_printf("0x%x, ", pRadio[i++]); |
|
4209 os_printf("/* TxPerChannelPowerLimits_5G_OFDM[35] */ \n"); |
|
4210 for (j=0;j<6;j++) |
|
4211 os_printf("0x%x, ", pRadio[i++]); |
|
4212 os_printf("/* TxPDVsRateOffsets_5G[6] */ \n"); |
|
4213 for (j=0;j<6;j++) |
|
4214 os_printf("0x%x, ", pRadio[i++]); |
|
4215 os_printf("/* TxIbiasTable_5G[6] */ \n"); |
|
4216 for (j=0;j<7;j++) |
|
4217 os_printf("0x%x, ", pRadio[i++]); |
|
4218 os_printf("/* RxFemInsertionLoss_5G[7] */ \n"); |
|
4219 os_printf("0x%x /* Padding */ \n", pRadio[i++]); |
|
4220 } |
|
4221 #endif |
|
4222 |
|
4223 |
|
4224 /** |
|
4225 * \fn TIFailureDfcClient |
|
4226 * \brief Constructor |
|
4227 * |
|
4228 * This method is the default constructor for TIFailureDfcClient. |
|
4229 * This class is in charge of creating a new DFC that will handle |
|
4230 * the failure handling & dispatch to the umac in case of a failure event. |
|
4231 * |
|
4232 * \note |
|
4233 * return handle to TIFailureDfcClient class. |
|
4234 * \sa |
|
4235 */ |
|
4236 TIFailureDfcClient::TIFailureDfcClient(MWlanOsa& aOsa) |
|
4237 { |
|
4238 pFailureDfc = aOsa.DfcCreate(); |
|
4239 } |
|
4240 |
|
4241 |
|
4242 /** |
|
4243 * \fn TIFailureDfcClient::OnDfc |
|
4244 * \brief Call TIWhaAdaptCB::FailureIndicationDFC from TIFailureDfcClient context |
|
4245 * |
|
4246 * \param handle to TIWha context |
|
4247 * |
|
4248 * /note |
|
4249 * |
|
4250 * /return void |
|
4251 */ |
|
4252 void TIFailureDfcClient::OnDfc(TInt aCtx) |
|
4253 { |
|
4254 TIWhaAdaptCB::FailureIndicationDFC ((TI_HANDLE)aCtx); |
|
4255 } |
|
4256 |
|
4257 |
|
4258 /** |
|
4259 * \fn TIConnectDfcClient |
|
4260 * \brief Constructor |
|
4261 * |
|
4262 * This method is the default constructor for TIConnectDfcClient. |
|
4263 * This class is in charge of creating a new DFC that will handle |
|
4264 * the end of the bus connection phase in case of a sync init bus transaction . |
|
4265 * |
|
4266 * \note |
|
4267 * return handle to TIConnectDfcClient class. |
|
4268 * \sa |
|
4269 */ |
|
4270 TIConnectDfcClient::TIConnectDfcClient(MWlanOsa& aOsa) |
|
4271 { |
|
4272 pConnectDfc = aOsa.DfcCreate(); |
|
4273 } |
|
4274 |
|
4275 |
|
4276 /** |
|
4277 * \fn TIConnectDfcClient::OnDfc |
|
4278 * \brief Call TIWhaAdaptCB::ConnectBus from TIConnectDfcClient context |
|
4279 * |
|
4280 * \param handle to TIWha context |
|
4281 * |
|
4282 * /note |
|
4283 * |
|
4284 * /return void |
|
4285 */ |
|
4286 void TIConnectDfcClient::OnDfc(TInt aCtx) |
|
4287 { |
|
4288 TIWhaAdaptCB::ConnectBus ((TI_HANDLE)aCtx); |
|
4289 } |
|
4290 |
|
4291 |
|
4292 |
|
4293 /*****************************************************************************************************/ |
|
4294 /************************************** CREATE DRIVER ************************************************/ |
|
4295 |
|
4296 |
|
4297 DECLARE_STANDARD_PDD() |
|
4298 { |
|
4299 TIWha* p = new TIWha; |
|
4300 return p; |
|
4301 } |
|
4302 |
|
4303 |
|
4304 TInt TIWha::Install() |
|
4305 { |
|
4306 TPtrC mDeviceName= DEVICE_NAME; |
|
4307 |
|
4308 return SetName(&mDeviceName); |
|
4309 } |
|
4310 |
|
4311 void TIWha::GetCaps( TDes8& aDes ) const |
|
4312 { |
|
4313 aDes.FillZ(aDes.MaxLength()); |
|
4314 |
|
4315 aDes.Copy( (TUint8*)&iVersion, Min(aDes.MaxLength(), sizeof(TVersion)) ); |
|
4316 } |
|
4317 |
|
4318 |
|
4319 |
|
4320 TInt TIWha::Create( DBase *&aChannel, TInt aUnit, const TDesC* anInfo, const TVersion& aVer) |
|
4321 { |
|
4322 if ( !Kern::QueryVersionSupported( iVersion, aVer ) ) |
|
4323 { |
|
4324 return KErrNotSupported; |
|
4325 } |
|
4326 if (bDriverCreated) { |
|
4327 aChannel = (MWlanPddIface*)this; |
|
4328 return KErrNone; |
|
4329 } |
|
4330 else |
|
4331 { |
|
4332 return KErrNotReady; |
|
4333 } |
|
4334 } |
|
4335 |
|
4336 |
|
4337 TInt TIWha::Validate( TInt aUnit, const TDesC8 *aInfo, const TVersion &aVer ) |
|
4338 { |
|
4339 return KErrNone; |
|
4340 } |
|
4341 |
|
4342 TBool TIWha::Attach( MWlanOsa& aWlanOsa, MWlanOsaExt& aWlanOsaExt ) |
|
4343 { |
|
4344 iTwdCtrl.tOsContext.hOsa = &aWlanOsa; |
|
4345 |
|
4346 /* Create HPA */ |
|
4347 iTwdCtrl.tOsContext.hHpa = WlanHpa::Create( aWlanOsaExt, aWlanOsa); |
|
4348 |
|
4349 /* Create SPIA */ |
|
4350 iTwdCtrl.tOsContext.hSpia = WlanSpia::Create( aWlanOsaExt ); |
|
4351 |
|
4352 if (iTwdCtrl.tOsContext.hHpa == NULL || iTwdCtrl.tOsContext.hSpia == NULL) { |
|
4353 WLAN_OS_REPORT (("Failed to create Driver layers -- iHpa = 0x%x, , iSpia = 0x%x",iTwdCtrl.tOsContext.hHpa,iTwdCtrl.tOsContext.hSpia)); |
|
4354 return EFalse; |
|
4355 } |
|
4356 |
|
4357 |
|
4358 pFailureDfcClient = new TIFailureDfcClient(*iTwdCtrl.tOsContext.hOsa); |
|
4359 if (pFailureDfcClient == NULL) |
|
4360 { |
|
4361 WLAN_OS_REPORT (("ERROR: CreateDriver TIFailureDfcClient failure\n")); |
|
4362 } |
|
4363 |
|
4364 pConnectDfcClient = new TIConnectDfcClient(*iTwdCtrl.tOsContext.hOsa); |
|
4365 if (pConnectDfcClient == NULL) |
|
4366 { |
|
4367 WLAN_OS_REPORT (("ERROR: CreateDriver TIConnectDfcClient failure\n")); |
|
4368 } |
|
4369 |
|
4370 return ETrue; |
|
4371 } |
|
4372 |
|
4373 |
|
4374 WHA::Wha& TIWha::Extract() |
|
4375 { |
|
4376 return *this; |
|
4377 } |
|
4378 |
|
4379 |
|
4380 void TIWha::GetCapabilities( SCapabilities*& aCapabilities ) |
|
4381 { |
|
4382 aCapability = (SCapabilities*)Kern::Alloc(sizeof(SCapabilities)); |
|
4383 aCapability->iCapabilities = SCapabilities::KCachedMemory; |
|
4384 aCapability->iCacheLineLength = 32; |
|
4385 |
|
4386 aCapabilities = aCapability; |
|
4387 } |