2 * Copyright (c) 1996, 2003 VIA Networking Technologies, Inc.
5 * This program is free software; you can redistribute it and/or modify
6 * it under the terms of the GNU General Public License as published by
7 * the Free Software Foundation; either version 2 of the License, or
8 * (at your option) any later version.
10 * This program is distributed in the hope that it will be useful,
11 * but WITHOUT ANY WARRANTY; without even the implied warranty of
12 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
13 * GNU General Public License for more details.
15 * You should have received a copy of the GNU General Public License along
16 * with this program; if not, write to the Free Software Foundation, Inc.,
17 * 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
22 * Purpose: Implement functions to access baseband
29 * BBuGetFrameTime - Calculate data frame transmitting time
30 * BBvCaculateParameter - Caculate PhyLength, PhyService and Phy Signal parameter for baseband Tx
31 * BBbReadEmbeded - Embeded read baseband register via MAC
32 * BBbWriteEmbeded - Embeded write baseband register via MAC
33 * BBbIsRegBitsOn - Test if baseband register bits on
34 * BBbIsRegBitsOff - Test if baseband register bits off
35 * BBbVT3253Init - VIA VT3253 baseband chip init code
36 * BBvReadAllRegs - Read All Baseband Registers
37 * BBvLoopbackOn - Turn on BaseBand Loopback mode
38 * BBvLoopbackOff - Turn off BaseBand Loopback mode
41 * 06-10-2003 Bryan YC Fan: Re-write codes to support VT3253 spec.
42 * 08-07-2003 Bryan YC Fan: Add MAXIM2827/2825 and RFMD2959 support.
43 * 08-26-2003 Kyle Hsu : Modify BBuGetFrameTime() and BBvCaculateParameter().
44 * cancel the setting of MAC_REG_SOFTPWRCTL on BBbVT3253Init().
46 * 09-01-2003 Bryan YC Fan: RF & BB tables updated.
47 * Modified BBvLoopbackOn & BBvLoopbackOff().
59 /*--------------------- Static Definitions -------------------------*/
60 //static int msglevel =MSG_LEVEL_DEBUG;
61 static int msglevel
=MSG_LEVEL_INFO
;
65 /*--------------------- Static Classes ----------------------------*/
67 /*--------------------- Static Variables --------------------------*/
69 /*--------------------- Static Functions --------------------------*/
71 /*--------------------- Export Variables --------------------------*/
73 /*--------------------- Static Definitions -------------------------*/
75 /*--------------------- Static Classes ----------------------------*/
77 /*--------------------- Static Variables --------------------------*/
81 #define CB_VT3253_INIT_FOR_RFMD 446
82 BYTE byVT3253InitTab_RFMD
[CB_VT3253_INIT_FOR_RFMD
][2] = {
531 #define CB_VT3253B0_INIT_FOR_RFMD 256
532 BYTE byVT3253B0_RFMD
[CB_VT3253B0_INIT_FOR_RFMD
][2] = {
791 #define CB_VT3253B0_AGC_FOR_RFMD2959 195
793 BYTE byVT3253B0_AGC4_RFMD2959
[CB_VT3253B0_AGC_FOR_RFMD2959
][2] = {
991 #define CB_VT3253B0_INIT_FOR_AIROHA2230 256
993 BYTE byVT3253B0_AIROHA2230
[CB_VT3253B0_INIT_FOR_AIROHA2230
][2] = {
1103 {0x6c, 0x00}, //RobertYu:20050125, request by JJSue
1255 #define CB_VT3253B0_INIT_FOR_UW2451 256
1257 BYTE byVT3253B0_UW2451
[CB_VT3253B0_INIT_FOR_UW2451
][2] = {
1367 {0x6c, 0x00}, //RobertYu:20050125, request by JJSue
1517 #define CB_VT3253B0_AGC 193
1519 BYTE byVT3253B0_AGC
[CB_VT3253B0_AGC
][2] = {
1715 const WORD awcFrameTime
[MAX_RATE
] =
1716 {10, 20, 55, 110, 24, 36, 48, 72, 96, 144, 192, 216};
1719 /*--------------------- Static Functions --------------------------*/
1723 s_ulGetRatio(PSDevice pDevice
);
1739 //printk("Enter s_vChangeAntenna:original RxMode is %d,TxMode is %d\n",pDevice->byRxAntennaMode,pDevice->byTxAntennaMode);
1741 if ( pDevice
->dwRxAntennaSel
== 0) {
1742 pDevice
->dwRxAntennaSel
=1;
1743 if (pDevice
->bTxRxAntInv
== TRUE
)
1744 BBvSetRxAntennaMode(pDevice
->PortOffset
, ANT_A
);
1746 BBvSetRxAntennaMode(pDevice
->PortOffset
, ANT_B
);
1748 pDevice
->dwRxAntennaSel
=0;
1749 if (pDevice
->bTxRxAntInv
== TRUE
)
1750 BBvSetRxAntennaMode(pDevice
->PortOffset
, ANT_B
);
1752 BBvSetRxAntennaMode(pDevice
->PortOffset
, ANT_A
);
1754 if ( pDevice
->dwTxAntennaSel
== 0) {
1755 pDevice
->dwTxAntennaSel
=1;
1756 BBvSetTxAntennaMode(pDevice
->PortOffset
, ANT_B
);
1758 pDevice
->dwTxAntennaSel
=0;
1759 BBvSetTxAntennaMode(pDevice
->PortOffset
, ANT_A
);
1764 /*--------------------- Export Variables --------------------------*/
1766 * Description: Calculate data frame transmitting time
1770 * byPreambleType - Preamble Type
1771 * byPktType - PK_TYPE_11A, PK_TYPE_11B, PK_TYPE_11GB, PK_TYPE_11GA
1772 * cbFrameLength - Baseband Type
1776 * Return Value: FrameTime
1781 IN BYTE byPreambleType
,
1783 IN UINT cbFrameLength
,
1790 UINT uRateIdx
= (UINT
)wRate
;
1794 if (uRateIdx
> RATE_54M
) {
1799 uRate
= (UINT
)awcFrameTime
[uRateIdx
];
1801 if (uRateIdx
<= 3) { //CCK mode
1803 if (byPreambleType
== 1) {//Short
1808 uFrameTime
= (cbFrameLength
* 80) / uRate
; //?????
1809 uTmp
= (uFrameTime
* uRate
) / 80;
1810 if (cbFrameLength
!= uTmp
) {
1814 return (uPreamble
+ uFrameTime
);
1817 uFrameTime
= (cbFrameLength
* 8 + 22) / uRate
; //????????
1818 uTmp
= ((uFrameTime
* uRate
) - 22) / 8;
1819 if(cbFrameLength
!= uTmp
) {
1822 uFrameTime
= uFrameTime
* 4; //???????
1823 if(byPktType
!= PK_TYPE_11A
) {
1824 uFrameTime
+= 6; //??????
1826 return (20 + uFrameTime
); //??????
1831 * Description: Caculate Length, Service, and Signal fields of Phy for Tx
1835 * pDevice - Device Structure
1836 * cbFrameLength - Tx Frame Length
1839 * pwPhyLen - pointer to Phy Length field
1840 * pbyPhySrv - pointer to Phy Service field
1841 * pbyPhySgn - pointer to Phy Signal field
1843 * Return Value: none
1847 BBvCaculateParameter (
1848 IN PSDevice pDevice
,
1849 IN UINT cbFrameLength
,
1851 IN BYTE byPacketType
,
1853 OUT PBYTE pbyPhySrv
,
1861 BYTE byPreambleType
= pDevice
->byPreambleType
;
1862 BOOL bCCK
= pDevice
->bCCK
;
1864 cbBitCount
= cbFrameLength
* 8;
1869 cbUsCount
= cbBitCount
;
1874 cbUsCount
= cbBitCount
/ 2;
1875 if (byPreambleType
== 1)
1877 else // long preamble
1884 cbUsCount
= (cbBitCount
* 10) / 55;
1885 cbTmp
= (cbUsCount
* 55) / 10;
1886 if (cbTmp
!= cbBitCount
)
1888 if (byPreambleType
== 1)
1890 else // long preamble
1898 cbUsCount
= cbBitCount
/ 11;
1899 cbTmp
= cbUsCount
* 11;
1900 if (cbTmp
!= cbBitCount
) {
1902 if ((cbBitCount
- cbTmp
) <= 3)
1905 if (byPreambleType
== 1)
1907 else // long preamble
1912 if(byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1913 *pbyPhySgn
= 0x9B; //1001 1011
1916 *pbyPhySgn
= 0x8B; //1000 1011
1921 if(byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1922 *pbyPhySgn
= 0x9F; //1001 1111
1925 *pbyPhySgn
= 0x8F; //1000 1111
1930 if(byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1931 *pbyPhySgn
= 0x9A; //1001 1010
1934 *pbyPhySgn
= 0x8A; //1000 1010
1939 if(byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1940 *pbyPhySgn
= 0x9E; //1001 1110
1943 *pbyPhySgn
= 0x8E; //1000 1110
1948 if(byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1949 *pbyPhySgn
= 0x99; //1001 1001
1952 *pbyPhySgn
= 0x89; //1000 1001
1957 if(byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1958 *pbyPhySgn
= 0x9D; //1001 1101
1961 *pbyPhySgn
= 0x8D; //1000 1101
1966 if(byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1967 *pbyPhySgn
= 0x98; //1001 1000
1970 *pbyPhySgn
= 0x88; //1000 1000
1975 if (byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1976 *pbyPhySgn
= 0x9C; //1001 1100
1979 *pbyPhySgn
= 0x8C; //1000 1100
1984 if (byPacketType
== PK_TYPE_11A
) {//11a, 5GHZ
1985 *pbyPhySgn
= 0x9C; //1001 1100
1988 *pbyPhySgn
= 0x8C; //1000 1100
1993 if (byPacketType
== PK_TYPE_11B
) {
1996 *pbyPhySrv
= *pbyPhySrv
| 0x80;
1997 *pwPhyLen
= (WORD
)cbUsCount
;
2001 *pwPhyLen
= (WORD
)cbFrameLength
;
2006 * Description: Read a byte from BASEBAND, by embeded programming
2010 * dwIoBase - I/O base address
2011 * byBBAddr - address of register in Baseband
2013 * pbyData - data read
2015 * Return Value: TRUE if succeeded; FALSE if failed.
2018 BOOL
BBbReadEmbeded (DWORD_PTR dwIoBase
, BYTE byBBAddr
, PBYTE pbyData
)
2024 VNSvOutPortB(dwIoBase
+ MAC_REG_BBREGADR
, byBBAddr
);
2027 MACvRegBitsOn(dwIoBase
, MAC_REG_BBREGCTL
, BBREGCTL_REGR
);
2028 // W_MAX_TIMEOUT is the timeout period
2029 for (ww
= 0; ww
< W_MAX_TIMEOUT
; ww
++) {
2030 VNSvInPortB(dwIoBase
+ MAC_REG_BBREGCTL
, &byValue
);
2031 if (byValue
& BBREGCTL_DONE
)
2036 VNSvInPortB(dwIoBase
+ MAC_REG_BBREGDATA
, pbyData
);
2038 if (ww
== W_MAX_TIMEOUT
) {
2040 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
" DBG_PORT80(0x30)\n");
2048 * Description: Write a Byte to BASEBAND, by embeded programming
2052 * dwIoBase - I/O base address
2053 * byBBAddr - address of register in Baseband
2054 * byData - data to write
2058 * Return Value: TRUE if succeeded; FALSE if failed.
2061 BOOL
BBbWriteEmbeded (DWORD_PTR dwIoBase
, BYTE byBBAddr
, BYTE byData
)
2067 VNSvOutPortB(dwIoBase
+ MAC_REG_BBREGADR
, byBBAddr
);
2069 VNSvOutPortB(dwIoBase
+ MAC_REG_BBREGDATA
, byData
);
2071 // turn on BBREGCTL_REGW
2072 MACvRegBitsOn(dwIoBase
, MAC_REG_BBREGCTL
, BBREGCTL_REGW
);
2073 // W_MAX_TIMEOUT is the timeout period
2074 for (ww
= 0; ww
< W_MAX_TIMEOUT
; ww
++) {
2075 VNSvInPortB(dwIoBase
+ MAC_REG_BBREGCTL
, &byValue
);
2076 if (byValue
& BBREGCTL_DONE
)
2080 if (ww
== W_MAX_TIMEOUT
) {
2082 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
" DBG_PORT80(0x31)\n");
2090 * Description: Test if all bits are set for the Baseband register
2094 * dwIoBase - I/O base address
2095 * byBBAddr - address of register in Baseband
2096 * byTestBits - TestBits
2100 * Return Value: TRUE if all TestBits are set; FALSE otherwise.
2103 BOOL
BBbIsRegBitsOn (DWORD_PTR dwIoBase
, BYTE byBBAddr
, BYTE byTestBits
)
2107 BBbReadEmbeded(dwIoBase
, byBBAddr
, &byOrgData
);
2108 return (byOrgData
& byTestBits
) == byTestBits
;
2113 * Description: Test if all bits are clear for the Baseband register
2117 * dwIoBase - I/O base address
2118 * byBBAddr - address of register in Baseband
2119 * byTestBits - TestBits
2123 * Return Value: TRUE if all TestBits are clear; FALSE otherwise.
2126 BOOL
BBbIsRegBitsOff (DWORD_PTR dwIoBase
, BYTE byBBAddr
, BYTE byTestBits
)
2130 BBbReadEmbeded(dwIoBase
, byBBAddr
, &byOrgData
);
2131 return (byOrgData
& byTestBits
) == 0;
2135 * Description: VIA VT3253 Baseband chip init function
2139 * dwIoBase - I/O base address
2140 * byRevId - Revision ID
2141 * byRFType - RF type
2145 * Return Value: TRUE if succeeded; FALSE if failed.
2149 BOOL
BBbVT3253Init (PSDevice pDevice
)
2151 BOOL bResult
= TRUE
;
2153 DWORD_PTR dwIoBase
= pDevice
->PortOffset
;
2154 BYTE byRFType
= pDevice
->byRFType
;
2155 BYTE byLocalID
= pDevice
->byLocalID
;
2157 if (byRFType
== RF_RFMD2959
) {
2158 if (byLocalID
<= REV_ID_VT3253_A1
) {
2159 for (ii
= 0; ii
< CB_VT3253_INIT_FOR_RFMD
; ii
++) {
2160 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253InitTab_RFMD
[ii
][0],byVT3253InitTab_RFMD
[ii
][1]);
2163 for (ii
= 0; ii
< CB_VT3253B0_INIT_FOR_RFMD
; ii
++) {
2164 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_RFMD
[ii
][0],byVT3253B0_RFMD
[ii
][1]);
2166 for (ii
= 0; ii
< CB_VT3253B0_AGC_FOR_RFMD2959
; ii
++) {
2167 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AGC4_RFMD2959
[ii
][0],byVT3253B0_AGC4_RFMD2959
[ii
][1]);
2169 VNSvOutPortD(dwIoBase
+ MAC_REG_ITRTMSET
, 0x23);
2170 MACvRegBitsOn(dwIoBase
, MAC_REG_PAPEDELAY
, BIT0
);
2172 pDevice
->abyBBVGA
[0] = 0x18;
2173 pDevice
->abyBBVGA
[1] = 0x0A;
2174 pDevice
->abyBBVGA
[2] = 0x0;
2175 pDevice
->abyBBVGA
[3] = 0x0;
2176 pDevice
->ldBmThreshold
[0] = -70;
2177 pDevice
->ldBmThreshold
[1] = -50;
2178 pDevice
->ldBmThreshold
[2] = 0;
2179 pDevice
->ldBmThreshold
[3] = 0;
2180 } else if ((byRFType
== RF_AIROHA
) || (byRFType
== RF_AL2230S
) ) {
2181 for (ii
= 0; ii
< CB_VT3253B0_INIT_FOR_AIROHA2230
; ii
++) {
2182 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AIROHA2230
[ii
][0],byVT3253B0_AIROHA2230
[ii
][1]);
2184 for (ii
= 0; ii
< CB_VT3253B0_AGC
; ii
++) {
2185 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AGC
[ii
][0],byVT3253B0_AGC
[ii
][1]);
2187 pDevice
->abyBBVGA
[0] = 0x1C;
2188 pDevice
->abyBBVGA
[1] = 0x10;
2189 pDevice
->abyBBVGA
[2] = 0x0;
2190 pDevice
->abyBBVGA
[3] = 0x0;
2191 pDevice
->ldBmThreshold
[0] = -70;
2192 pDevice
->ldBmThreshold
[1] = -48;
2193 pDevice
->ldBmThreshold
[2] = 0;
2194 pDevice
->ldBmThreshold
[3] = 0;
2195 } else if (byRFType
== RF_UW2451
) {
2196 for (ii
= 0; ii
< CB_VT3253B0_INIT_FOR_UW2451
; ii
++) {
2197 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_UW2451
[ii
][0],byVT3253B0_UW2451
[ii
][1]);
2199 for (ii
= 0; ii
< CB_VT3253B0_AGC
; ii
++) {
2200 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AGC
[ii
][0],byVT3253B0_AGC
[ii
][1]);
2202 VNSvOutPortB(dwIoBase
+ MAC_REG_ITRTMSET
, 0x23);
2203 MACvRegBitsOn(dwIoBase
, MAC_REG_PAPEDELAY
, BIT0
);
2205 pDevice
->abyBBVGA
[0] = 0x14;
2206 pDevice
->abyBBVGA
[1] = 0x0A;
2207 pDevice
->abyBBVGA
[2] = 0x0;
2208 pDevice
->abyBBVGA
[3] = 0x0;
2209 pDevice
->ldBmThreshold
[0] = -60;
2210 pDevice
->ldBmThreshold
[1] = -50;
2211 pDevice
->ldBmThreshold
[2] = 0;
2212 pDevice
->ldBmThreshold
[3] = 0;
2213 } else if (byRFType
== RF_UW2452
) {
2214 for (ii
= 0; ii
< CB_VT3253B0_INIT_FOR_UW2451
; ii
++) {
2215 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_UW2451
[ii
][0],byVT3253B0_UW2451
[ii
][1]);
2217 // Init ANT B select,TX Config CR09 = 0x61->0x45, 0x45->0x41(VC1/VC2 define, make the ANT_A, ANT_B inverted)
2218 //bResult &= BBbWriteEmbeded(dwIoBase,0x09,0x41);
2219 // Init ANT B select,RX Config CR10 = 0x28->0x2A, 0x2A->0x28(VC1/VC2 define, make the ANT_A, ANT_B inverted)
2220 //bResult &= BBbWriteEmbeded(dwIoBase,0x0a,0x28);
2221 // Select VC1/VC2, CR215 = 0x02->0x06
2222 bResult
&= BBbWriteEmbeded(dwIoBase
,0xd7,0x06);
2224 //{{RobertYu:20050125, request by Jack
2225 bResult
&= BBbWriteEmbeded(dwIoBase
,0x90,0x20);
2226 bResult
&= BBbWriteEmbeded(dwIoBase
,0x97,0xeb);
2229 //{{RobertYu:20050221, request by Jack
2230 bResult
&= BBbWriteEmbeded(dwIoBase
,0xa6,0x00);
2231 bResult
&= BBbWriteEmbeded(dwIoBase
,0xa8,0x30);
2233 bResult
&= BBbWriteEmbeded(dwIoBase
,0xb0,0x58);
2235 for (ii
= 0; ii
< CB_VT3253B0_AGC
; ii
++) {
2236 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AGC
[ii
][0],byVT3253B0_AGC
[ii
][1]);
2238 //VNSvOutPortB(dwIoBase + MAC_REG_ITRTMSET, 0x23); // RobertYu: 20050104, 20050131 disable PA_Delay
2239 //MACvRegBitsOn(dwIoBase, MAC_REG_PAPEDELAY, BIT0); // RobertYu: 20050104, 20050131 disable PA_Delay
2241 pDevice
->abyBBVGA
[0] = 0x14;
2242 pDevice
->abyBBVGA
[1] = 0x0A;
2243 pDevice
->abyBBVGA
[2] = 0x0;
2244 pDevice
->abyBBVGA
[3] = 0x0;
2245 pDevice
->ldBmThreshold
[0] = -60;
2246 pDevice
->ldBmThreshold
[1] = -50;
2247 pDevice
->ldBmThreshold
[2] = 0;
2248 pDevice
->ldBmThreshold
[3] = 0;
2251 } else if (byRFType
== RF_VT3226
) {
2252 for (ii
= 0; ii
< CB_VT3253B0_INIT_FOR_AIROHA2230
; ii
++) {
2253 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AIROHA2230
[ii
][0],byVT3253B0_AIROHA2230
[ii
][1]);
2255 for (ii
= 0; ii
< CB_VT3253B0_AGC
; ii
++) {
2256 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AGC
[ii
][0],byVT3253B0_AGC
[ii
][1]);
2258 pDevice
->abyBBVGA
[0] = 0x1C;
2259 pDevice
->abyBBVGA
[1] = 0x10;
2260 pDevice
->abyBBVGA
[2] = 0x0;
2261 pDevice
->abyBBVGA
[3] = 0x0;
2262 pDevice
->ldBmThreshold
[0] = -70;
2263 pDevice
->ldBmThreshold
[1] = -48;
2264 pDevice
->ldBmThreshold
[2] = 0;
2265 pDevice
->ldBmThreshold
[3] = 0;
2266 // Fix VT3226 DFC system timing issue
2267 MACvSetRFLE_LatchBase(dwIoBase
);
2268 //{{ RobertYu: 20050104
2269 } else if (byRFType
== RF_AIROHA7230
) {
2270 for (ii
= 0; ii
< CB_VT3253B0_INIT_FOR_AIROHA2230
; ii
++) {
2271 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AIROHA2230
[ii
][0],byVT3253B0_AIROHA2230
[ii
][1]);
2274 //{{ RobertYu:20050223, request by JerryChung
2275 // Init ANT B select,TX Config CR09 = 0x61->0x45, 0x45->0x41(VC1/VC2 define, make the ANT_A, ANT_B inverted)
2276 //bResult &= BBbWriteEmbeded(dwIoBase,0x09,0x41);
2277 // Init ANT B select,RX Config CR10 = 0x28->0x2A, 0x2A->0x28(VC1/VC2 define, make the ANT_A, ANT_B inverted)
2278 //bResult &= BBbWriteEmbeded(dwIoBase,0x0a,0x28);
2279 // Select VC1/VC2, CR215 = 0x02->0x06
2280 bResult
&= BBbWriteEmbeded(dwIoBase
,0xd7,0x06);
2283 for (ii
= 0; ii
< CB_VT3253B0_AGC
; ii
++) {
2284 bResult
&= BBbWriteEmbeded(dwIoBase
,byVT3253B0_AGC
[ii
][0],byVT3253B0_AGC
[ii
][1]);
2286 pDevice
->abyBBVGA
[0] = 0x1C;
2287 pDevice
->abyBBVGA
[1] = 0x10;
2288 pDevice
->abyBBVGA
[2] = 0x0;
2289 pDevice
->abyBBVGA
[3] = 0x0;
2290 pDevice
->ldBmThreshold
[0] = -70;
2291 pDevice
->ldBmThreshold
[1] = -48;
2292 pDevice
->ldBmThreshold
[2] = 0;
2293 pDevice
->ldBmThreshold
[3] = 0;
2297 pDevice
->bUpdateBBVGA
= FALSE
;
2298 pDevice
->abyBBVGA
[0] = 0x1C;
2301 if (byLocalID
> REV_ID_VT3253_A1
) {
2302 BBbWriteEmbeded(dwIoBase
, 0x04, 0x7F);
2303 BBbWriteEmbeded(dwIoBase
, 0x0D, 0x01);
2312 * Description: Read All Baseband Registers
2316 * dwIoBase - I/O base address
2317 * pbyBBRegs - Point to struct that stores Baseband Registers
2321 * Return Value: none
2324 VOID
BBvReadAllRegs (DWORD_PTR dwIoBase
, PBYTE pbyBBRegs
)
2328 for (ii
= 0; ii
< BB_MAX_CONTEXT_SIZE
; ii
++) {
2329 BBbReadEmbeded(dwIoBase
, (BYTE
)(ii
*byBase
), pbyBBRegs
);
2330 pbyBBRegs
+= byBase
;
2335 * Description: Turn on BaseBand Loopback mode
2339 * dwIoBase - I/O base address
2340 * bCCK - If CCK is set
2344 * Return Value: none
2349 void BBvLoopbackOn (PSDevice pDevice
)
2352 DWORD_PTR dwIoBase
= pDevice
->PortOffset
;
2355 BBbReadEmbeded(dwIoBase
, 0xC9, &pDevice
->byBBCRc9
);//CR201
2356 BBbWriteEmbeded(dwIoBase
, 0xC9, 0);
2357 BBbReadEmbeded(dwIoBase
, 0x4D, &pDevice
->byBBCR4d
);//CR77
2358 BBbWriteEmbeded(dwIoBase
, 0x4D, 0x90);
2360 //CR 88 = 0x02(CCK), 0x03(OFDM)
2361 BBbReadEmbeded(dwIoBase
, 0x88, &pDevice
->byBBCR88
);//CR136
2363 if (pDevice
->uConnectionRate
<= RATE_11M
) { //CCK
2364 // Enable internal digital loopback: CR33 |= 0000 0001
2365 BBbReadEmbeded(dwIoBase
, 0x21, &byData
);//CR33
2366 BBbWriteEmbeded(dwIoBase
, 0x21, (BYTE
)(byData
| 0x01));//CR33
2368 BBbWriteEmbeded(dwIoBase
, 0x9A, 0); //CR154
2370 BBbWriteEmbeded(dwIoBase
, 0x88, 0x02);//CR239
2373 // Enable internal digital loopback:CR154 |= 0000 0001
2374 BBbReadEmbeded(dwIoBase
, 0x9A, &byData
);//CR154
2375 BBbWriteEmbeded(dwIoBase
, 0x9A, (BYTE
)(byData
| 0x01));//CR154
2377 BBbWriteEmbeded(dwIoBase
, 0x21, 0); //CR33
2379 BBbWriteEmbeded(dwIoBase
, 0x88, 0x03);//CR239
2383 BBbWriteEmbeded(dwIoBase
, 0x0E, 0);//CR14
2386 BBbReadEmbeded(pDevice
->PortOffset
, 0x09, &pDevice
->byBBCR09
);
2387 BBbWriteEmbeded(pDevice
->PortOffset
, 0x09, (BYTE
)(pDevice
->byBBCR09
& 0xDE));
2391 * Description: Turn off BaseBand Loopback mode
2395 * pDevice - Device Structure
2400 * Return Value: none
2403 void BBvLoopbackOff (PSDevice pDevice
)
2406 DWORD_PTR dwIoBase
= pDevice
->PortOffset
;
2408 BBbWriteEmbeded(dwIoBase
, 0xC9, pDevice
->byBBCRc9
);//CR201
2409 BBbWriteEmbeded(dwIoBase
, 0x88, pDevice
->byBBCR88
);//CR136
2410 BBbWriteEmbeded(dwIoBase
, 0x09, pDevice
->byBBCR09
);//CR136
2411 BBbWriteEmbeded(dwIoBase
, 0x4D, pDevice
->byBBCR4d
);//CR77
2413 if (pDevice
->uConnectionRate
<= RATE_11M
) { // CCK
2414 // Set the CR33 Bit2 to disable internal Loopback.
2415 BBbReadEmbeded(dwIoBase
, 0x21, &byData
);//CR33
2416 BBbWriteEmbeded(dwIoBase
, 0x21, (BYTE
)(byData
& 0xFE));//CR33
2419 BBbReadEmbeded(dwIoBase
, 0x9A, &byData
);//CR154
2420 BBbWriteEmbeded(dwIoBase
, 0x9A, (BYTE
)(byData
& 0xFE));//CR154
2422 BBbReadEmbeded(dwIoBase
, 0x0E, &byData
);//CR14
2423 BBbWriteEmbeded(dwIoBase
, 0x0E, (BYTE
)(byData
| 0x80));//CR14
2430 * Description: Set ShortSlotTime mode
2434 * pDevice - Device Structure
2438 * Return Value: none
2442 BBvSetShortSlotTime (PSDevice pDevice
)
2447 BBbReadEmbeded(pDevice
->PortOffset
, 0x0A, &byBBRxConf
);//CR10
2449 if (pDevice
->bShortSlotTime
) {
2450 byBBRxConf
&= 0xDF;//1101 1111
2452 byBBRxConf
|= 0x20;//0010 0000
2455 // patch for 3253B0 Baseband with Cardbus module
2456 BBbReadEmbeded(pDevice
->PortOffset
, 0xE7, &byBBVGA
);
2457 if (byBBVGA
== pDevice
->abyBBVGA
[0]) {
2458 byBBRxConf
|= 0x20;//0010 0000
2461 BBbWriteEmbeded(pDevice
->PortOffset
, 0x0A, byBBRxConf
);//CR10
2465 VOID
BBvSetVGAGainOffset(PSDevice pDevice
, BYTE byData
)
2469 BBbWriteEmbeded(pDevice
->PortOffset
, 0xE7, byData
);
2471 BBbReadEmbeded(pDevice
->PortOffset
, 0x0A, &byBBRxConf
);//CR10
2472 // patch for 3253B0 Baseband with Cardbus module
2473 if (byData
== pDevice
->abyBBVGA
[0]) {
2474 byBBRxConf
|= 0x20;//0010 0000
2475 } else if (pDevice
->bShortSlotTime
) {
2476 byBBRxConf
&= 0xDF;//1101 1111
2478 byBBRxConf
|= 0x20;//0010 0000
2480 pDevice
->byBBVGACurrent
= byData
;
2481 BBbWriteEmbeded(pDevice
->PortOffset
, 0x0A, byBBRxConf
);//CR10
2486 * Description: Baseband SoftwareReset
2490 * dwIoBase - I/O base address
2494 * Return Value: none
2498 BBvSoftwareReset (DWORD_PTR dwIoBase
)
2500 BBbWriteEmbeded(dwIoBase
, 0x50, 0x40);
2501 BBbWriteEmbeded(dwIoBase
, 0x50, 0);
2502 BBbWriteEmbeded(dwIoBase
, 0x9C, 0x01);
2503 BBbWriteEmbeded(dwIoBase
, 0x9C, 0);
2507 * Description: Baseband Power Save Mode ON
2511 * dwIoBase - I/O base address
2515 * Return Value: none
2519 BBvPowerSaveModeON (DWORD_PTR dwIoBase
)
2523 BBbReadEmbeded(dwIoBase
, 0x0D, &byOrgData
);
2525 BBbWriteEmbeded(dwIoBase
, 0x0D, byOrgData
);
2529 * Description: Baseband Power Save Mode OFF
2533 * dwIoBase - I/O base address
2537 * Return Value: none
2541 BBvPowerSaveModeOFF (DWORD_PTR dwIoBase
)
2545 BBbReadEmbeded(dwIoBase
, 0x0D, &byOrgData
);
2546 byOrgData
&= ~(BIT0
);
2547 BBbWriteEmbeded(dwIoBase
, 0x0D, byOrgData
);
2551 * Description: Set Tx Antenna mode
2555 * pDevice - Device Structure
2556 * byAntennaMode - Antenna Mode
2560 * Return Value: none
2565 BBvSetTxAntennaMode (DWORD_PTR dwIoBase
, BYTE byAntennaMode
)
2570 //printk("Enter BBvSetTxAntennaMode\n");
2572 BBbReadEmbeded(dwIoBase
, 0x09, &byBBTxConf
);//CR09
2573 if (byAntennaMode
== ANT_DIVERSITY
) {
2574 // bit 1 is diversity
2576 } else if (byAntennaMode
== ANT_A
) {
2578 byBBTxConf
&= 0xF9; // 1111 1001
2579 } else if (byAntennaMode
== ANT_B
) {
2581 //printk("BBvSetTxAntennaMode:ANT_B\n");
2583 byBBTxConf
&= 0xFD; // 1111 1101
2586 BBbWriteEmbeded(dwIoBase
, 0x09, byBBTxConf
);//CR09
2593 * Description: Set Rx Antenna mode
2597 * pDevice - Device Structure
2598 * byAntennaMode - Antenna Mode
2602 * Return Value: none
2607 BBvSetRxAntennaMode (DWORD_PTR dwIoBase
, BYTE byAntennaMode
)
2611 BBbReadEmbeded(dwIoBase
, 0x0A, &byBBRxConf
);//CR10
2612 if (byAntennaMode
== ANT_DIVERSITY
) {
2615 } else if (byAntennaMode
== ANT_A
) {
2616 byBBRxConf
&= 0xFC; // 1111 1100
2617 } else if (byAntennaMode
== ANT_B
) {
2618 byBBRxConf
&= 0xFE; // 1111 1110
2621 BBbWriteEmbeded(dwIoBase
, 0x0A, byBBRxConf
);//CR10
2626 * Description: BBvSetDeepSleep
2630 * pDevice - Device Structure
2634 * Return Value: none
2638 BBvSetDeepSleep (DWORD_PTR dwIoBase
, BYTE byLocalID
)
2640 BBbWriteEmbeded(dwIoBase
, 0x0C, 0x17);//CR12
2641 BBbWriteEmbeded(dwIoBase
, 0x0D, 0xB9);//CR13
2645 BBvExitDeepSleep (DWORD_PTR dwIoBase
, BYTE byLocalID
)
2647 BBbWriteEmbeded(dwIoBase
, 0x0C, 0x00);//CR12
2648 BBbWriteEmbeded(dwIoBase
, 0x0D, 0x01);//CR13
2655 s_ulGetRatio (PSDevice pDevice
)
2661 //This is a thousand-ratio
2662 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_54M
];
2663 if ( pDevice
->uNumSQ3
[RATE_54M
] != 0 ) {
2664 ulPacketNum
= pDevice
->uNumSQ3
[RATE_54M
];
2665 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2666 //ulRatio = (pDevice->uNumSQ3[RATE_54M] * 1000 / pDevice->uDiversityCnt);
2667 ulRatio
+= TOP_RATE_54M
;
2669 if ( pDevice
->uNumSQ3
[RATE_48M
] > ulMaxPacket
) {
2670 ulPacketNum
= pDevice
->uNumSQ3
[RATE_54M
] + pDevice
->uNumSQ3
[RATE_48M
];
2671 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2672 //ulRatio = (pDevice->uNumSQ3[RATE_48M] * 1000 / pDevice->uDiversityCnt);
2673 ulRatio
+= TOP_RATE_48M
;
2674 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_48M
];
2676 if ( pDevice
->uNumSQ3
[RATE_36M
] > ulMaxPacket
) {
2677 ulPacketNum
= pDevice
->uNumSQ3
[RATE_54M
] + pDevice
->uNumSQ3
[RATE_48M
] +
2678 pDevice
->uNumSQ3
[RATE_36M
];
2679 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2680 //ulRatio = (pDevice->uNumSQ3[RATE_36M] * 1000 / pDevice->uDiversityCnt);
2681 ulRatio
+= TOP_RATE_36M
;
2682 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_36M
];
2684 if ( pDevice
->uNumSQ3
[RATE_24M
] > ulMaxPacket
) {
2685 ulPacketNum
= pDevice
->uNumSQ3
[RATE_54M
] + pDevice
->uNumSQ3
[RATE_48M
] +
2686 pDevice
->uNumSQ3
[RATE_36M
] + pDevice
->uNumSQ3
[RATE_24M
];
2687 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2688 //ulRatio = (pDevice->uNumSQ3[RATE_24M] * 1000 / pDevice->uDiversityCnt);
2689 ulRatio
+= TOP_RATE_24M
;
2690 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_24M
];
2692 if ( pDevice
->uNumSQ3
[RATE_18M
] > ulMaxPacket
) {
2693 ulPacketNum
= pDevice
->uNumSQ3
[RATE_54M
] + pDevice
->uNumSQ3
[RATE_48M
] +
2694 pDevice
->uNumSQ3
[RATE_36M
] + pDevice
->uNumSQ3
[RATE_24M
] +
2695 pDevice
->uNumSQ3
[RATE_18M
];
2696 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2697 //ulRatio = (pDevice->uNumSQ3[RATE_18M] * 1000 / pDevice->uDiversityCnt);
2698 ulRatio
+= TOP_RATE_18M
;
2699 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_18M
];
2701 if ( pDevice
->uNumSQ3
[RATE_12M
] > ulMaxPacket
) {
2702 ulPacketNum
= pDevice
->uNumSQ3
[RATE_54M
] + pDevice
->uNumSQ3
[RATE_48M
] +
2703 pDevice
->uNumSQ3
[RATE_36M
] + pDevice
->uNumSQ3
[RATE_24M
] +
2704 pDevice
->uNumSQ3
[RATE_18M
] + pDevice
->uNumSQ3
[RATE_12M
];
2705 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2706 //ulRatio = (pDevice->uNumSQ3[RATE_12M] * 1000 / pDevice->uDiversityCnt);
2707 ulRatio
+= TOP_RATE_12M
;
2708 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_12M
];
2710 if ( pDevice
->uNumSQ3
[RATE_11M
] > ulMaxPacket
) {
2711 ulPacketNum
= pDevice
->uDiversityCnt
- pDevice
->uNumSQ3
[RATE_1M
] -
2712 pDevice
->uNumSQ3
[RATE_2M
] - pDevice
->uNumSQ3
[RATE_5M
] -
2713 pDevice
->uNumSQ3
[RATE_6M
] - pDevice
->uNumSQ3
[RATE_9M
];
2714 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2715 //ulRatio = (pDevice->uNumSQ3[RATE_11M] * 1000 / pDevice->uDiversityCnt);
2716 ulRatio
+= TOP_RATE_11M
;
2717 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_11M
];
2719 if ( pDevice
->uNumSQ3
[RATE_9M
] > ulMaxPacket
) {
2720 ulPacketNum
= pDevice
->uDiversityCnt
- pDevice
->uNumSQ3
[RATE_1M
] -
2721 pDevice
->uNumSQ3
[RATE_2M
] - pDevice
->uNumSQ3
[RATE_5M
] -
2722 pDevice
->uNumSQ3
[RATE_6M
];
2723 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2724 //ulRatio = (pDevice->uNumSQ3[RATE_9M] * 1000 / pDevice->uDiversityCnt);
2725 ulRatio
+= TOP_RATE_9M
;
2726 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_9M
];
2728 if ( pDevice
->uNumSQ3
[RATE_6M
] > ulMaxPacket
) {
2729 ulPacketNum
= pDevice
->uDiversityCnt
- pDevice
->uNumSQ3
[RATE_1M
] -
2730 pDevice
->uNumSQ3
[RATE_2M
] - pDevice
->uNumSQ3
[RATE_5M
];
2731 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2732 //ulRatio = (pDevice->uNumSQ3[RATE_6M] * 1000 / pDevice->uDiversityCnt);
2733 ulRatio
+= TOP_RATE_6M
;
2734 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_6M
];
2736 if ( pDevice
->uNumSQ3
[RATE_5M
] > ulMaxPacket
) {
2737 ulPacketNum
= pDevice
->uDiversityCnt
- pDevice
->uNumSQ3
[RATE_1M
] -
2738 pDevice
->uNumSQ3
[RATE_2M
];
2739 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2740 //ulRatio = (pDevice->uNumSQ3[RATE_5M] * 1000 / pDevice->uDiversityCnt);
2741 ulRatio
+= TOP_RATE_55M
;
2742 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_5M
];
2744 if ( pDevice
->uNumSQ3
[RATE_2M
] > ulMaxPacket
) {
2745 ulPacketNum
= pDevice
->uDiversityCnt
- pDevice
->uNumSQ3
[RATE_1M
];
2746 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2747 //ulRatio = (pDevice->uNumSQ3[RATE_2M] * 1000 / pDevice->uDiversityCnt);
2748 ulRatio
+= TOP_RATE_2M
;
2749 ulMaxPacket
= pDevice
->uNumSQ3
[RATE_2M
];
2751 if ( pDevice
->uNumSQ3
[RATE_1M
] > ulMaxPacket
) {
2752 ulPacketNum
= pDevice
->uDiversityCnt
;
2753 ulRatio
= (ulPacketNum
* 1000 / pDevice
->uDiversityCnt
);
2754 //ulRatio = (pDevice->uNumSQ3[RATE_1M] * 1000 / pDevice->uDiversityCnt);
2755 ulRatio
+= TOP_RATE_1M
;
2763 BBvClearAntDivSQ3Value (PSDevice pDevice
)
2767 pDevice
->uDiversityCnt
= 0;
2768 for (ii
= 0; ii
< MAX_RATE
; ii
++) {
2769 pDevice
->uNumSQ3
[ii
] = 0;
2775 * Description: Antenna Diversity
2779 * pDevice - Device Structure
2780 * byRSR - RSR from received packet
2781 * bySQ3 - SQ3 value from received packet
2785 * Return Value: none
2790 BBvAntennaDiversity (PSDevice pDevice
, BYTE byRxRate
, BYTE bySQ3
)
2793 if ((byRxRate
>= MAX_RATE
) || (pDevice
->wAntDiversityMaxRate
>= MAX_RATE
)) {
2796 pDevice
->uDiversityCnt
++;
2797 // DBG_PRT(MSG_LEVEL_DEBUG, KERN_INFO "pDevice->uDiversityCnt = %d\n", (int)pDevice->uDiversityCnt);
2799 pDevice
->uNumSQ3
[byRxRate
]++;
2801 if (pDevice
->byAntennaState
== 0) {
2803 if (pDevice
->uDiversityCnt
> pDevice
->ulDiversityNValue
) {
2804 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"ulDiversityNValue=[%d],54M-[%d]\n",
2805 (int)pDevice
->ulDiversityNValue
, (int)pDevice
->uNumSQ3
[(int)pDevice
->wAntDiversityMaxRate
]);
2807 if (pDevice
->uNumSQ3
[pDevice
->wAntDiversityMaxRate
] < pDevice
->uDiversityCnt
/2) {
2809 pDevice
->ulRatio_State0
= s_ulGetRatio(pDevice
);
2810 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"SQ3_State0, rate = [%08x]\n", (int)pDevice
->ulRatio_State0
);
2812 if ( pDevice
->byTMax
== 0 )
2814 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"1.[%08x], uNumSQ3[%d]=%d, %d\n",
2815 (int)pDevice
->ulRatio_State0
, (int)pDevice
->wAntDiversityMaxRate
,
2816 (int)pDevice
->uNumSQ3
[(int)pDevice
->wAntDiversityMaxRate
], (int)pDevice
->uDiversityCnt
);
2818 //printk("BBvAntennaDiversity1:call s_vChangeAntenna\n");
2820 s_vChangeAntenna(pDevice
);
2821 pDevice
->byAntennaState
= 1;
2822 del_timer(&pDevice
->TimerSQ3Tmax3
);
2823 del_timer(&pDevice
->TimerSQ3Tmax2
);
2824 pDevice
->TimerSQ3Tmax1
.expires
= RUN_AT(pDevice
->byTMax
* HZ
);
2825 add_timer(&pDevice
->TimerSQ3Tmax1
);
2829 pDevice
->TimerSQ3Tmax3
.expires
= RUN_AT(pDevice
->byTMax3
* HZ
);
2830 add_timer(&pDevice
->TimerSQ3Tmax3
);
2832 BBvClearAntDivSQ3Value(pDevice
);
2835 } else { //byAntennaState == 1
2837 if (pDevice
->uDiversityCnt
> pDevice
->ulDiversityMValue
) {
2839 del_timer(&pDevice
->TimerSQ3Tmax1
);
2841 pDevice
->ulRatio_State1
= s_ulGetRatio(pDevice
);
2842 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"RX:SQ3_State1, rate0 = %08x,rate1 = %08x\n",
2843 (int)pDevice
->ulRatio_State0
,(int)pDevice
->ulRatio_State1
);
2845 if (pDevice
->ulRatio_State1
< pDevice
->ulRatio_State0
) {
2846 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"2.[%08x][%08x], uNumSQ3[%d]=%d, %d\n",
2847 (int)pDevice
->ulRatio_State0
, (int)pDevice
->ulRatio_State1
,
2848 (int)pDevice
->wAntDiversityMaxRate
,
2849 (int)pDevice
->uNumSQ3
[(int)pDevice
->wAntDiversityMaxRate
], (int)pDevice
->uDiversityCnt
);
2851 //printk("BBvAntennaDiversity2:call s_vChangeAntenna\n");
2853 s_vChangeAntenna(pDevice
);
2854 pDevice
->TimerSQ3Tmax3
.expires
= RUN_AT(pDevice
->byTMax3
* HZ
);
2855 pDevice
->TimerSQ3Tmax2
.expires
= RUN_AT(pDevice
->byTMax2
* HZ
);
2856 add_timer(&pDevice
->TimerSQ3Tmax3
);
2857 add_timer(&pDevice
->TimerSQ3Tmax2
);
2859 pDevice
->byAntennaState
= 0;
2860 BBvClearAntDivSQ3Value(pDevice
);
2868 * Timer for SQ3 antenna diversity
2875 * Return Value: none
2881 IN HANDLE hDeviceContext
2884 PSDevice pDevice
= (PSDevice
)hDeviceContext
;
2886 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"TimerSQ3CallBack...");
2887 spin_lock_irq(&pDevice
->lock
);
2889 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"3.[%08x][%08x], %d\n",(int)pDevice
->ulRatio_State0
, (int)pDevice
->ulRatio_State1
, (int)pDevice
->uDiversityCnt
);
2891 //printk("TimerSQ3CallBack1:call s_vChangeAntenna\n");
2894 s_vChangeAntenna(pDevice
);
2895 pDevice
->byAntennaState
= 0;
2896 BBvClearAntDivSQ3Value(pDevice
);
2898 pDevice
->TimerSQ3Tmax3
.expires
= RUN_AT(pDevice
->byTMax3
* HZ
);
2899 pDevice
->TimerSQ3Tmax2
.expires
= RUN_AT(pDevice
->byTMax2
* HZ
);
2900 add_timer(&pDevice
->TimerSQ3Tmax3
);
2901 add_timer(&pDevice
->TimerSQ3Tmax2
);
2904 spin_unlock_irq(&pDevice
->lock
);
2912 * Timer for SQ3 antenna diversity
2917 * hDeviceContext - Pointer to the adapter
2923 * Return Value: none
2928 TimerState1CallBack (
2929 IN HANDLE hDeviceContext
2932 PSDevice pDevice
= (PSDevice
)hDeviceContext
;
2934 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"TimerState1CallBack...");
2936 spin_lock_irq(&pDevice
->lock
);
2937 if (pDevice
->uDiversityCnt
< pDevice
->ulDiversityMValue
/100) {
2939 //printk("TimerSQ3CallBack2:call s_vChangeAntenna\n");
2942 s_vChangeAntenna(pDevice
);
2943 pDevice
->TimerSQ3Tmax3
.expires
= RUN_AT(pDevice
->byTMax3
* HZ
);
2944 pDevice
->TimerSQ3Tmax2
.expires
= RUN_AT(pDevice
->byTMax2
* HZ
);
2945 add_timer(&pDevice
->TimerSQ3Tmax3
);
2946 add_timer(&pDevice
->TimerSQ3Tmax2
);
2948 pDevice
->ulRatio_State1
= s_ulGetRatio(pDevice
);
2949 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"SQ3_State1, rate0 = %08x,rate1 = %08x\n",
2950 (int)pDevice
->ulRatio_State0
,(int)pDevice
->ulRatio_State1
);
2952 if ( pDevice
->ulRatio_State1
< pDevice
->ulRatio_State0
) {
2953 DBG_PRT(MSG_LEVEL_DEBUG
, KERN_INFO
"2.[%08x][%08x], uNumSQ3[%d]=%d, %d\n",
2954 (int)pDevice
->ulRatio_State0
, (int)pDevice
->ulRatio_State1
,
2955 (int)pDevice
->wAntDiversityMaxRate
,
2956 (int)pDevice
->uNumSQ3
[(int)pDevice
->wAntDiversityMaxRate
], (int)pDevice
->uDiversityCnt
);
2958 //printk("TimerSQ3CallBack3:call s_vChangeAntenna\n");
2961 s_vChangeAntenna(pDevice
);
2963 pDevice
->TimerSQ3Tmax3
.expires
= RUN_AT(pDevice
->byTMax3
* HZ
);
2964 pDevice
->TimerSQ3Tmax2
.expires
= RUN_AT(pDevice
->byTMax2
* HZ
);
2965 add_timer(&pDevice
->TimerSQ3Tmax3
);
2966 add_timer(&pDevice
->TimerSQ3Tmax2
);
2969 pDevice
->byAntennaState
= 0;
2970 BBvClearAntDivSQ3Value(pDevice
);
2971 spin_unlock_irq(&pDevice
->lock
);