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gfiber / kernel / skids / master / . / drivers / staging / otus / hal / hpmain.c
blob: 5f412e0204572de572679ec07cfe5ae20592aa82 [file] [log] [blame]
/*
* Copyright (c) 2007-2008 Atheros Communications Inc.
*
* Permission to use, copy, modify, and/or distribute this software for any
* purpose with or without fee is hereby granted, provided that the above
* copyright notice and this permission notice appear in all copies.
*
* THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES
* WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF
* MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR
* ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES
* WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN
* ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF
* OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
*/
#include "../80211core/cprecomp.h"
#include "hpani.h"
#include "hpusb.h"
#include "otus.ini"
extern const u32_t zcFwImage[];
extern const u32_t zcFwImageSize;
extern const u32_t zcDKFwImage[];
extern const u32_t zcDKFwImageSize;
extern const u32_t zcFwImageSPI[];
extern const u32_t zcFwImageSPISize;
#ifdef ZM_OTUS_LINUX_PHASE_2
extern const u32_t zcFwBufImage[];
extern const u32_t zcFwBufImageSize;
extern const u32_t zcP2FwImage[];
extern const u32_t zcP2FwImageSize;
#endif
extern void zfInitCmdQueue(zdev_t* dev);
extern u16_t zfIssueCmd(zdev_t* dev, u32_t* cmd, u16_t cmdLen,
u16_t src, u8_t* buf);
extern void zfIdlRsp(zdev_t* dev, u32_t* rsp, u16_t rspLen);
extern u16_t zfDelayWriteInternalReg(zdev_t* dev, u32_t addr, u32_t val);
extern u16_t zfFlushDelayWrite(zdev_t* dev);
extern void zfUsbInit(zdev_t* dev);
extern u16_t zfFirmwareDownload(zdev_t* dev, u32_t* fw, u32_t len, u32_t offset);
extern u16_t zfFirmwareDownloadNotJump(zdev_t* dev, u32_t* fw, u32_t len, u32_t offset);
extern void zfUsbFree(zdev_t* dev);
extern u16_t zfCwmIsExtChanBusy(u32_t ctlBusy, u32_t extBusy);
extern void zfCoreCwmBusy(zdev_t* dev, u16_t busy);
/* Prototypes */
void zfInitRf(zdev_t* dev, u32_t frequency);
void zfInitPhy(zdev_t* dev, u32_t frequency, u8_t bw40);
void zfInitMac(zdev_t* dev);
void zfSetPowerCalTable(zdev_t* dev, u32_t frequency, u8_t bw40, u8_t extOffset);
void zfInitPowerCal(zdev_t* dev);
#ifdef ZM_DRV_INIT_USB_MODE
void zfInitUsbMode(zdev_t* dev);
u16_t zfHpUsbReset(zdev_t* dev);
#endif
/* Bank 0 1 2 3 5 6 7 */
void zfSetRfRegs(zdev_t* dev, u32_t frequency);
/* Bank 4 */
void zfSetBank4AndPowerTable(zdev_t* dev, u32_t frequency, u8_t bw40,
u8_t extOffset);
/* Get param for turnoffdyn */
void zfGetHwTurnOffdynParam(zdev_t* dev,
u32_t frequency, u8_t bw40, u8_t extOffset,
int* delta_slope_coeff_exp,
int* delta_slope_coeff_man,
int* delta_slope_coeff_exp_shgi,
int* delta_slope_coeff_man_shgi);
void zfSelAdcClk(zdev_t* dev, u8_t bw40, u32_t frequency);
u32_t zfHpEchoCommand(zdev_t* dev, u32_t value);
#define zm_hp_priv(x) (((struct zsHpPriv*)wd->hpPrivate)->x)
static struct zsHpPriv zgHpPriv;
#define ZM_FIRMWARE_WLAN_ADDR 0x200000
#define ZM_FIRMWARE_SPI_ADDR 0x114000
/* 0: real chip 1: FPGA test */
#define ZM_FPGA_PHY 0
#define reg_write(addr, val) zfDelayWriteInternalReg(dev, addr+0x1bc000, val)
#define zm_min(A, B) ((A>B)? B:A)
/******************** Intialization ********************/
u16_t zfHpInit(zdev_t* dev, u32_t frequency)
{
u16_t ret;
zmw_get_wlan_dev(dev);
/* Initializa HAL Plus private variables */
wd->hpPrivate = &zgHpPriv;
((struct zsHpPriv*)wd->hpPrivate)->halCapability = ZM_HP_CAP_11N;
((struct zsHpPriv*)wd->hpPrivate)->hwFrequency = 0;
((struct zsHpPriv*)wd->hpPrivate)->hwBw40 = 0;
((struct zsHpPriv*)wd->hpPrivate)->hwExtOffset = 0;
((struct zsHpPriv*)wd->hpPrivate)->disableDfsCh = 0;
((struct zsHpPriv*)wd->hpPrivate)->ledMode[0] = 1;
((struct zsHpPriv*)wd->hpPrivate)->ledMode[1] = 1;
((struct zsHpPriv*)wd->hpPrivate)->strongRSSI = 0;
((struct zsHpPriv*)wd->hpPrivate)->rxStrongRSSI = 0;
((struct zsHpPriv*)wd->hpPrivate)->slotType = 1;
((struct zsHpPriv*)wd->hpPrivate)->aggPktNum = 0x10000a;
((struct zsHpPriv*)wd->hpPrivate)->eepromImageIndex = 0;
((struct zsHpPriv*)wd->hpPrivate)->eepromImageRdReq = 0;
#ifdef ZM_OTUS_RX_STREAM_MODE
((struct zsHpPriv*)wd->hpPrivate)->remainBuf = NULL;
((struct zsHpPriv*)wd->hpPrivate)->usbRxRemainLen = 0;
((struct zsHpPriv*)wd->hpPrivate)->usbRxPktLen = 0;
((struct zsHpPriv*)wd->hpPrivate)->usbRxPadLen = 0;
((struct zsHpPriv*)wd->hpPrivate)->usbRxTransferLen = 0;
#endif
((struct zsHpPriv*)wd->hpPrivate)->enableBBHeavyClip = 1;
((struct zsHpPriv*)wd->hpPrivate)->hwBBHeavyClip = 1; // force enable 8107
((struct zsHpPriv*)wd->hpPrivate)->doBBHeavyClip = 0;
((struct zsHpPriv*)wd->hpPrivate)->setValueHeavyClip = 0;
/* Initialize driver core */
zfInitCmdQueue(dev);
/* Initialize USB */
zfUsbInit(dev);
#if ZM_SW_LOOP_BACK != 1
/* TODO : [Download FW] */
if (wd->modeMDKEnable)
{
/* download the MDK firmware */
ret = zfFirmwareDownload(dev, (u32_t*)zcDKFwImage,
(u32_t)zcDKFwImageSize, ZM_FIRMWARE_WLAN_ADDR);
if (ret != ZM_SUCCESS)
{
/* TODO : exception handling */
//return 1;
}
}
else
{
#ifndef ZM_OTUS_LINUX_PHASE_2
/* download the normal firmware */
ret = zfFirmwareDownload(dev, (u32_t*)zcFwImage,
(u32_t)zcFwImageSize, ZM_FIRMWARE_WLAN_ADDR);
if (ret != ZM_SUCCESS)
{
/* TODO : exception handling */
//return 1;
}
#else
// 1-PH fw: ReadMac() store some global variable
ret = zfFirmwareDownloadNotJump(dev, (u32_t*)zcFwBufImage,
(u32_t)zcFwBufImageSize, 0x102800);
if (ret != ZM_SUCCESS)
{
DbgPrint("Dl zcFwBufImage failed!");
}
zfwSleep(dev, 1000);
ret = zfFirmwareDownload(dev, (u32_t*)zcFwImage,
(u32_t)zcFwImageSize, ZM_FIRMWARE_WLAN_ADDR);
if (ret != ZM_SUCCESS)
{
DbgPrint("Dl zcFwBufImage failed!");
}
#endif
}
#endif
#ifdef ZM_DRV_INIT_USB_MODE
/* Init USB Mode */
zfInitUsbMode(dev);
/* Do the USB Reset */
zfHpUsbReset(dev);
#endif
/* Register setting */
/* ZM_DRIVER_MODEL_TYPE_MDK
* 1=>for MDK, disable init RF, PHY, and MAC,
* 0=>normal init
*/
//#if ((ZM_SW_LOOP_BACK != 1) && (ZM_DRIVER_MODEL_TYPE_MDK !=1))
#if ZM_SW_LOOP_BACK != 1
if(!wd->modeMDKEnable)
{
/* Init MAC */
zfInitMac(dev);
#if ZM_FW_LOOP_BACK != 1
/* Init PHY */
zfInitPhy(dev, frequency, 0);
/* Init RF */
zfInitRf(dev, frequency);
#if ZM_FPGA_PHY == 0
/* BringUp issue */
//zfDelayWriteInternalReg(dev, 0x9800+0x1bc000, 0x10000007);
//zfFlushDelayWrite(dev);
#endif
#endif /* end of ZM_FW_LOOP_BACK != 1 */
}
#endif /* end of ((ZM_SW_LOOP_BACK != 1) && (ZM_DRIVER_MODEL_TYPE_MDK !=1)) */
zfHpEchoCommand(dev, 0xAABBCCDD);
return 0;
}
u16_t zfHpReinit(zdev_t* dev, u32_t frequency)
{
u16_t ret;
zmw_get_wlan_dev(dev);
((struct zsHpPriv*)wd->hpPrivate)->halReInit = 1;
((struct zsHpPriv*)wd->hpPrivate)->strongRSSI = 0;
((struct zsHpPriv*)wd->hpPrivate)->rxStrongRSSI = 0;
#ifdef ZM_OTUS_RX_STREAM_MODE
if (((struct zsHpPriv*)wd->hpPrivate)->remainBuf != NULL)
{
zfwBufFree(dev, ((struct zsHpPriv*)wd->hpPrivate)->remainBuf, 0);
}
((struct zsHpPriv*)wd->hpPrivate)->remainBuf = NULL;
((struct zsHpPriv*)wd->hpPrivate)->usbRxRemainLen = 0;
((struct zsHpPriv*)wd->hpPrivate)->usbRxPktLen = 0;
((struct zsHpPriv*)wd->hpPrivate)->usbRxPadLen = 0;
((struct zsHpPriv*)wd->hpPrivate)->usbRxTransferLen = 0;
#endif
zfInitCmdQueue(dev);
zfCoreReinit(dev);
#ifndef ZM_OTUS_LINUX_PHASE_2
/* Download firmware */
ret = zfFirmwareDownload(dev, (u32_t*)zcFwImage,
(u32_t)zcFwImageSize, ZM_FIRMWARE_WLAN_ADDR);
if (ret != ZM_SUCCESS)
{
/* TODO : exception handling */
//return 1;
}
#else
ret = zfFirmwareDownload(dev, (u32_t*)zcP2FwImage,
(u32_t)zcP2FwImageSize, ZM_FIRMWARE_WLAN_ADDR);
if (ret != ZM_SUCCESS)
{
/* TODO : exception handling */
//return 1;
}
#endif
#ifdef ZM_DRV_INIT_USB_MODE
/* Init USB Mode */
zfInitUsbMode(dev);
/* Do the USB Reset */
zfHpUsbReset(dev);
#endif
/* Init MAC */
zfInitMac(dev);
/* Init PHY */
zfInitPhy(dev, frequency, 0);
/* Init RF */
zfInitRf(dev, frequency);
#if ZM_FPGA_PHY == 0
/* BringUp issue */
//zfDelayWriteInternalReg(dev, 0x9800+0x1bc000, 0x10000007);
//zfFlushDelayWrite(dev);
#endif
zfHpEchoCommand(dev, 0xAABBCCDD);
return 0;
}
u16_t zfHpRelease(zdev_t* dev)
{
/* Free USB resource */
zfUsbFree(dev);
return 0;
}
/* MDK mode setting for dontRetransmit */
void zfHpConfigFM(zdev_t* dev, u32_t RxMaxSize, u32_t DontRetransmit)
{
u32_t cmd[3];
u16_t ret;
cmd[0] = 8 | (ZM_CMD_CONFIG << 8);
cmd[1] = RxMaxSize; /* zgRxMaxSize */
cmd[2] = DontRetransmit; /* zgDontRetransmit */
ret = zfIssueCmd(dev, cmd, 12, ZM_OID_INTERNAL_WRITE, 0);
}
const u8_t zcXpdToPd[16] =
{
/* 0x0, 0x1, 0x2, 0x3, 0x4, 0x5, 0x6, 0x7, 0x8, 0x9, 0xA, 0xB, 0xC, 0xD, 0xE, 0xF */
0x2, 0x2, 0x2, 0x1, 0x2, 0x2, 0x6, 0x2, 0x2, 0x3, 0x7, 0x2, 0xB, 0x2, 0x2, 0x2
};
/******************** RF and PHY ********************/
void zfInitPhy(zdev_t* dev, u32_t frequency, u8_t bw40)
{
u16_t i, j, k;
u16_t entries;
u16_t modesIndex = 0;
u16_t freqIndex = 0;
u32_t tmp, tmp1;
struct zsHpPriv* hpPriv;
u32_t eepromBoardData[15][6] = {
/* Register A-20 A-20/40 G-20/40 G-20 G-Turbo */
{0x9964, 0, 0, 0, 0, 0},
{0x9960, 0, 0, 0, 0, 0},
{0xb960, 0, 0, 0, 0, 0},
{0x9844, 0, 0, 0, 0, 0},
{0x9850, 0, 0, 0, 0, 0},
{0x9834, 0, 0, 0, 0, 0},
{0x9828, 0, 0, 0, 0, 0},
{0xc864, 0, 0, 0, 0, 0},
{0x9848, 0, 0, 0, 0, 0},
{0xb848, 0, 0, 0, 0, 0},
{0xa20c, 0, 0, 0, 0, 0},
{0xc20c, 0, 0, 0, 0, 0},
{0x9920, 0, 0, 0, 0, 0},
{0xb920, 0, 0, 0, 0, 0},
{0xa258, 0, 0, 0, 0, 0},
};
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
/* #1 Save the initial value of the related RIFS register settings */
//((struct zsHpPriv*)wd->hpPrivate)->isInitialPhy++;
/*
* Setup the indices for the next set of register array writes
* PHY mode is static20 / 2040
* Frequency is 2.4GHz (B) / 5GHz (A)
*/
if ( frequency > ZM_CH_G_14 )
{
/* 5GHz */
freqIndex = 1;
if (bw40)
{
modesIndex = 2;
zm_debug_msg0("init ar5416Modes in 2: A-20/40");
}
else
{
modesIndex = 1;
zm_debug_msg0("init ar5416Modes in 1: A-20");
}
}
else
{
/* 2.4GHz */
freqIndex = 2;
if (bw40)
{
modesIndex = 3;
zm_debug_msg0("init ar5416Modes in 3: G-20/40");
}
else
{
modesIndex = 4;
zm_debug_msg0("init ar5416Modes in 4: G-20");
}
}
#if ZM_FPGA_PHY == 1
/* Starting External Hainan Register Initialization */
/* TODO: */
zfwSleep(dev, 10);
#endif
/*
*Set correct Baseband to analog shift setting to access analog chips.
*/
//reg_write(PHY_BASE, 0x00000007);
// reg_write(0x9800, 0x00000007);
/*
* Write addac shifts
*/
// do this in firmware
/* Zeroize board data */
for (j=0; j<15; j++)
{
for (k=1; k<=4; k++)
{
eepromBoardData[j][k] = 0;
}
}
/*
* Register setting by mode
*/
entries = sizeof(ar5416Modes) / sizeof(*ar5416Modes);
zm_msg1_scan(ZM_LV_2, "Modes register setting entries=", entries);
for (i=0; i<entries; i++)
{
#if 0
if ( ((struct zsHpPriv*)wd->hpPrivate)->hwNotFirstInit && (ar5416Modes[i][0] == 0xa27c) )
{
/* Force disable CR671 bit20 / 7823 */
/* The bug has to do with the polarity of the pdadc offset calibration. There */
/* is an initial calibration that is OK, and there is a continuous */
/* calibration that updates the pddac with the wrong polarity. Fortunately */
/* the second loop can be disabled with a bit called en_pd_dc_offset_thr. */
reg_write(ar5416Modes[i][0], (ar5416Modes[i][modesIndex]& 0xffefffff) );
((struct zsHpPriv*)wd->hpPrivate)->hwNotFirstInit = 1;
}
else
{
#endif
/* FirstTime Init or not 0xa27c(CR671) */
reg_write(ar5416Modes[i][0], ar5416Modes[i][modesIndex]);
// }
/* Initialize board data */
for (j=0; j<15; j++)
{
if (ar5416Modes[i][0] == eepromBoardData[j][0])
{
for (k=1; k<=4; k++)
{
eepromBoardData[j][k] = ar5416Modes[i][k];
}
}
}
/* #1 Save the initial value of the related RIFS register settings */
//if( ((struct zsHpPriv*)wd->hpPrivate)->isInitialPhy == 1 )
{
switch(ar5416Modes[i][0])
{
case 0x9850 :
((struct zsHpPriv*)wd->hpPrivate)->initDesiredSigSize = ar5416Modes[i][modesIndex];
break;
case 0x985c :
((struct zsHpPriv*)wd->hpPrivate)->initAGC = ar5416Modes[i][modesIndex];
break;
case 0x9860 :
((struct zsHpPriv*)wd->hpPrivate)->initAgcControl = ar5416Modes[i][modesIndex];
break;
case 0x9918 :
((struct zsHpPriv*)wd->hpPrivate)->initSearchStartDelay = ar5416Modes[i][modesIndex];
break;
case 0x99ec :
((struct zsHpPriv*)wd->hpPrivate)->initRIFSSearchParams = ar5416Modes[i][modesIndex];
break;
case 0xa388 :
((struct zsHpPriv*)wd->hpPrivate)->initFastChannelChangeControl = ar5416Modes[i][modesIndex];
default :
break;
}
}
}
#if 0
zfFlushDelayWrite(dev);
/*
* Common Register setting
*/
entries = sizeof(ar5416Common) / sizeof(*ar5416Common);
for (i=0; i<entries; i++)
{
reg_write(ar5416Common[i][0], ar5416Common[i][1]);
}
zfFlushDelayWrite(dev);
/*
* RF Gain setting by freqIndex
*/
entries = sizeof(ar5416BB_RfGain) / sizeof(*ar5416BB_RfGain);
for (i=0; i<entries; i++)
{
reg_write(ar5416BB_RfGain[i][0], ar5416BB_RfGain[i][freqIndex]);
}
zfFlushDelayWrite(dev);
/*
* Moved ar5416InitChainMask() here to ensure the swap bit is set before
* the pdadc table is written. Swap must occur before any radio dependent
* replicated register access. The pdadc curve addressing in particular
* depends on the consistent setting of the swap bit.
*/
//ar5416InitChainMask(pDev);
/* Setup the transmit power values. */
// TODO
#endif
/* Update 5G board data */
//Ant control common
tmp = hpPriv->eepromImage[0x100+0x144*2/4];
eepromBoardData[0][1] = tmp;
eepromBoardData[0][2] = tmp;
//Ant control chain 0
tmp = hpPriv->eepromImage[0x100+0x140*2/4];
eepromBoardData[1][1] = tmp;
eepromBoardData[1][2] = tmp;
//Ant control chain 2
tmp = hpPriv->eepromImage[0x100+0x142*2/4];
eepromBoardData[2][1] = tmp;
eepromBoardData[2][2] = tmp;
//SwSettle
tmp = hpPriv->eepromImage[0x100+0x146*2/4];
tmp = (tmp >> 16) & 0x7f;
eepromBoardData[3][1] &= (~((u32_t)0x3f80));
eepromBoardData[3][1] |= (tmp << 7);
#if 0
//swSettleHt40
tmp = hpPriv->eepromImage[0x100+0x158*2/4];
tmp = (tmp) & 0x7f;
eepromBoardData[3][2] &= (~((u32_t)0x3f80));
eepromBoardData[3][2] |= (tmp << 7);
#endif
//adcDesired, pdaDesired
tmp = hpPriv->eepromImage[0x100+0x148*2/4];
tmp = (tmp >> 24);
tmp1 = hpPriv->eepromImage[0x100+0x14a*2/4];
tmp1 = tmp1 & 0xff;
tmp = tmp + (tmp1<<8);
eepromBoardData[4][1] &= (~((u32_t)0xffff));
eepromBoardData[4][1] |= tmp;
eepromBoardData[4][2] &= (~((u32_t)0xffff));
eepromBoardData[4][2] |= tmp;
//TxEndToXpaOff, TxFrameToXpaOn
tmp = hpPriv->eepromImage[0x100+0x14a*2/4];
tmp = (tmp >> 24) & 0xff;
tmp1 = hpPriv->eepromImage[0x100+0x14c*2/4];
tmp1 = (tmp1 >> 8) & 0xff;
tmp = (tmp<<24) + (tmp<<16) + (tmp1<<8) + tmp1;
eepromBoardData[5][1] = tmp;
eepromBoardData[5][2] = tmp;
//TxEnaToRxOm
tmp = hpPriv->eepromImage[0x100+0x14c*2/4] & 0xff;
eepromBoardData[6][1] &= (~((u32_t)0xff0000));
eepromBoardData[6][1] |= (tmp<<16);
eepromBoardData[6][2] &= (~((u32_t)0xff0000));
eepromBoardData[6][2] |= (tmp<<16);
//Thresh62
tmp = hpPriv->eepromImage[0x100+0x14c*2/4];
tmp = (tmp >> 16) & 0x7f;
eepromBoardData[7][1] &= (~((u32_t)0x7f000));
eepromBoardData[7][1] |= (tmp<<12);
eepromBoardData[7][2] &= (~((u32_t)0x7f000));
eepromBoardData[7][2] |= (tmp<<12);
//TxRxAtten chain_0
tmp = hpPriv->eepromImage[0x100+0x146*2/4];
tmp = (tmp >> 24) & 0x3f;
eepromBoardData[8][1] &= (~((u32_t)0x3f000));
eepromBoardData[8][1] |= (tmp<<12);
eepromBoardData[8][2] &= (~((u32_t)0x3f000));
eepromBoardData[8][2] |= (tmp<<12);
//TxRxAtten chain_2
tmp = hpPriv->eepromImage[0x100+0x148*2/4] & 0x3f;
eepromBoardData[9][1] &= (~((u32_t)0x3f000));
eepromBoardData[9][1] |= (tmp<<12);
eepromBoardData[9][2] &= (~((u32_t)0x3f000));
eepromBoardData[9][2] |= (tmp<<12);
//TxRxMargin chain_0
tmp = hpPriv->eepromImage[0x100+0x148*2/4];
tmp = (tmp >> 8) & 0x3f;
eepromBoardData[10][1] &= (~((u32_t)0xfc0000));
eepromBoardData[10][1] |= (tmp<<18);
eepromBoardData[10][2] &= (~((u32_t)0xfc0000));
eepromBoardData[10][2] |= (tmp<<18);
//TxRxMargin chain_2
tmp = hpPriv->eepromImage[0x100+0x148*2/4];
tmp = (tmp >> 16) & 0x3f;
eepromBoardData[11][1] &= (~((u32_t)0xfc0000));
eepromBoardData[11][1] |= (tmp<<18);
eepromBoardData[11][2] &= (~((u32_t)0xfc0000));
eepromBoardData[11][2] |= (tmp<<18);
//iqCall chain_0, iqCallQ chain_0
tmp = hpPriv->eepromImage[0x100+0x14e*2/4];
tmp = (tmp >> 24) & 0x3f;
tmp1 = hpPriv->eepromImage[0x100+0x150*2/4];
tmp1 = (tmp1 >> 8) & 0x1f;
tmp = (tmp<<5) + tmp1;
eepromBoardData[12][1] &= (~((u32_t)0x7ff));
eepromBoardData[12][1] |= (tmp);
eepromBoardData[12][2] &= (~((u32_t)0x7ff));
eepromBoardData[12][2] |= (tmp);
//iqCall chain_2, iqCallQ chain_2
tmp = hpPriv->eepromImage[0x100+0x150*2/4];
tmp = tmp & 0x3f;
tmp1 = hpPriv->eepromImage[0x100+0x150*2/4];
tmp1 = (tmp1 >> 16) & 0x1f;
tmp = (tmp<<5) + tmp1;
eepromBoardData[13][1] &= (~((u32_t)0x7ff));
eepromBoardData[13][1] |= (tmp);
eepromBoardData[13][2] &= (~((u32_t)0x7ff));
eepromBoardData[13][2] |= (tmp);
//bsw_Margin chain_0
tmp = hpPriv->eepromImage[0x100+0x156*2/4];
tmp = (tmp >> 16) & 0xf;
eepromBoardData[10][1] &= (~((u32_t)0x3c00));
eepromBoardData[10][1] |= (tmp << 10);
eepromBoardData[10][2] &= (~((u32_t)0x3c00));
eepromBoardData[10][2] |= (tmp << 10);
//xpd gain mask
tmp = hpPriv->eepromImage[0x100+0x14e*2/4];
tmp = (tmp >> 8) & 0xf;
eepromBoardData[14][1] &= (~((u32_t)0xf0000));
eepromBoardData[14][1] |= (zcXpdToPd[tmp] << 16);
eepromBoardData[14][2] &= (~((u32_t)0xf0000));
eepromBoardData[14][2] |= (zcXpdToPd[tmp] << 16);
#if 0
//bsw_Atten chain_0
tmp = hpPriv->eepromImage[0x100+0x156*2/4];
tmp = (tmp) & 0x1f;
eepromBoardData[10][1] &= (~((u32_t)0x1f));
eepromBoardData[10][1] |= (tmp);
eepromBoardData[10][2] &= (~((u32_t)0x1f));
eepromBoardData[10][2] |= (tmp);
//bsw_Margin chain_2
tmp = hpPriv->eepromImage[0x100+0x156*2/4];
tmp = (tmp >> 24) & 0xf;
eepromBoardData[11][1] &= (~((u32_t)0x3c00));
eepromBoardData[11][1] |= (tmp << 10);
eepromBoardData[11][2] &= (~((u32_t)0x3c00));
eepromBoardData[11][2] |= (tmp << 10);
//bsw_Atten chain_2
tmp = hpPriv->eepromImage[0x100+0x156*2/4];
tmp = (tmp >> 8) & 0x1f;
eepromBoardData[11][1] &= (~((u32_t)0x1f));
eepromBoardData[11][1] |= (tmp);
eepromBoardData[11][2] &= (~((u32_t)0x1f));
eepromBoardData[11][2] |= (tmp);
#endif
/* Update 2.4G board data */
//Ant control common
tmp = hpPriv->eepromImage[0x100+0x170*2/4];
tmp = tmp >> 24;
tmp1 = hpPriv->eepromImage[0x100+0x172*2/4];
tmp = tmp + (tmp1 << 8);
eepromBoardData[0][3] = tmp;
eepromBoardData[0][4] = tmp;
//Ant control chain 0
tmp = hpPriv->eepromImage[0x100+0x16c*2/4];
tmp = tmp >> 24;
tmp1 = hpPriv->eepromImage[0x100+0x16e*2/4];
tmp = tmp + (tmp1 << 8);
eepromBoardData[1][3] = tmp;
eepromBoardData[1][4] = tmp;
//Ant control chain 2
tmp = hpPriv->eepromImage[0x100+0x16e*2/4];
tmp = tmp >> 24;
tmp1 = hpPriv->eepromImage[0x100+0x170*2/4];
tmp = tmp + (tmp1 << 8);
eepromBoardData[2][3] = tmp;
eepromBoardData[2][4] = tmp;
//SwSettle
tmp = hpPriv->eepromImage[0x100+0x174*2/4];
tmp = (tmp >> 8) & 0x7f;
eepromBoardData[3][4] &= (~((u32_t)0x3f80));
eepromBoardData[3][4] |= (tmp << 7);
#if 0
//swSettleHt40
tmp = hpPriv->eepromImage[0x100+0x184*2/4];
tmp = (tmp >> 24) & 0x7f;
eepromBoardData[3][3] &= (~((u32_t)0x3f80));
eepromBoardData[3][3] |= (tmp << 7);
#endif
//adcDesired, pdaDesired
tmp = hpPriv->eepromImage[0x100+0x176*2/4];
tmp = (tmp >> 16) & 0xff;
tmp1 = hpPriv->eepromImage[0x100+0x176*2/4];
tmp1 = tmp1 >> 24;
tmp = tmp + (tmp1<<8);
eepromBoardData[4][3] &= (~((u32_t)0xffff));
eepromBoardData[4][3] |= tmp;
eepromBoardData[4][4] &= (~((u32_t)0xffff));
eepromBoardData[4][4] |= tmp;
//TxEndToXpaOff, TxFrameToXpaOn
tmp = hpPriv->eepromImage[0x100+0x178*2/4];
tmp = (tmp >> 16) & 0xff;
tmp1 = hpPriv->eepromImage[0x100+0x17a*2/4];
tmp1 = tmp1 & 0xff;
tmp = (tmp << 24) + (tmp << 16) + (tmp1 << 8) + tmp1;
eepromBoardData[5][3] = tmp;
eepromBoardData[5][4] = tmp;
//TxEnaToRxOm
tmp = hpPriv->eepromImage[0x100+0x178*2/4];
tmp = (tmp >> 24);
eepromBoardData[6][3] &= (~((u32_t)0xff0000));
eepromBoardData[6][3] |= (tmp<<16);
eepromBoardData[6][4] &= (~((u32_t)0xff0000));
eepromBoardData[6][4] |= (tmp<<16);
//Thresh62
tmp = hpPriv->eepromImage[0x100+0x17a*2/4];
tmp = (tmp >> 8) & 0x7f;
eepromBoardData[7][3] &= (~((u32_t)0x7f000));
eepromBoardData[7][3] |= (tmp<<12);
eepromBoardData[7][4] &= (~((u32_t)0x7f000));
eepromBoardData[7][4] |= (tmp<<12);
//TxRxAtten chain_0
tmp = hpPriv->eepromImage[0x100+0x174*2/4];
tmp = (tmp >> 16) & 0x3f;
eepromBoardData[8][3] &= (~((u32_t)0x3f000));
eepromBoardData[8][3] |= (tmp<<12);
eepromBoardData[8][4] &= (~((u32_t)0x3f000));
eepromBoardData[8][4] |= (tmp<<12);
//TxRxAtten chain_2
tmp = hpPriv->eepromImage[0x100+0x174*2/4];
tmp = (tmp >> 24) & 0x3f;
eepromBoardData[9][3] &= (~((u32_t)0x3f000));
eepromBoardData[9][3] |= (tmp<<12);
eepromBoardData[9][4] &= (~((u32_t)0x3f000));
eepromBoardData[9][4] |= (tmp<<12);
//TxRxMargin chain_0
tmp = hpPriv->eepromImage[0x100+0x176*2/4];
tmp = (tmp) & 0x3f;
eepromBoardData[10][3] &= (~((u32_t)0xfc0000));
eepromBoardData[10][3] |= (tmp<<18);
eepromBoardData[10][4] &= (~((u32_t)0xfc0000));
eepromBoardData[10][4] |= (tmp<<18);
//TxRxMargin chain_2
tmp = hpPriv->eepromImage[0x100+0x176*2/4];
tmp = (tmp >> 8) & 0x3f;
eepromBoardData[11][3] &= (~((u32_t)0xfc0000));
eepromBoardData[11][3] |= (tmp<<18);
eepromBoardData[11][4] &= (~((u32_t)0xfc0000));
eepromBoardData[11][4] |= (tmp<<18);
//iqCall chain_0, iqCallQ chain_0
tmp = hpPriv->eepromImage[0x100+0x17c*2/4];
tmp = (tmp >> 16) & 0x3f;
tmp1 = hpPriv->eepromImage[0x100+0x17e*2/4];
tmp1 = (tmp1) & 0x1f;
tmp = (tmp<<5) + tmp1;
eepromBoardData[12][3] &= (~((u32_t)0x7ff));
eepromBoardData[12][3] |= (tmp);
eepromBoardData[12][4] &= (~((u32_t)0x7ff));
eepromBoardData[12][4] |= (tmp);
//iqCall chain_2, iqCallQ chain_2
tmp = hpPriv->eepromImage[0x100+0x17c*2/4];
tmp = (tmp>>24) & 0x3f;
tmp1 = hpPriv->eepromImage[0x100+0x17e*2/4];
tmp1 = (tmp1 >> 8) & 0x1f;
tmp = (tmp<<5) + tmp1;
eepromBoardData[13][3] &= (~((u32_t)0x7ff));
eepromBoardData[13][3] |= (tmp);
eepromBoardData[13][4] &= (~((u32_t)0x7ff));
eepromBoardData[13][4] |= (tmp);
//xpd gain mask
tmp = hpPriv->eepromImage[0x100+0x17c*2/4];
tmp = tmp & 0xf;
DbgPrint("xpd=0x%x, pd=0x%x\n", tmp, zcXpdToPd[tmp]);
eepromBoardData[14][3] &= (~((u32_t)0xf0000));
eepromBoardData[14][3] |= (zcXpdToPd[tmp] << 16);
eepromBoardData[14][4] &= (~((u32_t)0xf0000));
eepromBoardData[14][4] |= (zcXpdToPd[tmp] << 16);
#if 0
//bsw_Margin chain_0
tmp = hpPriv->eepromImage[0x100+0x184*2/4];
tmp = (tmp >> 8) & 0xf;
eepromBoardData[10][3] &= (~((u32_t)0x3c00));
eepromBoardData[10][3] |= (tmp << 10);
eepromBoardData[10][4] &= (~((u32_t)0x3c00));
eepromBoardData[10][4] |= (tmp << 10);
//bsw_Atten chain_0
tmp = hpPriv->eepromImage[0x100+0x182*2/4];
tmp = (tmp>>24) & 0x1f;
eepromBoardData[10][3] &= (~((u32_t)0x1f));
eepromBoardData[10][3] |= (tmp);
eepromBoardData[10][4] &= (~((u32_t)0x1f));
eepromBoardData[10][4] |= (tmp);
//bsw_Margin chain_2
tmp = hpPriv->eepromImage[0x100+0x184*2/4];
tmp = (tmp >> 16) & 0xf;
eepromBoardData[11][3] &= (~((u32_t)0x3c00));
eepromBoardData[11][3] |= (tmp << 10);
eepromBoardData[11][4] &= (~((u32_t)0x3c00));
eepromBoardData[11][4] |= (tmp << 10);
//bsw_Atten chain_2
tmp = hpPriv->eepromImage[0x100+0x184*2/4];
tmp = (tmp) & 0x1f;
eepromBoardData[11][3] &= (~((u32_t)0x1f));
eepromBoardData[11][3] |= (tmp);
eepromBoardData[11][4] &= (~((u32_t)0x1f));
eepromBoardData[11][4] |= (tmp);
#endif
#if 0
for (j=0; j<14; j++)
{
DbgPrint("%04x, %08x, %08x, %08x, %08x\n", eepromBoardData[j][0], eepromBoardData[j][1], eepromBoardData[j][2], eepromBoardData[j][3], eepromBoardData[j][4]);
}
#endif
if ((hpPriv->eepromImage[0x100+0x110*2/4]&0xff) == 0x80) //FEM TYPE
{
/* Update board data to registers */
for (j=0; j<15; j++)
{
reg_write(eepromBoardData[j][0], eepromBoardData[j][modesIndex]);
/* #1 Save the initial value of the related RIFS register settings */
//if( ((struct zsHpPriv*)wd->hpPrivate)->isInitialPhy == 1 )
{
switch(eepromBoardData[j][0])
{
case 0x9850 :
((struct zsHpPriv*)wd->hpPrivate)->initDesiredSigSize = eepromBoardData[j][modesIndex];
break;
case 0x985c :
((struct zsHpPriv*)wd->hpPrivate)->initAGC = eepromBoardData[j][modesIndex];
break;
case 0x9860 :
((struct zsHpPriv*)wd->hpPrivate)->initAgcControl = eepromBoardData[j][modesIndex];
break;
case 0x9918 :
((struct zsHpPriv*)wd->hpPrivate)->initSearchStartDelay = eepromBoardData[j][modesIndex];
break;
case 0x99ec :
((struct zsHpPriv*)wd->hpPrivate)->initRIFSSearchParams = eepromBoardData[j][modesIndex];
break;
case 0xa388 :
((struct zsHpPriv*)wd->hpPrivate)->initFastChannelChangeControl = eepromBoardData[j][modesIndex];
default :
break;
}
}
}
} /* if ((hpPriv->eepromImage[0x100+0x110*2/4]&0xff) == 0x80) //FEM TYPE */
/* Bringup issue : force tx gain */
//reg_write(0xa258, 0x0cc65381);
//reg_write(0xa274, 0x0a1a7c15);
zfInitPowerCal(dev);
if(frequency > ZM_CH_G_14)
{
zfDelayWriteInternalReg(dev, 0x1d4014, 0x5143);
}
else
{
zfDelayWriteInternalReg(dev, 0x1d4014, 0x5163);
}
zfFlushDelayWrite(dev);
}
void zfInitRf(zdev_t* dev, u32_t frequency)
{
u32_t cmd[8];
u16_t ret;
int delta_slope_coeff_exp;
int delta_slope_coeff_man;
int delta_slope_coeff_exp_shgi;
int delta_slope_coeff_man_shgi;
zmw_get_wlan_dev(dev);
zm_debug_msg1(" initRf frequency = ", frequency);
if (frequency == 0)
{
frequency = 2412;
}
/* Bank 0 1 2 3 5 6 7 */
zfSetRfRegs(dev, frequency);
/* Bank 4 */
zfSetBank4AndPowerTable(dev, frequency, 0, 0);
/* stroe frequency */
((struct zsHpPriv*)wd->hpPrivate)->hwFrequency = (u16_t)frequency;
zfGetHwTurnOffdynParam(dev,
frequency, 0, 0,
&delta_slope_coeff_exp,
&delta_slope_coeff_man,
&delta_slope_coeff_exp_shgi,
&delta_slope_coeff_man_shgi);
/* related functions */
frequency = frequency*1000;
cmd[0] = 28 | (ZM_CMD_RF_INIT << 8);
cmd[1] = frequency;
cmd[2] = 0;//((struct zsHpPriv*)wd->hpPrivate)->hw_DYNAMIC_HT2040_EN;
cmd[3] = 1;//((wd->ExtOffset << 2) | ((struct zsHpPriv*)wd->hpPrivate)->hw_HT_ENABLE);
cmd[4] = delta_slope_coeff_exp;
cmd[5] = delta_slope_coeff_man;
cmd[6] = delta_slope_coeff_exp_shgi;
cmd[7] = delta_slope_coeff_man_shgi;
ret = zfIssueCmd(dev, cmd, 32, ZM_OID_INTERNAL_WRITE, 0);
// delay temporarily, wait for new PHY and RF
zfwSleep(dev, 1000);
}
int tn(int exp)
{
int i;
int tmp = 1;
for(i=0; i<exp; i++)
tmp = tmp*2;
return tmp;
}
/*int zfFloor(double indata)
{
if(indata<0)
return (int)indata-1;
else
return (int)indata;
}
*/
u32_t reverse_bits(u32_t chan_sel)
{
/* reverse_bits */
u32_t chansel = 0;
u8_t i;
for (i=0; i<8; i++)
chansel |= ((chan_sel>>(7-i) & 0x1) << i);
return chansel;
}
/* Bank 0 1 2 3 5 6 7 */
void zfSetRfRegs(zdev_t* dev, u32_t frequency)
{
u16_t entries;
u16_t freqIndex = 0;
u16_t i;
//zmw_get_wlan_dev(dev);
if ( frequency > ZM_CH_G_14 )
{
/* 5G */
freqIndex = 1;
zm_msg0_scan(ZM_LV_2, "Set to 5GHz");
}
else
{
/* 2.4G */
freqIndex = 2;
zm_msg0_scan(ZM_LV_2, "Set to 2.4GHz");
}
#if 1
entries = sizeof(otusBank) / sizeof(*otusBank);
for (i=0; i<entries; i++)
{
reg_write(otusBank[i][0], otusBank[i][freqIndex]);
}
#else
/* Bank0 */
entries = sizeof(ar5416Bank0) / sizeof(*ar5416Bank0);
for (i=0; i<entries; i++)
{
reg_write(ar5416Bank0[i][0], ar5416Bank0[i][1]);
}
/* Bank1 */
entries = sizeof(ar5416Bank1) / sizeof(*ar5416Bank1);
for (i=0; i<entries; i++)
{
reg_write(ar5416Bank1[i][0], ar5416Bank1[i][1]);
}
/* Bank2 */
entries = sizeof(ar5416Bank2) / sizeof(*ar5416Bank2);
for (i=0; i<entries; i++)
{
reg_write(ar5416Bank2[i][0], ar5416Bank2[i][1]);
}
/* Bank3 */
entries = sizeof(ar5416Bank3) / sizeof(*ar5416Bank3);
for (i=0; i<entries; i++)
{
reg_write(ar5416Bank3[i][0], ar5416Bank3[i][freqIndex]);
}
/* Bank5 */
reg_write (0x98b0, 0x00000013);
reg_write (0x98e4, 0x00000002);
/* Bank6 */
entries = sizeof(ar5416Bank6) / sizeof(*ar5416Bank6);
for (i=0; i<entries; i++)
{
reg_write(ar5416Bank6[i][0], ar5416Bank6[i][freqIndex]);
}
/* Bank7 */
entries = sizeof(ar5416Bank7) / sizeof(*ar5416Bank7);
for (i=0; i<entries; i++)
{
reg_write(ar5416Bank7[i][0], ar5416Bank7[i][1]);
}
#endif
zfFlushDelayWrite(dev);
}
/* Bank 4 */
void zfSetBank4AndPowerTable(zdev_t* dev, u32_t frequency, u8_t bw40,
u8_t extOffset)
{
u32_t chup = 1;
u32_t bmode_LF_synth_freq = 0;
u32_t amode_refsel_1 = 0;
u32_t amode_refsel_0 = 1;
u32_t addr2 = 1;
u32_t addr1 = 0;
u32_t addr0 = 0;
u32_t d1;
u32_t d0;
u32_t tmp_0;
u32_t tmp_1;
u32_t data0;
u32_t data1;
u8_t chansel;
u8_t chan_sel;
u32_t temp_chan_sel;
u16_t i;
zmw_get_wlan_dev(dev);
/* if enable 802.11h, need to record curent channel index in channel array */
if (wd->sta.DFSEnable)
{
for (i = 0; i < wd->regulationTable.allowChannelCnt; i++)
{
if (wd->regulationTable.allowChannel[i].channel == frequency)
break;
}
wd->regulationTable.CurChIndex = i;
}
if (bw40 == 1)
{
if (extOffset == 1)
{
frequency += 10;
}
else
{
frequency -= 10;
}
}
if ( frequency > 3000 )
{
if ( frequency % 10 )
{
/* 5M */
chan_sel = (u8_t)((frequency - 4800)/5);
chan_sel = (u8_t)(chan_sel & 0xff);
chansel = (u8_t)reverse_bits(chan_sel);
}
else
{
/* 10M : improve Tx EVM */
chan_sel = (u8_t)((frequency - 4800)/10);
chan_sel = (u8_t)(chan_sel & 0xff)<<1;
chansel = (u8_t)reverse_bits(chan_sel);
amode_refsel_1 = 1;
amode_refsel_0 = 0;
}
}
else
{
//temp_chan_sel = (((frequency - 672)*2) - 3040)/10;
if (frequency == 2484)
{
temp_chan_sel = 10 + (frequency - 2274)/5 ;
bmode_LF_synth_freq = 1;
}
else
{
temp_chan_sel = 16 + (frequency - 2272)/5 ;
bmode_LF_synth_freq = 0;
}
chan_sel = (u8_t)(temp_chan_sel << 2) & 0xff;
chansel = (u8_t)reverse_bits(chan_sel);
}
d1 = chansel; //# 8 bits of chan
d0 = addr0<<7 | addr1<<6 | addr2<<5
| amode_refsel_0<<3 | amode_refsel_1<<2
| bmode_LF_synth_freq<<1 | chup;
tmp_0 = d0 & 0x1f; //# 5-1
tmp_1 = d1 & 0x1f; //# 5-1
data0 = tmp_1<<5 | tmp_0;
tmp_0 = d0>>5 & 0x7; //# 8-6
tmp_1 = d1>>5 & 0x7; //# 8-6
data1 = tmp_1<<5 | tmp_0;
/* Bank4 */
reg_write (0x9800+(0x2c<<2), data0);
reg_write (0x9800+(0x3a<<2), data1);
//zm_debug_msg1("0x9800+(0x2c<<2 = ", data0);
//zm_debug_msg1("0x9800+(0x3a<<2 = ", data1);
zfFlushDelayWrite(dev);
zfwSleep(dev, 10);
return;
}
struct zsPhyFreqPara
{
u32_t coeff_exp;
u32_t coeff_man;
u32_t coeff_exp_shgi;
u32_t coeff_man_shgi;
};
struct zsPhyFreqTable
{
u32_t frequency;
struct zsPhyFreqPara FpgaDynamicHT;
struct zsPhyFreqPara FpgaStaticHT;
struct zsPhyFreqPara ChipST20Mhz;
struct zsPhyFreqPara Chip2040Mhz;
struct zsPhyFreqPara Chip2040ExtAbove;
};
const struct zsPhyFreqTable zgPhyFreqCoeff[] =
{
/*Index freq FPGA DYNAMIC_HT2040_EN FPGA STATIC_HT20 Real Chip static20MHz Real Chip 2040MHz Real Chip 2040Mhz */
/* fclk = 10.8 21.6 40 ext below 40 ext above 40 */
/* 0 */ {2412, {5, 23476, 5, 21128}, {4, 23476, 4, 21128}, {3, 21737, 3, 19563}, {3, 21827, 3, 19644}, {3, 21647, 3, 19482}},
/* 1 */ {2417, {5, 23427, 5, 21084}, {4, 23427, 4, 21084}, {3, 21692, 3, 19523}, {3, 21782, 3, 19604}, {3, 21602, 3, 19442}},
/* 2 */ {2422, {5, 23379, 5, 21041}, {4, 23379, 4, 21041}, {3, 21647, 3, 19482}, {3, 21737, 3, 19563}, {3, 21558, 3, 19402}},
/* 3 */ {2427, {5, 23330, 5, 20997}, {4, 23330, 4, 20997}, {3, 21602, 3, 19442}, {3, 21692, 3, 19523}, {3, 21514, 3, 19362}},
/* 4 */ {2432, {5, 23283, 5, 20954}, {4, 23283, 4, 20954}, {3, 21558, 3, 19402}, {3, 21647, 3, 19482}, {3, 21470, 3, 19323}},
/* 5 */ {2437, {5, 23235, 5, 20911}, {4, 23235, 4, 20911}, {3, 21514, 3, 19362}, {3, 21602, 3, 19442}, {3, 21426, 3, 19283}},
/* 6 */ {2442, {5, 23187, 5, 20868}, {4, 23187, 4, 20868}, {3, 21470, 3, 19323}, {3, 21558, 3, 19402}, {3, 21382, 3, 19244}},
/* 7 */ {2447, {5, 23140, 5, 20826}, {4, 23140, 4, 20826}, {3, 21426, 3, 19283}, {3, 21514, 3, 19362}, {3, 21339, 3, 19205}},
/* 8 */ {2452, {5, 23093, 5, 20783}, {4, 23093, 4, 20783}, {3, 21382, 3, 19244}, {3, 21470, 3, 19323}, {3, 21295, 3, 19166}},
/* 9 */ {2457, {5, 23046, 5, 20741}, {4, 23046, 4, 20741}, {3, 21339, 3, 19205}, {3, 21426, 3, 19283}, {3, 21252, 3, 19127}},
/* 10 */ {2462, {5, 22999, 5, 20699}, {4, 22999, 4, 20699}, {3, 21295, 3, 19166}, {3, 21382, 3, 19244}, {3, 21209, 3, 19088}},
/* 11 */ {2467, {5, 22952, 5, 20657}, {4, 22952, 4, 20657}, {3, 21252, 3, 19127}, {3, 21339, 3, 19205}, {3, 21166, 3, 19050}},
/* 12 */ {2472, {5, 22906, 5, 20615}, {4, 22906, 4, 20615}, {3, 21209, 3, 19088}, {3, 21295, 3, 19166}, {3, 21124, 3, 19011}},
/* 13 */ {2484, {5, 22795, 5, 20516}, {4, 22795, 4, 20516}, {3, 21107, 3, 18996}, {3, 21192, 3, 19073}, {3, 21022, 3, 18920}},
/* 14 */ {4920, {6, 23018, 6, 20716}, {5, 23018, 5, 20716}, {4, 21313, 4, 19181}, {4, 21356, 4, 19220}, {4, 21269, 4, 19142}},
/* 15 */ {4940, {6, 22924, 6, 20632}, {5, 22924, 5, 20632}, {4, 21226, 4, 19104}, {4, 21269, 4, 19142}, {4, 21183, 4, 19065}},
/* 16 */ {4960, {6, 22832, 6, 20549}, {5, 22832, 5, 20549}, {4, 21141, 4, 19027}, {4, 21183, 4, 19065}, {4, 21098, 4, 18988}},
/* 17 */ {4980, {6, 22740, 6, 20466}, {5, 22740, 5, 20466}, {4, 21056, 4, 18950}, {4, 21098, 4, 18988}, {4, 21014, 4, 18912}},
/* 18 */ {5040, {6, 22469, 6, 20223}, {5, 22469, 5, 20223}, {4, 20805, 4, 18725}, {4, 20846, 4, 18762}, {4, 20764, 4, 18687}},
/* 19 */ {5060, {6, 22381, 6, 20143}, {5, 22381, 5, 20143}, {4, 20723, 4, 18651}, {4, 20764, 4, 18687}, {4, 20682, 4, 18614}},
/* 20 */ {5080, {6, 22293, 6, 20063}, {5, 22293, 5, 20063}, {4, 20641, 4, 18577}, {4, 20682, 4, 18614}, {4, 20601, 4, 18541}},
/* 21 */ {5180, {6, 21862, 6, 19676}, {5, 21862, 5, 19676}, {4, 20243, 4, 18219}, {4, 20282, 4, 18254}, {4, 20204, 4, 18183}},
/* 22 */ {5200, {6, 21778, 6, 19600}, {5, 21778, 5, 19600}, {4, 20165, 4, 18148}, {4, 20204, 4, 18183}, {4, 20126, 4, 18114}},
/* 23 */ {5220, {6, 21695, 6, 19525}, {5, 21695, 5, 19525}, {4, 20088, 4, 18079}, {4, 20126, 4, 18114}, {4, 20049, 4, 18044}},
/* 24 */ {5240, {6, 21612, 6, 19451}, {5, 21612, 5, 19451}, {4, 20011, 4, 18010}, {4, 20049, 4, 18044}, {4, 19973, 4, 17976}},
/* 25 */ {5260, {6, 21530, 6, 19377}, {5, 21530, 5, 19377}, {4, 19935, 4, 17941}, {4, 19973, 4, 17976}, {4, 19897, 4, 17907}},
/* 26 */ {5280, {6, 21448, 6, 19303}, {5, 21448, 5, 19303}, {4, 19859, 4, 17873}, {4, 19897, 4, 17907}, {4, 19822, 4, 17840}},
/* 27 */ {5300, {6, 21367, 6, 19230}, {5, 21367, 5, 19230}, {4, 19784, 4, 17806}, {4, 19822, 4, 17840}, {4, 19747, 4, 17772}},
/* 28 */ {5320, {6, 21287, 6, 19158}, {5, 21287, 5, 19158}, {4, 19710, 4, 17739}, {4, 19747, 4, 17772}, {4, 19673, 4, 17706}},
/* 29 */ {5500, {6, 20590, 6, 18531}, {5, 20590, 5, 18531}, {4, 19065, 4, 17159}, {4, 19100, 4, 17190}, {4, 19030, 4, 17127}},
/* 30 */ {5520, {6, 20516, 6, 18464}, {5, 20516, 5, 18464}, {4, 18996, 4, 17096}, {4, 19030, 4, 17127}, {4, 18962, 4, 17065}},
/* 31 */ {5540, {6, 20442, 6, 18397}, {5, 20442, 5, 18397}, {4, 18927, 4, 17035}, {4, 18962, 4, 17065}, {4, 18893, 4, 17004}},
/* 32 */ {5560, {6, 20368, 6, 18331}, {5, 20368, 5, 18331}, {4, 18859, 4, 16973}, {4, 18893, 4, 17004}, {4, 18825, 4, 16943}},
/* 33 */ {5580, {6, 20295, 6, 18266}, {5, 20295, 5, 18266}, {4, 18792, 4, 16913}, {4, 18825, 4, 16943}, {4, 18758, 4, 16882}},
/* 34 */ {5600, {6, 20223, 6, 18200}, {5, 20223, 5, 18200}, {4, 18725, 4, 16852}, {4, 18758, 4, 16882}, {4, 18691, 4, 16822}},
/* 35 */ {5620, {6, 20151, 6, 18136}, {5, 20151, 5, 18136}, {4, 18658, 4, 16792}, {4, 18691, 4, 16822}, {4, 18625, 4, 16762}},
/* 36 */ {5640, {6, 20079, 6, 18071}, {5, 20079, 5, 18071}, {4, 18592, 4, 16733}, {4, 18625, 4, 16762}, {4, 18559, 4, 16703}},
/* 37 */ {5660, {6, 20008, 6, 18007}, {5, 20008, 5, 18007}, {4, 18526, 4, 16673}, {4, 18559, 4, 16703}, {4, 18493, 4, 16644}},
/* 38 */ {5680, {6, 19938, 6, 17944}, {5, 19938, 5, 17944}, {4, 18461, 4, 16615}, {4, 18493, 4, 16644}, {4, 18428, 4, 16586}},
/* 39 */ {5700, {6, 19868, 6, 17881}, {5, 19868, 5, 17881}, {4, 18396, 4, 16556}, {4, 18428, 4, 16586}, {4, 18364, 4, 16527}},
/* 40 */ {5745, {6, 19712, 6, 17741}, {5, 19712, 5, 17741}, {4, 18252, 4, 16427}, {4, 18284, 4, 16455}, {4, 18220, 4, 16398}},
/* 41 */ {5765, {6, 19644, 6, 17679}, {5, 19644, 5, 17679}, {4, 18189, 5, 32740}, {4, 18220, 4, 16398}, {4, 18157, 5, 32683}},
/* 42 */ {5785, {6, 19576, 6, 17618}, {5, 19576, 5, 17618}, {4, 18126, 5, 32626}, {4, 18157, 5, 32683}, {4, 18094, 5, 32570}},
/* 43 */ {5805, {6, 19508, 6, 17558}, {5, 19508, 5, 17558}, {4, 18063, 5, 32514}, {4, 18094, 5, 32570}, {4, 18032, 5, 32458}},
/* 44 */ {5825, {6, 19441, 6, 17497}, {5, 19441, 5, 17497}, {4, 18001, 5, 32402}, {4, 18032, 5, 32458}, {4, 17970, 5, 32347}},
/* 45 */ {5170, {6, 21904, 6, 19714}, {5, 21904, 5, 19714}, {4, 20282, 4, 18254}, {4, 20321, 4, 18289}, {4, 20243, 4, 18219}},
/* 46 */ {5190, {6, 21820, 6, 19638}, {5, 21820, 5, 19638}, {4, 20204, 4, 18183}, {4, 20243, 4, 18219}, {4, 20165, 4, 18148}},
/* 47 */ {5210, {6, 21736, 6, 19563}, {5, 21736, 5, 19563}, {4, 20126, 4, 18114}, {4, 20165, 4, 18148}, {4, 20088, 4, 18079}},
/* 48 */ {5230, {6, 21653, 6, 19488}, {5, 21653, 5, 19488}, {4, 20049, 4, 18044}, {4, 20088, 4, 18079}, {4, 20011, 4, 18010}}
};
/* to reduce search time, please modify this define if you add or delete channel in table */
#define First5GChannelIndex 14
void zfGetHwTurnOffdynParam(zdev_t* dev,
u32_t frequency, u8_t bw40, u8_t extOffset,
int* delta_slope_coeff_exp,
int* delta_slope_coeff_man,
int* delta_slope_coeff_exp_shgi,
int* delta_slope_coeff_man_shgi)
{
/* Get param for turnoffdyn */
u16_t i, arraySize;
//zmw_get_wlan_dev(dev);
arraySize = sizeof(zgPhyFreqCoeff)/sizeof(struct zsPhyFreqTable);
if (frequency < 3000)
{
/* 2.4GHz Channel */
for (i = 0; i < First5GChannelIndex; i++)
{
if (frequency == zgPhyFreqCoeff[i].frequency)
break;
}
if (i < First5GChannelIndex)
{
}
else
{
zm_msg1_scan(ZM_LV_0, "Unsupported 2.4G frequency = ", frequency);
return;
}
}
else
{
/* 5GHz Channel */
for (i = First5GChannelIndex; i < arraySize; i++)
{
if (frequency == zgPhyFreqCoeff[i].frequency)
break;
}
if (i < arraySize)
{
}
else
{
zm_msg1_scan(ZM_LV_0, "Unsupported 5G frequency = ", frequency);
return;
}
}
/* FPGA DYNAMIC_HT2040_EN fclk = 10.8 */
/* FPGA STATIC_HT20_ fclk = 21.6 */
/* Real Chip fclk = 40 */
#if ZM_FPGA_PHY == 1
//fclk = 10.8;
*delta_slope_coeff_exp = zgPhyFreqCoeff[i].FpgaDynamicHT.coeff_exp;
*delta_slope_coeff_man = zgPhyFreqCoeff[i].FpgaDynamicHT.coeff_man;
*delta_slope_coeff_exp_shgi = zgPhyFreqCoeff[i].FpgaDynamicHT.coeff_exp_shgi;
*delta_slope_coeff_man_shgi = zgPhyFreqCoeff[i].FpgaDynamicHT.coeff_man_shgi;
#else
//fclk = 40;
if (bw40)
{
/* ht2040 */
if (extOffset == 1) {
*delta_slope_coeff_exp = zgPhyFreqCoeff[i].Chip2040ExtAbove.coeff_exp;
*delta_slope_coeff_man = zgPhyFreqCoeff[i].Chip2040ExtAbove.coeff_man;
*delta_slope_coeff_exp_shgi = zgPhyFreqCoeff[i].Chip2040ExtAbove.coeff_exp_shgi;
*delta_slope_coeff_man_shgi = zgPhyFreqCoeff[i].Chip2040ExtAbove.coeff_man_shgi;
}
else {
*delta_slope_coeff_exp = zgPhyFreqCoeff[i].Chip2040Mhz.coeff_exp;
*delta_slope_coeff_man = zgPhyFreqCoeff[i].Chip2040Mhz.coeff_man;
*delta_slope_coeff_exp_shgi = zgPhyFreqCoeff[i].Chip2040Mhz.coeff_exp_shgi;
*delta_slope_coeff_man_shgi = zgPhyFreqCoeff[i].Chip2040Mhz.coeff_man_shgi;
}
}
else
{
/* static 20 */
*delta_slope_coeff_exp = zgPhyFreqCoeff[i].ChipST20Mhz.coeff_exp;
*delta_slope_coeff_man = zgPhyFreqCoeff[i].ChipST20Mhz.coeff_man;
*delta_slope_coeff_exp_shgi = zgPhyFreqCoeff[i].ChipST20Mhz.coeff_exp_shgi;
*delta_slope_coeff_man_shgi = zgPhyFreqCoeff[i].ChipST20Mhz.coeff_man_shgi;
}
#endif
}
/* Main routin frequency setting function */
/* If 2.4G/5G switch, PHY need resetting BB and RF for band switch */
/* Do the setting switch in zfSendFrequencyCmd() */
void zfHpSetFrequencyEx(zdev_t* dev, u32_t frequency, u8_t bw40,
u8_t extOffset, u8_t initRF)
{
u32_t cmd[9];
u16_t ret;
u8_t old_band;
u8_t new_band;
u32_t checkLoopCount;
u32_t tmpValue;
int delta_slope_coeff_exp;
int delta_slope_coeff_man;
int delta_slope_coeff_exp_shgi;
int delta_slope_coeff_man_shgi;
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
zm_msg1_scan(ZM_LV_1, "Frequency = ", frequency);
zm_msg1_scan(ZM_LV_1, "bw40 = ", bw40);
zm_msg1_scan(ZM_LV_1, "extOffset = ", extOffset);
if ( hpPriv->coldResetNeedFreq )
{
hpPriv->coldResetNeedFreq = 0;
initRF = 2;
zm_debug_msg0("zfHpSetFrequencyEx: Do ColdReset ");
}
if ( hpPriv->isSiteSurvey == 2 )
{
/* wait time for AGC and noise calibration : not in sitesurvey and connected */
checkLoopCount = 2000; /* 2000*100 = 200ms */
}
else
{
/* wait time for AGC and noise calibration : in sitesurvey */
checkLoopCount = 1000; /* 1000*100 = 100ms */
}
hpPriv->latestFrequency = frequency;
hpPriv->latestBw40 = bw40;
hpPriv->latestExtOffset = extOffset;
if ((hpPriv->dot11Mode == ZM_HAL_80211_MODE_IBSS_GENERAL) ||
(hpPriv->dot11Mode == ZM_HAL_80211_MODE_IBSS_WPA2PSK))
{
if ( frequency <= ZM_CH_G_14 )
{
/* workaround for 11g Ad Hoc beacon distribution */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC0_CW, 0x7f0007);
//zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_AC0_AIFS, 0x1c04901c);
}
}
/* AHB, DAC, ADC clock selection by static20/ht2040 */
zfSelAdcClk(dev, bw40, frequency);
/* clear bb_heavy_clip_enable */
reg_write(0x99e0, 0x200);
zfFlushDelayWrite(dev);
/* Set CTS/RTS rate */
if ( frequency > ZM_CH_G_14 )
{
//zfHpSetRTSCTSRate(dev, 0x10b010b); /* OFDM 6M */
new_band = 1;
}
else
{
//zfHpSetRTSCTSRate(dev, 0x30003); /* CCK 11M */
new_band = 0;
}
if (((struct zsHpPriv*)wd->hpPrivate)->hwFrequency > ZM_CH_G_14)
old_band = 1;
else
old_band = 0;
//Workaround for 2.4GHz only device
if ((hpPriv->OpFlags & 0x1) == 0)
{
if ((((struct zsHpPriv*)wd->hpPrivate)->hwFrequency == ZM_CH_G_1) && (frequency == ZM_CH_G_2))
{
/* Force to do band switching */
old_band = 1;
}
}
/* Notify channel switch to firmware */
/* TX/RX must be stopped by now */
cmd[0] = 0 | (ZM_CMD_FREQ_STRAT << 8);
ret = zfIssueCmd(dev, cmd, 8, ZM_OID_INTERNAL_WRITE, 0);
if ((initRF != 0) || (new_band != old_band)
|| (((struct zsHpPriv*)wd->hpPrivate)->hwBw40 != bw40))
{
/* band switch */
zm_msg0_scan(ZM_LV_1, "=====band switch=====");
if (initRF == 2 )
{
//Cold reset BB/ADDA
zfDelayWriteInternalReg(dev, 0x1d4004, 0x800);
zfFlushDelayWrite(dev);
zm_msg0_scan(ZM_LV_1, "Do cold reset BB/ADDA");
}
else
{
//Warm reset BB/ADDA
zfDelayWriteInternalReg(dev, 0x1d4004, 0x400);
zfFlushDelayWrite(dev);
}
/* reset workaround state to default */
hpPriv->rxStrongRSSI = 0;
hpPriv->strongRSSI = 0;
zfDelayWriteInternalReg(dev, 0x1d4004, 0x0);
zfFlushDelayWrite(dev);
zfInitPhy(dev, frequency, bw40);
// zfiCheckRifs(dev);
/* Bank 0 1 2 3 5 6 7 */
zfSetRfRegs(dev, frequency);
/* Bank 4 */
zfSetBank4AndPowerTable(dev, frequency, bw40, extOffset);
cmd[0] = 32 | (ZM_CMD_RF_INIT << 8);
}
else //((new_band == old_band) && !initRF)
{
/* same band */
/* Force disable CR671 bit20 / 7823 */
/* The bug has to do with the polarity of the pdadc offset calibration. There */
/* is an initial calibration that is OK, and there is a continuous */
/* calibration that updates the pddac with the wrong polarity. Fortunately */
/* the second loop can be disabled with a bit called en_pd_dc_offset_thr. */
#if 0
cmdB[0] = 8 | (ZM_CMD_BITAND << 8);;
cmdB[1] = (0xa27c + 0x1bc000);
cmdB[2] = 0xffefffff;
ret = zfIssueCmd(dev, cmdB, 12, ZM_OID_INTERNAL_WRITE, 0);
#endif
/* Bank 4 */
zfSetBank4AndPowerTable(dev, frequency, bw40, extOffset);
cmd[0] = 32 | (ZM_CMD_FREQUENCY << 8);
}
/* Compatibility for new layout UB83 */
/* Setting code at CR1 here move from the func:zfHwHTEnable() in firmware */
if (((struct zsHpPriv*)wd->hpPrivate)->halCapability & ZM_HP_CAP_11N_ONE_TX_STREAM)
{
/* UB83 : one stream */
tmpValue = 0;
}
else
{
/* UB81, UB82 : two stream */
tmpValue = 0x100;
}
if (1) //if (((struct zsHpPriv*)wd->hpPrivate)->hw_HT_ENABLE == 1)
{
if (bw40 == 1)
{
if (extOffset == 1) {
reg_write(0x9804, tmpValue | 0x2d4); //3d4 for real
}
else {
reg_write(0x9804, tmpValue | 0x2c4); //3c4 for real
}
//# Dyn HT2040.Refer to Reg 1.
//#[3]:single length (4us) 1st HT long training symbol; use Walsh spatial spreading for 2 chains 2 streams TX
//#[c]:allow short GI for HT40 packets; enable HT detection.
//#[4]:enable 20/40 MHz channel detection.
}
else
{
reg_write(0x9804, tmpValue | 0x240);
//# Static HT20
//#[3]:single length (4us) 1st HT long training symbol; use Walsh spatial spreading for 2 chains 2 streams TX
//#[4]:Otus don't allow short GI for HT20 packets yet; enable HT detection.
//#[0]:disable 20/40 MHz channel detection.
}
}
else
{
reg_write(0x9804, 0x0);
//# Legacy;# Direct Mapping for each chain.
//#Be modified by Oligo to add dynanic for legacy.
if (bw40 == 1)
{
reg_write(0x9804, 0x4); //# Dyn Legacy .Refer to reg 1.
}
else
{
reg_write(0x9804, 0x0); //# Static Legacy
}
}
zfFlushDelayWrite(dev);
/* end of ub83 compatibility */
/* Set Power, TPC, Gain table... */
zfSetPowerCalTable(dev, frequency, bw40, extOffset);
/* store frequency */
((struct zsHpPriv*)wd->hpPrivate)->hwFrequency = (u16_t)frequency;
((struct zsHpPriv*)wd->hpPrivate)->hwBw40 = bw40;
((struct zsHpPriv*)wd->hpPrivate)->hwExtOffset = extOffset;
zfGetHwTurnOffdynParam(dev,
frequency, bw40, extOffset,
&delta_slope_coeff_exp,
&delta_slope_coeff_man,
&delta_slope_coeff_exp_shgi,
&delta_slope_coeff_man_shgi);
/* related functions */
frequency = frequency*1000;
/* len[36] : type[0x30] : seq[?] */
// cmd[0] = 28 | (ZM_CMD_FREQUENCY << 8);
cmd[1] = frequency;
cmd[2] = bw40;//((struct zsHpPriv*)wd->hpPrivate)->hw_DYNAMIC_HT2040_EN;
cmd[3] = (extOffset<<2)|0x1;//((wd->ExtOffset << 2) | ((struct zsHpPriv*)wd->hpPrivate)->hw_HT_ENABLE);
cmd[4] = delta_slope_coeff_exp;
cmd[5] = delta_slope_coeff_man;
cmd[6] = delta_slope_coeff_exp_shgi;
cmd[7] = delta_slope_coeff_man_shgi;
cmd[8] = checkLoopCount;
ret = zfIssueCmd(dev, cmd, 36, ZM_CMD_SET_FREQUENCY, 0);
// delay temporarily, wait for new PHY and RF
//zfwSleep(dev, 1000);
}
/******************** Key ********************/
u16_t zfHpResetKeyCache(zdev_t* dev)
{
u8_t i;
u32_t key[4] = {0, 0, 0, 0};
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
for(i=0;i<4;i++)
{
zfHpSetDefaultKey(dev, i, ZM_WEP64, key, NULL);
}
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ROLL_CALL_TBL_L, 0x00);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ROLL_CALL_TBL_H, 0x00);
zfFlushDelayWrite(dev);
hpPriv->camRollCallTable = (u64_t) 0;
return 0;
}
/************************************************************************/
/* */
/* FUNCTION DESCRIPTION zfSetKey */
/* Set key. */
/* */
/* INPUTS */
/* dev : device pointer */
/* */
/* OUTPUTS */
/* 0 : success */
/* other : fail */
/* */
/* AUTHOR */
/* Stephen Chen ZyDAS Technology Corporation 2006.1 */
/* */
/************************************************************************/
/* ! please use zfCoreSetKey() in 80211Core for SetKey */
u32_t zfHpSetKey(zdev_t* dev, u8_t user, u8_t keyId, u8_t type,
u16_t* mac, u32_t* key)
{
u32_t cmd[(ZM_MAX_CMD_SIZE/4)];
u16_t ret;
u16_t i;
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
#if 0 /* remove to zfCoreSetKey() */
zmw_declare_for_critical_section();
zmw_enter_critical_section(dev);
wd->sta.flagKeyChanging++;
zm_debug_msg1(" zfHpSetKey++++ ", wd->sta.flagKeyChanging);
zmw_leave_critical_section(dev);
#endif
cmd[0] = 0x0000281C;
cmd[1] = ((u32_t)keyId<<16) + (u32_t)user;
cmd[2] = ((u32_t)mac[0]<<16) + (u32_t)type;
cmd[3] = ((u32_t)mac[2]<<16) + ((u32_t)mac[1]);
for (i=0; i<4; i++)
{
cmd[4+i] = key[i];
}
if (user < 64)
{
hpPriv->camRollCallTable |= ((u64_t) 1) << user;
}
//ret = zfIssueCmd(dev, cmd, 32, ZM_OID_INTERNAL_WRITE, NULL);
ret = zfIssueCmd(dev, cmd, 32, ZM_CMD_SET_KEY, NULL);
return ret;
}
u32_t zfHpSetApPairwiseKey(zdev_t* dev, u16_t* staMacAddr, u8_t type,
u32_t* key, u32_t* micKey, u16_t staAid)
{
if ((staAid!=0) && (staAid<64))
{
zfHpSetKey(dev, (staAid-1), 0, type, staMacAddr, key);
if ((type == ZM_TKIP)
#ifdef ZM_ENABLE_CENC
|| (type == ZM_CENC)
#endif //ZM_ENABLE_CENC
)
zfHpSetKey(dev, (staAid-1), 1, type, staMacAddr, micKey);
return 0;
}
return 1;
}
u32_t zfHpSetApGroupKey(zdev_t* dev, u16_t* apMacAddr, u8_t type,
u32_t* key, u32_t* micKey, u16_t vapId)
{
zfHpSetKey(dev, ZM_USER_KEY_DEFAULT - 1 - vapId, 0, type, apMacAddr, key); // 6D18 modify from 0 to 1 ??
if ((type == ZM_TKIP)
#ifdef ZM_ENABLE_CENC
|| (type == ZM_CENC)
#endif //ZM_ENABLE_CENC
)
zfHpSetKey(dev, ZM_USER_KEY_DEFAULT - 1 - vapId, 1, type, apMacAddr, micKey);
return 0;
}
u32_t zfHpSetDefaultKey(zdev_t* dev, u8_t keyId, u8_t type, u32_t* key, u32_t* micKey)
{
u16_t macAddr[3] = {0, 0, 0};
#ifdef ZM_ENABLE_IBSS_WPA2PSK
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
if ( hpPriv->dot11Mode == ZM_HAL_80211_MODE_IBSS_WPA2PSK )
{ /* If not wpa2psk , use traditional */
/* Because the bug of chip , defaultkey should follow the key map rule in register 700 */
if ( keyId == 0 )
zfHpSetKey(dev, ZM_USER_KEY_DEFAULT+keyId, 0, type, macAddr, key);
else
zfHpSetKey(dev, ZM_USER_KEY_DEFAULT+keyId, 1, type, macAddr, key);
}
else
zfHpSetKey(dev, ZM_USER_KEY_DEFAULT+keyId, 0, type, macAddr, key);
#else
zfHpSetKey(dev, ZM_USER_KEY_DEFAULT+keyId, 0, type, macAddr, key);
#endif
if ((type == ZM_TKIP)
#ifdef ZM_ENABLE_CENC
|| (type == ZM_CENC)
#endif //ZM_ENABLE_CENC
)
{
zfHpSetKey(dev, ZM_USER_KEY_DEFAULT+keyId, 1, type, macAddr, micKey);
}
return 0;
}
u32_t zfHpSetPerUserKey(zdev_t* dev, u8_t user, u8_t keyId, u8_t* mac, u8_t type, u32_t* key, u32_t* micKey)
{
#ifdef ZM_ENABLE_IBSS_WPA2PSK
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
if ( hpPriv->dot11Mode == ZM_HAL_80211_MODE_IBSS_WPA2PSK )
{ /* If not wpa2psk , use traditional */
if(keyId)
{ /* Set Group Key */
zfHpSetKey(dev, user, 1, type, (u16_t *)mac, key);
}
else if(keyId == 0)
{ /* Set Pairwise Key */
zfHpSetKey(dev, user, 0, type, (u16_t *)mac, key);
}
}
else
{
zfHpSetKey(dev, user, keyId, type, (u16_t *)mac, key);
}
#else
zfHpSetKey(dev, user, keyId, type, (u16_t *)mac, key);
#endif
if ((type == ZM_TKIP)
#ifdef ZM_ENABLE_CENC
|| (type == ZM_CENC)
#endif //ZM_ENABLE_CENC
)
{
zfHpSetKey(dev, user, keyId + 1, type, (u16_t *)mac, micKey);
}
return 0;
}
/************************************************************************/
/* */
/* FUNCTION DESCRIPTION zfHpRemoveKey */
/* Remove key. */
/* */
/* INPUTS */
/* dev : device pointer */
/* */
/* OUTPUTS */
/* 0 : success */
/* other : fail */
/* */
/* AUTHOR */
/* Yuan-Gu Wei ZyDAS Technology Corporation 2006.6 */
/* */
/************************************************************************/
u16_t zfHpRemoveKey(zdev_t* dev, u16_t user)
{
u32_t cmd[(ZM_MAX_CMD_SIZE/4)];
u16_t ret = 0;
cmd[0] = 0x00002904;
cmd[1] = (u32_t)user;
ret = zfIssueCmd(dev, cmd, 8, ZM_OID_INTERNAL_WRITE, NULL);
return ret;
}
/******************** DMA ********************/
u16_t zfHpStartRecv(zdev_t* dev)
{
zfDelayWriteInternalReg(dev, 0x1c3d30, 0x100);
zfFlushDelayWrite(dev);
return 0;
}
u16_t zfHpStopRecv(zdev_t* dev)
{
return 0;
}
/******************** MAC ********************/
void zfInitMac(zdev_t* dev)
{
/* ACK extension register */
// jhlee temp : change value 0x2c -> 0x40
// honda resolve short preamble problem : 0x40 -> 0x75
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ACK_EXTENSION, 0x40); // 0x28 -> 0x2c 6522:yflee
/* TxQ0/1/2/3 Retry MAX=2 => transmit 3 times and degrade rate for retry */
/* PB42 AP crash issue: */
/* Workaround the crash issue by CTS/RTS, set retry max to zero for */
/* workaround tx underrun which enable CTS/RTS */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_RETRY_MAX, 0); // 0x11111 => 0
/* use hardware MIC check */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_SNIFFER, 0x2000000);
/* Set Rx threshold to 1600 */
#if ZM_LARGEPAYLOAD_TEST == 1
zfDelayWriteInternalReg(dev, ZM_MAC_REG_RX_THRESHOLD, 0xc4000);
#else
#ifndef ZM_DISABLE_AMSDU8K_SUPPORT
/* The maximum A-MSDU length is 3839/7935 */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_RX_THRESHOLD, 0xc1f80);
#else
zfDelayWriteInternalReg(dev, ZM_MAC_REG_RX_THRESHOLD, 0xc0f80);
#endif
#endif
//zfDelayWriteInternalReg(dev, ZM_MAC_REG_DYNAMIC_SIFS_ACK, 0x10A);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_RX_PE_DELAY, 0x70);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_EIFS_AND_SIFS, 0xa144000);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_SLOT_TIME, 9<<10);
/* CF-END mode */
zfDelayWriteInternalReg(dev, 0x1c3b2c, 0x19000000);
//NAV protects ACK only (in TXOP)
zfDelayWriteInternalReg(dev, 0x1c3b38, 0x201);
/* Set Beacon PHY CTRL's TPC to 0x7, TA1=1 */
/* OTUS set AM to 0x1 */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_HT1, 0x8000170);
/* TODO : wep backoff protection 0x63c */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BACKOFF_PROTECT, 0x105);
/* AGG test code*/
/* Aggregation MAX number and timeout */
zfDelayWriteInternalReg(dev, 0x1c3b9c, 0x10000a);
/* Filter any control frames, BAR is bit 24 */
zfDelayWriteInternalReg(dev, 0x1c368c, 0x0500ffff);
/* Enable deaggregator */
zfDelayWriteInternalReg(dev, 0x1c3c40, 0x1);
/* Basic rate */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BASIC_RATE, 0x150f);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_MANDATORY_RATE, 0x150f);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_RTS_CTS_RATE, 0x10b01bb);
/* MIMO resposne control */
zfDelayWriteInternalReg(dev, 0x1c3694, 0x4003C1E);/* bit 26~28 otus-AM */
/* Enable LED0 and LED1 */
zfDelayWriteInternalReg(dev, 0x1d0100, 0x3);
zfDelayWriteInternalReg(dev, 0x1d0104, 0x3);
/* switch MAC to OTUS interface */
zfDelayWriteInternalReg(dev, 0x1c3600, 0x3);
/* RXMAC A-MPDU length threshold */
zfDelayWriteInternalReg(dev, 0x1c3c50, 0xffff);
/* Phy register read timeout */
zfDelayWriteInternalReg(dev, 0x1c3680, 0xf00008);
/* Disable Rx TimeOut : workaround for BB.
* OTUS would interrupt the rx frame that sent by OWL TxUnderRun
* because OTUS rx timeout behavior, then OTUS would not ack the BA for
* this AMPDU from OWL.
* Fix by Perry Hwang. 2007/05/10.
* 0x1c362c : Rx timeout value : bit 27~16
*/
zfDelayWriteInternalReg(dev, 0x1c362c, 0x0);
//Set USB Rx stream mode MAX packet number to 2
// Max packet number = *0x1e1110 + 1
zfDelayWriteInternalReg(dev, 0x1e1110, 0x4);
//Set USB Rx stream mode timeout to 10us
zfDelayWriteInternalReg(dev, 0x1e1114, 0x80);
//Set CPU clock frequency to 88/80MHz
zfDelayWriteInternalReg(dev, 0x1D4008, 0x73);
//Set WLAN DMA interrupt mode : generate int per packet
zfDelayWriteInternalReg(dev, 0x1c3d7c, 0x110011);
/* 7807 */
/* enable func : Reset FIFO1 and FIFO2 when queue-gnt is low */
/* 0x1c3bb0 Bit2 */
/* Disable SwReset in firmware for TxHang, enable reset FIFO func. */
zfDelayWriteInternalReg(dev, 0x1c3bb0, 0x4);
/* Disables the CF_END frame */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_TXOP_NOT_ENOUGH_INDICATION, 0x141E0F48);
/* Disable the SW Decrypt*/
zfDelayWriteInternalReg(dev, 0x1c3678, 0x70);
zfFlushDelayWrite(dev);
//---------------------
/* Set TxQs CWMIN, CWMAX, AIFS and TXO to WME STA default. */
zfUpdateDefaultQosParameter(dev, 0);
//zfSelAdcClk(dev, 0);
return;
}
u16_t zfHpSetSnifferMode(zdev_t* dev, u16_t on)
{
if (on != 0)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_SNIFFER, 0x2000001);
}
else
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_SNIFFER, 0x2000000);
}
zfFlushDelayWrite(dev);
return 0;
}
u16_t zfHpSetApStaMode(zdev_t* dev, u8_t mode)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
hpPriv->dot11Mode = mode;
switch(mode)
{
case ZM_HAL_80211_MODE_AP:
zfDelayWriteInternalReg(dev, 0x1c3700, 0x0f0000a1);
zfDelayWriteInternalReg(dev, 0x1c3c40, 0x1);
break;
case ZM_HAL_80211_MODE_STA:
zfDelayWriteInternalReg(dev, 0x1c3700, 0x0f000002);
zfDelayWriteInternalReg(dev, 0x1c3c40, 0x1);
break;
case ZM_HAL_80211_MODE_IBSS_GENERAL:
zfDelayWriteInternalReg(dev, 0x1c3700, 0x0f000000);
zfDelayWriteInternalReg(dev, 0x1c3c40, 0x1);
break;
case ZM_HAL_80211_MODE_IBSS_WPA2PSK:
zfDelayWriteInternalReg(dev, 0x1c3700, 0x0f0000e0);
zfDelayWriteInternalReg(dev, 0x1c3c40, 0x41); // for multiple ( > 2 ) stations IBSS network
break;
default:
goto skip;
}
zfFlushDelayWrite(dev);
skip:
return 0;
}
u16_t zfHpSetBssid(zdev_t* dev, u8_t* bssidSrc)
{
u32_t address;
u16_t *bssid = (u16_t *)bssidSrc;
address = bssid[0] + (((u32_t)bssid[1]) << 16);
zfDelayWriteInternalReg(dev, 0x1c3618, address);
address = (u32_t)bssid[2];
zfDelayWriteInternalReg(dev, 0x1c361C, address);
zfFlushDelayWrite(dev);
return 0;
}
/************************************************************************/
/* */
/* FUNCTION DESCRIPTION zfHpUpdateQosParameter */
/* Update TxQs CWMIN, CWMAX, AIFS and TXOP. */
/* */
/* INPUTS */
/* dev : device pointer */
/* cwminTbl : CWMIN parameter for TxQs */
/* cwmaxTbl : CWMAX parameter for TxQs */
/* aifsTbl: AIFS parameter for TxQs */
/* txopTbl : TXOP parameter for TxQs */
/* */
/* OUTPUTS */
/* none */
/* */
/* AUTHOR */
/* Stephen ZyDAS Technology Corporation 2006.6 */
/* */
/************************************************************************/
u8_t zfHpUpdateQosParameter(zdev_t* dev, u16_t* cwminTbl, u16_t* cwmaxTbl,
u16_t* aifsTbl, u16_t* txopTbl)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
zm_msg0_mm(ZM_LV_0, "zfHalUpdateQosParameter()");
/* Note : Do not change cwmin for Q0 in Ad Hoc mode */
/* otherwise driver will fail in Wifi beacon distribution */
if (hpPriv->dot11Mode == ZM_HAL_80211_MODE_STA)
{
#if 0 //Restore CWmin to improve down link throughput
//cheating in BE traffic
if (wd->sta.EnableHT == 1)
{
//cheating in BE traffic
cwminTbl[0] = 7;//15;
}
#endif
cwmaxTbl[0] = 127;//1023;
aifsTbl[0] = 2*9+10;//3 * 9 + 10;
}
/* CWMIN and CWMAX */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC0_CW, cwminTbl[0]
+ ((u32_t)cwmaxTbl[0]<<16));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_CW, cwminTbl[1]
+ ((u32_t)cwmaxTbl[1]<<16));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC2_CW, cwminTbl[2]
+ ((u32_t)cwmaxTbl[2]<<16));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC3_CW, cwminTbl[3]
+ ((u32_t)cwmaxTbl[3]<<16));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC4_CW, cwminTbl[4]
+ ((u32_t)cwmaxTbl[4]<<16));
/* AIFS */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_AC0_AIFS, aifsTbl[0]
+((u32_t)aifsTbl[0]<<12)+((u32_t)aifsTbl[0]<<24));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC3_AC2_AIFS, (aifsTbl[0]>>8)
+((u32_t)aifsTbl[0]<<4)+((u32_t)aifsTbl[0]<<16));
/* TXOP */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_AC0_TXOP, txopTbl[0]
+ ((u32_t)txopTbl[1]<<16));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC3_AC2_TXOP, txopTbl[2]
+ ((u32_t)txopTbl[3]<<16));
zfFlushDelayWrite(dev);
hpPriv->txop[0] = txopTbl[0];
hpPriv->txop[1] = txopTbl[1];
hpPriv->txop[2] = txopTbl[2];
hpPriv->txop[3] = txopTbl[3];
hpPriv->cwmin[0] = cwminTbl[0];
hpPriv->cwmax[0] = cwmaxTbl[0];
hpPriv->cwmin[1] = cwminTbl[1];
hpPriv->cwmax[1] = cwmaxTbl[1];
return 0;
}
void zfHpSetAtimWindow(zdev_t* dev, u16_t atimWin)
{
zm_msg1_mm(ZM_LV_0, "Set ATIM window to ", atimWin);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ATIM_WINDOW, atimWin);
zfFlushDelayWrite(dev);
}
void zfHpSetBasicRateSet(zdev_t* dev, u16_t bRateBasic, u16_t gRateBasic)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BASIC_RATE, bRateBasic
| ((u16_t)gRateBasic<<8));
zfFlushDelayWrite(dev);
}
/* HT40 send by OFDM 6M */
/* otherwise use reg 0x638 */
void zfHpSetRTSCTSRate(zdev_t* dev, u32_t rate)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_RTS_CTS_RATE, rate);
zfFlushDelayWrite(dev);
}
void zfHpSetMacAddress(zdev_t* dev, u16_t* macAddr, u16_t macAddrId)
{
if (macAddrId == 0)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_MAC_ADDR_L,
(((u32_t)macAddr[1])<<16) | macAddr[0]);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_MAC_ADDR_H, macAddr[2]);
}
else if (macAddrId <= 7)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ACK_TABLE+((macAddrId-1)*8),
macAddr[0] + ((u32_t)macAddr[1]<<16));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ACK_TABLE+((macAddrId-1)*8)+4,
macAddr[2]);
}
zfFlushDelayWrite(dev);
}
void zfHpSetMulticastList(zdev_t* dev, u8_t size, u8_t* pList, u8_t bAllMulticast)
{
struct zsMulticastAddr* pMacList = (struct zsMulticastAddr*) pList;
u8_t i;
u32_t value;
u32_t swRegMulHashValueH, swRegMulHashValueL;
swRegMulHashValueH = 0x80000000;
swRegMulHashValueL = 0;
if ( bAllMulticast )
{
swRegMulHashValueH = swRegMulHashValueL = ~0;
}
else
{
for(i=0; i<size; i++)
{
value = pMacList[i].addr[5] >> 2;
if ( value < 32 )
{
swRegMulHashValueL |= (1 << value);
}
else
{
swRegMulHashValueH |= (1 << (value-32));
}
}
}
zfDelayWriteInternalReg(dev, ZM_MAC_REG_GROUP_HASH_TBL_L,
swRegMulHashValueL);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_GROUP_HASH_TBL_H,
swRegMulHashValueH);
zfFlushDelayWrite(dev);
return;
}
/******************** Beacon ********************/
void zfHpEnableBeacon(zdev_t* dev, u16_t mode, u16_t bcnInterval, u16_t dtim, u8_t enableAtim)
{
u32_t value;
zmw_get_wlan_dev(dev);
/* Beacon Ready */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_CTRL, 0);
/* Beacon DMA buffer address */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_ADDR, ZM_BEACON_BUFFER_ADDRESS);
value = bcnInterval;
value |= (((u32_t) dtim) << 16);
if (mode == ZM_MODE_AP)
{
value |= 0x1000000;
}
else if (mode == ZM_MODE_IBSS)
{
value |= 0x2000000;
if ( enableAtim )
{
value |= 0x4000000;
}
((struct zsHpPriv*)wd->hpPrivate)->ibssBcnEnabled = 1;
((struct zsHpPriv*)wd->hpPrivate)->ibssBcnInterval = value;
}
zfDelayWriteInternalReg(dev, ZM_MAC_REG_PRETBTT, (bcnInterval-6)<<16);
/* Beacon period and beacon enable */
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_PERIOD, value);
zfFlushDelayWrite(dev);
}
void zfHpDisableBeacon(zdev_t* dev)
{
zmw_get_wlan_dev(dev);
((struct zsHpPriv*)wd->hpPrivate)->ibssBcnEnabled = 0;
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_PERIOD, 0);
zfFlushDelayWrite(dev);
}
void zfHpLedCtrl(zdev_t* dev, u16_t ledId, u8_t mode)
{
u16_t state;
zmw_get_wlan_dev(dev);
//zm_debug_msg1("LED ID=", ledId);
//zm_debug_msg1("LED mode=", mode);
if (ledId < 2)
{
if (((struct zsHpPriv*)wd->hpPrivate)->ledMode[ledId] != mode)
{
((struct zsHpPriv*)wd->hpPrivate)->ledMode[ledId] = mode;
state = ((struct zsHpPriv*)wd->hpPrivate)->ledMode[0]
| (((struct zsHpPriv*)wd->hpPrivate)->ledMode[1]<<1);
zfDelayWriteInternalReg(dev, 0x1d0104, state);
zfFlushDelayWrite(dev);
//zm_debug_msg0("Update LED");
}
}
}
/************************************************************************/
/* */
/* FUNCTION DESCRIPTION zfHpResetTxRx */
/* Reset Tx and Rx Desc. */
/* */
/* INPUTS */
/* dev : device pointer */
/* */
/* OUTPUTS */
/* 0 : success */
/* other : fail */
/* */
/* AUTHOR */
/* Chao-Wen Yang ZyDAS Technology Corporation 2007.3 */
/* */
/************************************************************************/
u16_t zfHpUsbReset(zdev_t* dev)
{
u32_t cmd[(ZM_MAX_CMD_SIZE/4)];
u16_t ret = 0;
//zm_debug_msg0("CWY - Reset Tx and Rx");
cmd[0] = 0 | (ZM_CMD_RESET << 8);
ret = zfIssueCmd(dev, cmd, 4, ZM_OID_INTERNAL_WRITE, NULL);
return ret;
}
u16_t zfHpDKReset(zdev_t* dev, u8_t flag)
{
u32_t cmd[(ZM_MAX_CMD_SIZE/4)];
u16_t ret = 0;
//zm_debug_msg0("CWY - Reset Tx and Rx");
cmd[0] = 4 | (ZM_CMD_DKRESET << 8);
cmd[1] = flag;
ret = zfIssueCmd(dev, cmd, 8, ZM_OID_INTERNAL_WRITE, NULL);
return ret;
}
u32_t zfHpCwmUpdate(zdev_t* dev)
{
//u32_t cmd[3];
//u16_t ret;
//
//cmd[0] = 0x00000008;
//cmd[1] = 0x1c36e8;
//cmd[2] = 0x1c36ec;
//
//ret = zfIssueCmd(dev, cmd, 12, ZM_CWM_READ, 0);
//return ret;
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
zfCoreCwmBusy(dev, zfCwmIsExtChanBusy(hpPriv->ctlBusy, hpPriv->extBusy));
hpPriv->ctlBusy = 0;
hpPriv->extBusy = 0;
return 0;
}
u32_t zfHpAniUpdate(zdev_t* dev)
{
u32_t cmd[5];
u16_t ret;
cmd[0] = 0x00000010;
cmd[1] = 0x1c36e8;
cmd[2] = 0x1c36ec;
cmd[3] = 0x1c3cb4;
cmd[4] = 0x1c3cb8;
ret = zfIssueCmd(dev, cmd, 20, ZM_ANI_READ, 0);
return ret;
}
/*
* Update Beacon RSSI in ANI
*/
u32_t zfHpAniUpdateRssi(zdev_t* dev, u8_t rssi)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
hpPriv->stats.ast_nodestats.ns_avgbrssi = rssi;
return 0;
}
#define ZM_SEEPROM_MAC_ADDRESS_OFFSET (0x1400 + (0x106<<1))
#define ZM_SEEPROM_REGDOMAIN_OFFSET (0x1400 + (0x104<<1))
#define ZM_SEEPROM_VERISON_OFFSET (0x1400 + (0x102<<1))
#define ZM_SEEPROM_HARDWARE_TYPE_OFFSET (0x1374)
#define ZM_SEEPROM_HW_HEAVY_CLIP (0x161c)
u32_t zfHpGetMacAddress(zdev_t* dev)
{
u32_t cmd[7];
u16_t ret;
cmd[0] = 0x00000000 | 24;
cmd[1] = ZM_SEEPROM_MAC_ADDRESS_OFFSET;
cmd[2] = ZM_SEEPROM_MAC_ADDRESS_OFFSET+4;
cmd[3] = ZM_SEEPROM_REGDOMAIN_OFFSET;
cmd[4] = ZM_SEEPROM_VERISON_OFFSET;
cmd[5] = ZM_SEEPROM_HARDWARE_TYPE_OFFSET;
cmd[6] = ZM_SEEPROM_HW_HEAVY_CLIP;
ret = zfIssueCmd(dev, cmd, 28, ZM_MAC_READ, 0);
return ret;
}
u32_t zfHpGetTransmitPower(zdev_t* dev)
{
struct zsHpPriv* hpPriv;
u16_t tpc = 0;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
if (hpPriv->hwFrequency < 3000) {
tpc = hpPriv->tPow2x2g[0] & 0x3f;
wd->maxTxPower2 &= 0x3f;
tpc = (tpc > wd->maxTxPower2)? wd->maxTxPower2 : tpc;
} else {
tpc = hpPriv->tPow2x5g[0] & 0x3f;
wd->maxTxPower5 &= 0x3f;
tpc = (tpc > wd->maxTxPower5)? wd->maxTxPower5 : tpc;
}
return tpc;
}
u8_t zfHpGetMinTxPower(zdev_t* dev)
{
struct zsHpPriv* hpPriv;
u8_t tpc = 0;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
if (hpPriv->hwFrequency < 3000)
{
if(wd->BandWidth40)
{
//40M
tpc = (hpPriv->tPow2x2gHt40[7]&0x3f);
}
else
{
//20M
tpc = (hpPriv->tPow2x2gHt20[7]&0x3f);
}
}
else
{
if(wd->BandWidth40)
{
//40M
tpc = (hpPriv->tPow2x5gHt40[7]&0x3f);
}
else
{
//20M
tpc = (hpPriv->tPow2x5gHt20[7]&0x3f);
}
}
return tpc;
}
u8_t zfHpGetMaxTxPower(zdev_t* dev)
{
struct zsHpPriv* hpPriv;
u8_t tpc = 0;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
if (hpPriv->hwFrequency < 3000)
{
tpc = (hpPriv->tPow2xCck[0]&0x3f);
}
else
{
tpc =(hpPriv->tPow2x5g[0]&0x3f);
}
return tpc;
}
u32_t zfHpLoadEEPROMFromFW(zdev_t* dev)
{
u32_t cmd[16];
u32_t ret=0, i, j;
zmw_get_wlan_dev(dev);
i = ((struct zsHpPriv*)wd->hpPrivate)->eepromImageRdReq;
cmd[0] = ZM_HAL_MAX_EEPROM_PRQ*4;
for (j=0; j<ZM_HAL_MAX_EEPROM_PRQ; j++)
{
cmd[j+1] = 0x1000 + (((i*ZM_HAL_MAX_EEPROM_PRQ) + j)*4);
}
ret = zfIssueCmd(dev, cmd, (ZM_HAL_MAX_EEPROM_PRQ+1)*4, ZM_EEPROM_READ, 0);
return ret;
}
void zfHpHeartBeat(zdev_t* dev)
{
struct zsHpPriv* hpPriv;
u8_t polluted = 0;
u8_t ackTpc;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
/* Workaround : Make OTUS fire more beacon in ad hoc mode in 2.4GHz */
if (hpPriv->ibssBcnEnabled != 0)
{
if (hpPriv->hwFrequency <= ZM_CH_G_14)
{
if ((wd->tick % 10) == 0)
{
if ((wd->tick % 40) == 0)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_PERIOD, hpPriv->ibssBcnInterval-1);
polluted = 1;
}
else
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_PERIOD, hpPriv->ibssBcnInterval);
polluted = 1;
}
}
}
}
if ((wd->tick & 0x3f) == 0x25)
{
/* Workaround for beacon stuck after SW reset */
if (hpPriv->ibssBcnEnabled != 0)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_ADDR, ZM_BEACON_BUFFER_ADDRESS);
polluted = 1;
}
//DbgPrint("hpPriv->aggMaxDurationBE=%d", hpPriv->aggMaxDurationBE);
//DbgPrint("wd->sta.avgSizeOfReceivePackets=%d", wd->sta.avgSizeOfReceivePackets);
if (( wd->wlanMode == ZM_MODE_INFRASTRUCTURE )
&& (zfStaIsConnected(dev))
&& (wd->sta.EnableHT == 1) //11n mode
&& (wd->BandWidth40 == 1) //40MHz mode
&& (wd->sta.enableDrvBA ==0) //Marvel AP
&& (hpPriv->aggMaxDurationBE > 2000) //BE TXOP > 2ms
&& (wd->sta.avgSizeOfReceivePackets > 1420))
{
zfDelayWriteInternalReg(dev, 0x1c3b9c, 0x8000a);
polluted = 1;
}
else
{
zfDelayWriteInternalReg(dev, 0x1c3b9c, hpPriv->aggPktNum);
polluted = 1;
}
if (wd->dynamicSIFSEnable == 0)
{
if (( wd->wlanMode == ZM_MODE_INFRASTRUCTURE )
&& (zfStaIsConnected(dev))
&& (wd->sta.EnableHT == 1) //11n mode
&& (wd->BandWidth40 == 0) //20MHz mode
&& (wd->sta.enableDrvBA ==0)) //Marvel AP
{
zfDelayWriteInternalReg(dev, 0x1c3698, 0x5144000);
polluted = 1;
}
else
{
zfDelayWriteInternalReg(dev, 0x1c3698, 0xA144000);
polluted = 1;
}
}
else
{
if (( wd->wlanMode == ZM_MODE_INFRASTRUCTURE )
&& (zfStaIsConnected(dev))
&& (wd->sta.EnableHT == 1) //11n mode
&& (wd->sta.athOwlAp == 1)) //Atheros AP
{
if (hpPriv->retransmissionEvent)
{
switch(hpPriv->latestSIFS)
{
case 0:
hpPriv->latestSIFS = 1;
zfDelayWriteInternalReg(dev, ZM_MAC_REG_EIFS_AND_SIFS, 0x8144000);
break;
case 1:
hpPriv->latestSIFS = 2;
zfDelayWriteInternalReg(dev, ZM_MAC_REG_EIFS_AND_SIFS, 0xa144000);
break;
case 2:
hpPriv->latestSIFS = 3;
zfDelayWriteInternalReg(dev, ZM_MAC_REG_EIFS_AND_SIFS, 0xc144000);
break;
case 3:
hpPriv->latestSIFS = 0;
zfDelayWriteInternalReg(dev, ZM_MAC_REG_EIFS_AND_SIFS, 0xa144000);
break;
default:
hpPriv->latestSIFS = 0;
zfDelayWriteInternalReg(dev, ZM_MAC_REG_EIFS_AND_SIFS, 0xa144000);
break;
}
polluted = 1;
zm_debug_msg1("##### Correct Tx retransmission issue #####, ", hpPriv->latestSIFS);
hpPriv->retransmissionEvent = 0;
}
}
else
{
hpPriv->latestSIFS = 0;
hpPriv->retransmissionEvent = 0;
zfDelayWriteInternalReg(dev, 0x1c3698, 0xA144000);
polluted = 1;
}
}
if ((wd->sta.bScheduleScan == FALSE) && (wd->sta.bChannelScan == FALSE))
{
#define ZM_SIGNAL_THRESHOLD 66
if (( wd->wlanMode == ZM_MODE_INFRASTRUCTURE )
&& (zfStaIsConnected(dev))
&& (wd->SignalStrength > ZM_SIGNAL_THRESHOLD))
{
/* remove state handle, always rewrite register setting */
//if (hpPriv->strongRSSI == 0)
{
hpPriv->strongRSSI = 1;
/* Strong RSSI, set ACK to one Tx stream and lower Tx power 7dbm */
if (hpPriv->currentAckRtsTpc > (14+10))
{
ackTpc = hpPriv->currentAckRtsTpc - 14;
}
else
{
ackTpc = 10;
}
zfDelayWriteInternalReg(dev, 0x1c3694, ((ackTpc) << 20) | (0x1<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((ackTpc) << 5 ) | (0x1<<11) |
((ackTpc) << 21) | (0x1<<27) );
polluted = 1;
}
}
else
{
/* remove state handle, always rewrite register setting */
//if (hpPriv->strongRSSI == 1)
{
hpPriv->strongRSSI = 0;
if (hpPriv->halCapability & ZM_HP_CAP_11N_ONE_TX_STREAM)
{
zfDelayWriteInternalReg(dev, 0x1c3694, ((hpPriv->currentAckRtsTpc&0x3f) << 20) | (0x1<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((hpPriv->currentAckRtsTpc&0x3f) << 5 ) | (0x1<<11) |
((hpPriv->currentAckRtsTpc&0x3f) << 21) | (0x1<<27) );
}
else
{
zfDelayWriteInternalReg(dev, 0x1c3694, ((hpPriv->currentAckRtsTpc&0x3f) << 20) | (0x5<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((hpPriv->currentAckRtsTpc&0x3f) << 5 ) | (0x5<<11) |
((hpPriv->currentAckRtsTpc&0x3f) << 21) | (0x5<<27) );
}
polluted = 1;
}
}
#undef ZM_SIGNAL_THRESHOLD
}
if ((hpPriv->halCapability & ZM_HP_CAP_11N_ONE_TX_STREAM) == 0)
{
if ((wd->sta.bScheduleScan == FALSE) && (wd->sta.bChannelScan == FALSE))
{
#define ZM_RX_SIGNAL_THRESHOLD_H 71
#define ZM_RX_SIGNAL_THRESHOLD_L 66
u8_t rxSignalThresholdH = ZM_RX_SIGNAL_THRESHOLD_H;
u8_t rxSignalThresholdL = ZM_RX_SIGNAL_THRESHOLD_L;
#undef ZM_RX_SIGNAL_THRESHOLD_H
#undef ZM_RX_SIGNAL_THRESHOLD_L
if (( wd->wlanMode == ZM_MODE_INFRASTRUCTURE )
&& (zfStaIsConnected(dev))
&& (wd->SignalStrength > rxSignalThresholdH)
)//&& (hpPriv->rxStrongRSSI == 0))
{
hpPriv->rxStrongRSSI = 1;
//zfDelayWriteInternalReg(dev, 0x1c5964, 0x1220);
//zfDelayWriteInternalReg(dev, 0x1c5960, 0x900);
//zfDelayWriteInternalReg(dev, 0x1c6960, 0x900);
//zfDelayWriteInternalReg(dev, 0x1c7960, 0x900);
if ((hpPriv->eepromImage[0x100+0x110*2/4]&0xff) == 0x80) //FEM TYPE
{
if (hpPriv->hwFrequency <= ZM_CH_G_14)
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x900);
}
else
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x9b49);
}
}
else
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x0900);
}
polluted = 1;
}
else if (( wd->wlanMode == ZM_MODE_INFRASTRUCTURE )
&& (zfStaIsConnected(dev))
&& (wd->SignalStrength > rxSignalThresholdL)
)//&& (hpPriv->rxStrongRSSI == 1))
{
//Do nothing to prevent frequently Rx switching
}
else
{
/* remove state handle, always rewrite register setting */
//if (hpPriv->rxStrongRSSI == 1)
{
hpPriv->rxStrongRSSI = 0;
//zfDelayWriteInternalReg(dev, 0x1c5964, 0x1120);
//zfDelayWriteInternalReg(dev, 0x1c5960, 0x9b40);
//zfDelayWriteInternalReg(dev, 0x1c6960, 0x9b40);
//zfDelayWriteInternalReg(dev, 0x1c7960, 0x9b40);
if ((hpPriv->eepromImage[0x100+0x110*2/4]&0xff) == 0x80) //FEM TYPE
{
if (hpPriv->hwFrequency <= ZM_CH_G_14)
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x9b49);
}
else
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x0900);
}
}
else
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x9b40);
}
polluted = 1;
}
}
}
}
if (hpPriv->usbAcSendBytes[3] > (hpPriv->usbAcSendBytes[0]*2))
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_AC0_TXOP, hpPriv->txop[3]);
polluted = 1;
}
else if (hpPriv->usbAcSendBytes[2] > (hpPriv->usbAcSendBytes[0]*2))
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_AC0_TXOP, hpPriv->txop[2]);
polluted = 1;
}
else if (hpPriv->usbAcSendBytes[1] > (hpPriv->usbAcSendBytes[0]*2))
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC0_CW, hpPriv->cwmin[1]+((u32_t)hpPriv->cwmax[1]<<16));
polluted = 1;
}
else
{
if (hpPriv->slotType == 1)
{
if ((wd->sta.enableDrvBA ==0) //Marvel AP
&& (hpPriv->aggMaxDurationBE > 2000)) //BE TXOP > 2ms
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC0_CW, (hpPriv->cwmin[0]/2)+((u32_t)hpPriv->cwmax[0]<<16));
}
else
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC0_CW, hpPriv->cwmin[0]+((u32_t)hpPriv->cwmax[0]<<16));
}
polluted = 1;
}
else
{
/* Compensation for 20us slot time */
//zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC0_CW, 58+((u32_t)hpPriv->cwmax[0]<<16));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC0_CW, hpPriv->cwmin[0]+((u32_t)hpPriv->cwmax[0]<<16));
polluted = 1;
}
if ((wd->sta.SWEncryptEnable & (ZM_SW_TKIP_ENCRY_EN|ZM_SW_WEP_ENCRY_EN)) == 0)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_AC0_TXOP, hpPriv->txop[0]);
polluted = 1;
}
else
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_AC1_AC0_TXOP, 0x30);
polluted = 1;
}
}
hpPriv->usbAcSendBytes[3] = 0;
hpPriv->usbAcSendBytes[2] = 0;
hpPriv->usbAcSendBytes[1] = 0;
hpPriv->usbAcSendBytes[0] = 0;
}
if (polluted == 1)
{
zfFlushDelayWrite(dev);
}
return;
}
/*
* 0x1d4008 : AHB, DAC, ADC clock selection
* bit1~0 AHB_CLK : AHB clock selection,
* 00 : OSC 40MHz;
* 01 : 20MHz in A mode, 22MHz in G mode;
* 10 : 40MHz in A mode, 44MHz in G mode;
* 11 : 80MHz in A mode, 88MHz in G mode.
* bit3~2 CLK_SEL : Select the clock source of clk160 in ADDAC.
* 00 : PLL divider's output;
* 01 : PLL divider's output divided by 2;
* 10 : PLL divider's output divided by 4;
* 11 : REFCLK from XTALOSCPAD.
*/
void zfSelAdcClk(zdev_t* dev, u8_t bw40, u32_t frequency)
{
if(bw40 == 1)
{
//zfDelayWriteInternalReg(dev, 0x1D4008, 0x73);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_DYNAMIC_SIFS_ACK, 0x10A);
zfFlushDelayWrite(dev);
}
else
{
//zfDelayWriteInternalReg(dev, 0x1D4008, 0x70);
if ( frequency <= ZM_CH_G_14 )
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_DYNAMIC_SIFS_ACK, 0x105);
}
else
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_DYNAMIC_SIFS_ACK, 0x104);
}
zfFlushDelayWrite(dev);
}
}
u32_t zfHpEchoCommand(zdev_t* dev, u32_t value)
{
u32_t cmd[2];
u16_t ret;
cmd[0] = 0x00008004;
cmd[1] = value;
ret = zfIssueCmd(dev, cmd, 8, ZM_CMD_ECHO, NULL);
return ret;
}
#ifdef ZM_DRV_INIT_USB_MODE
#define ZM_USB_US_STREAM_MODE 0x00000000
#define ZM_USB_US_PACKET_MODE 0x00000008
#define ZM_USB_DS_ENABLE 0x00000001
#define ZM_USB_US_ENABLE 0x00000002
#define ZM_USB_RX_STREAM_4K 0x00000000
#define ZM_USB_RX_STREAM_8K 0x00000010
#define ZM_USB_RX_STREAM_16K 0x00000020
#define ZM_USB_RX_STREAM_32K 0x00000030
#define ZM_USB_TX_STREAM_MODE 0x00000040
#define ZM_USB_MODE_CTRL_REG 0x001E1108
void zfInitUsbMode(zdev_t* dev)
{
u32_t mode;
zmw_get_wlan_dev(dev);
/* TODO: Set USB mode by reading registery */
mode = ZM_USB_DS_ENABLE | ZM_USB_US_ENABLE | ZM_USB_US_PACKET_MODE;
zfDelayWriteInternalReg(dev, ZM_USB_MODE_CTRL_REG, mode);
zfFlushDelayWrite(dev);
}
#endif
void zfDumpEepBandEdges(struct ar5416Eeprom* eepromImage);
void zfPrintTargetPower2G(u8_t* tPow2xCck, u8_t* tPow2x2g, u8_t* tPow2x2gHt20, u8_t* tPow2x2gHt40);
void zfPrintTargetPower5G(u8_t* tPow2x5g, u8_t* tPow2x5gHt20, u8_t* tPow2x5gHt40);
s32_t zfInterpolateFunc(s32_t x, s32_t x1, s32_t y1, s32_t x2, s32_t y2)
{
s32_t y;
if (y2 == y1)
{
y = y1;
}
else if (x == x1)
{
y = y1;
}
else if (x == x2)
{
y = y2;
}
else if (x2 != x1)
{
y = y1 + (((y2-y1) * (x-x1))/(x2-x1));
}
else
{
y = y1;
}
return y;
}
//#define ZM_ENABLE_TPC_WINDOWS_DEBUG
//#define ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
/* the tx power offset workaround for ART vs NDIS/MDK */
#define HALTX_POWER_OFFSET 0
u8_t zfInterpolateFuncX(u8_t x, u8_t x1, u8_t y1, u8_t x2, u8_t y2)
{
s32_t y;
s32_t inc;
#define ZM_MULTIPLIER 8
y = zfInterpolateFunc((s32_t)x<<ZM_MULTIPLIER,
(s32_t)x1<<ZM_MULTIPLIER,
(s32_t)y1<<ZM_MULTIPLIER,
(s32_t)x2<<ZM_MULTIPLIER,
(s32_t)y2<<ZM_MULTIPLIER);
inc = (y & (1<<(ZM_MULTIPLIER-1))) >> (ZM_MULTIPLIER-1);
y = (y >> ZM_MULTIPLIER) + inc;
#undef ZM_MULTIPLIER
return (u8_t)y;
}
u8_t zfGetInterpolatedValue(u8_t x, u8_t* x_array, u8_t* y_array)
{
s32_t y;
u16_t xIndex;
if (x <= x_array[1])
{
xIndex = 0;
}
else if (x <= x_array[2])
{
xIndex = 1;
}
else if (x <= x_array[3])
{
xIndex = 2;
}
else //(x > x_array[3])
{
xIndex = 3;
}
y = zfInterpolateFuncX(x,
x_array[xIndex],
y_array[xIndex],
x_array[xIndex+1],
y_array[xIndex+1]);
return (u8_t)y;
}
u8_t zfFindFreqIndex(u8_t f, u8_t* fArray, u8_t fArraySize)
{
u8_t i;
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("f=%d ", f);
for (i=0; i<fArraySize; i++)
{
DbgPrint("%d ", fArray[i]);
}
DbgPrint("\n");
#endif
i=fArraySize-2;
while(1)
{
if (f >= fArray[i])
{
return i;
}
if (i!=0)
{
i--;
}
else
{
return 0;
}
}
}
void zfInitPowerCal(zdev_t* dev)
{
//Program PHY Tx power relatives registers
#define zm_write_phy_reg(cr, val) reg_write((cr*4)+0x9800, val)
zm_write_phy_reg(79, 0x7f);
zm_write_phy_reg(77, 0x3f3f3f3f);
zm_write_phy_reg(78, 0x3f3f3f3f);
zm_write_phy_reg(653, 0x3f3f3f3f);
zm_write_phy_reg(654, 0x3f3f3f3f);
zm_write_phy_reg(739, 0x3f3f3f3f);
zm_write_phy_reg(740, 0x3f3f3f3f);
zm_write_phy_reg(755, 0x3f3f3f3f);
zm_write_phy_reg(756, 0x3f3f3f3f);
zm_write_phy_reg(757, 0x3f3f3f3f);
#undef zm_write_phy_reg
}
void zfPrintTp(u8_t* pwr0, u8_t* vpd0, u8_t* pwr1, u8_t* vpd1)
{
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("pwr0 : %d, %d, %d, %d ,%d\n", pwr0[0], pwr0[1], pwr0[2], pwr0[3], pwr0[4]);
DbgPrint("vpd0 : %d, %d, %d, %d ,%d\n", vpd0[0], vpd0[1], vpd0[2], vpd0[3], vpd0[4]);
DbgPrint("pwr1 : %d, %d, %d, %d ,%d\n", pwr1[0], pwr1[1], pwr1[2], pwr1[3], pwr1[4]);
DbgPrint("vpd1 : %d, %d, %d, %d ,%d\n", vpd1[0], vpd1[1], vpd1[2], vpd1[3], vpd1[4]);
#endif
}
/*
* To find CTL index(0~23)
* return 24(AR5416_NUM_CTLS)=>no desired index found
*/
u8_t zfFindCtlEdgesIndex(zdev_t* dev, u8_t desired_CtlIndex)
{
u8_t i;
struct zsHpPriv* hpPriv;
struct ar5416Eeprom* eepromImage;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
eepromImage = (struct ar5416Eeprom*)&(hpPriv->eepromImage[(1024+512)/4]);
//for (i = 0; (i < AR5416_NUM_CTLS) && eepromImage->ctlIndex[i]; i++)
for (i = 0; i < AR5416_NUM_CTLS; i++)
{
if(desired_CtlIndex == eepromImage->ctlIndex[i])
break;
}
return i;
}
/**************************************************************************
* fbin2freq
*
* Get channel value from binary representation held in eeprom
* RETURNS: the frequency in MHz
*/
u32_t
fbin2freq(u8_t fbin, u8_t is2GHz)
{
/*
* Reserved value 0xFF provides an empty definition both as
* an fbin and as a frequency - do not convert
*/
if (fbin == AR5416_BCHAN_UNUSED) {
return fbin;
}
return (u32_t)((is2GHz==1) ? (2300 + fbin) : (4800 + 5 * fbin));
}
u8_t zfGetMaxEdgePower(zdev_t* dev, CAL_CTL_EDGES *pCtlEdges, u32_t freq)
{
u8_t i;
u8_t maxEdgePower;
u8_t is2GHz;
struct zsHpPriv* hpPriv;
struct ar5416Eeprom* eepromImage;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
eepromImage = (struct ar5416Eeprom*)&(hpPriv->eepromImage[(1024+512)/4]);
if(freq > ZM_CH_G_14)
is2GHz = 0;
else
is2GHz = 1;
maxEdgePower = AR5416_MAX_RATE_POWER;
/* Get the edge power */
for (i = 0; (i < AR5416_NUM_BAND_EDGES) && (pCtlEdges[i].bChannel != AR5416_BCHAN_UNUSED) ; i++)
{
/*
* If there's an exact channel match or an inband flag set
* on the lower channel use the given rdEdgePower
*/
if (freq == fbin2freq(pCtlEdges[i].bChannel, is2GHz))
{
maxEdgePower = pCtlEdges[i].tPower;
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("zfGetMaxEdgePower index i = %d \n", i));
#endif
break;
}
else if ((i > 0) && (freq < fbin2freq(pCtlEdges[i].bChannel, is2GHz)))
{
if (fbin2freq(pCtlEdges[i - 1].bChannel, is2GHz) < freq && pCtlEdges[i - 1].flag)
{
maxEdgePower = pCtlEdges[i - 1].tPower;
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("zfGetMaxEdgePower index i-1 = %d \n", i-1));
#endif
}
/* Leave loop - no more affecting edges possible in this monotonic increasing list */
break;
}
}
if( i == AR5416_NUM_BAND_EDGES )
{
if (freq > fbin2freq(pCtlEdges[i - 1].bChannel, is2GHz) && pCtlEdges[i - 1].flag)
{
maxEdgePower = pCtlEdges[i - 1].tPower;
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("zfGetMaxEdgePower index=>i-1 = %d \n", i-1));
#endif
}
}
zm_assert(maxEdgePower > 0);
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
if ( maxEdgePower == AR5416_MAX_RATE_POWER )
{
zm_dbg(("zfGetMaxEdgePower = %d !!!\n", AR5416_MAX_RATE_POWER));
}
#endif
return maxEdgePower;
}
u32_t zfAdjustHT40FreqOffset(zdev_t* dev, u32_t frequency, u8_t bw40, u8_t extOffset)
{
u32_t newFreq = frequency;
if (bw40 == 1)
{
if (extOffset == 1)
{
newFreq += 10;
}
else
{
newFreq -= 10;
}
}
return newFreq;
}
u32_t zfHpCheckDoHeavyClip(zdev_t* dev, u32_t freq, CAL_CTL_EDGES *pCtlEdges, u8_t bw40)
{
u32_t ret = 0;
u8_t i;
u8_t is2GHz;
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
if(freq > ZM_CH_G_14)
is2GHz = 0;
else
is2GHz = 1;
/* HT40 force enable heavy clip */
if (bw40)
{
ret |= 0xf0;
}
#if 1
/* HT20 : frequency bandedge */
for (i = 0; (i < AR5416_NUM_BAND_EDGES) && (pCtlEdges[i].bChannel != AR5416_BCHAN_UNUSED) ; i++)
{
if (freq == fbin2freq(pCtlEdges[i].bChannel, is2GHz))
{
if (pCtlEdges[i].flag == 0)
{
ret |= 0xf;
}
break;
}
}
#endif
return ret;
}
void zfSetPowerCalTable(zdev_t* dev, u32_t frequency, u8_t bw40, u8_t extOffset)
{
struct ar5416Eeprom* eepromImage;
u8_t pwr0[5];
u8_t pwr1[5];
u8_t vpd0[5];
u8_t vpd1[5];
u8_t vpd_chain1[128];
u8_t vpd_chain3[128];
u16_t boundary1 = 18; //CR 667
u16_t powerTxMax = 63; //CR 79
u8_t i;
struct zsHpPriv* hpPriv;
u8_t fbin;
u8_t index, max2gIndex, max5gIndex;
u8_t chain0pwrPdg0[5];
u8_t chain0vpdPdg0[5];
u8_t chain0pwrPdg1[5];
u8_t chain0vpdPdg1[5];
u8_t chain2pwrPdg0[5];
u8_t chain2vpdPdg0[5];
u8_t chain2pwrPdg1[5];
u8_t chain2vpdPdg1[5];
u8_t fbinArray[8];
/* 4 CTL */
u8_t ctl_i;
u8_t desired_CtlIndex;
u8_t ctlEdgesMaxPowerCCK = AR5416_MAX_RATE_POWER;
u8_t ctlEdgesMaxPower2G = AR5416_MAX_RATE_POWER;
u8_t ctlEdgesMaxPower2GHT20 = AR5416_MAX_RATE_POWER;
u8_t ctlEdgesMaxPower2GHT40 = AR5416_MAX_RATE_POWER;
u8_t ctlEdgesMaxPower5G = AR5416_MAX_RATE_POWER;
u8_t ctlEdgesMaxPower5GHT20 = AR5416_MAX_RATE_POWER;
u8_t ctlEdgesMaxPower5GHT40 = AR5416_MAX_RATE_POWER;
u8_t ctlOffset;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
eepromImage = (struct ar5416Eeprom*)&(hpPriv->eepromImage[(1024+512)/4]);
// Check the total bytes of the EEPROM structure to see the dongle have been calibrated or not.
if (eepromImage->baseEepHeader.length == 0xffff)
{
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("Warning! This dongle not been calibrated\n"));
#endif
return;
}
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("-----zfSetPowerCalTable : frequency=%d-----\n", frequency);
#endif
/* TODO : 1. boundary1 and powerTxMax should be refered to CR667 and CR79 */
/* in otus.ini file */
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
/* 2. Interpolate pwr and vpd test points from frequency */
DbgPrint("calFreqPier5G : %d, %d, %d, %d ,%d, %d, %d, %d\n",
eepromImage->calFreqPier5G[0]*5+4800,
eepromImage->calFreqPier5G[1]*5+4800,
eepromImage->calFreqPier5G[2]*5+4800,
eepromImage->calFreqPier5G[3]*5+4800,
eepromImage->calFreqPier5G[4]*5+4800,
eepromImage->calFreqPier5G[5]*5+4800,
eepromImage->calFreqPier5G[6]*5+4800,
eepromImage->calFreqPier5G[7]*5+4800
);
DbgPrint("calFreqPier2G : %d, %d, %d, %d\n",
eepromImage->calFreqPier2G[0]+2300,
eepromImage->calFreqPier2G[1]+2300,
eepromImage->calFreqPier2G[2]+2300,
eepromImage->calFreqPier2G[3]+2300
);
#endif
if (frequency < 3000)
{
for (i=0; i<4; i++)
{
if (eepromImage->calFreqPier2G[i] == 0xff)
{
break;
}
}
max2gIndex = i;
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("max2gIndex : %d\n", max2gIndex);
#endif
fbin = (u8_t)(frequency - 2300);
index = zfFindFreqIndex(fbin, eepromImage->calFreqPier2G, max2gIndex);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("2G index : %d\n", index);
DbgPrint("chain 0 index\n");
#endif
zfPrintTp(&eepromImage->calPierData2G[0][index].pwrPdg[0][0],
&eepromImage->calPierData2G[0][index].vpdPdg[0][0],
&eepromImage->calPierData2G[0][index].pwrPdg[1][0],
&eepromImage->calPierData2G[0][index].vpdPdg[1][0]
);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("chain 0 index+1\n");
#endif
zfPrintTp(&eepromImage->calPierData2G[0][index+1].pwrPdg[0][0],
&eepromImage->calPierData2G[0][index+1].vpdPdg[0][0],
&eepromImage->calPierData2G[0][index+1].pwrPdg[1][0],
&eepromImage->calPierData2G[0][index+1].vpdPdg[1][0]
);
for (i=0; i<5; i++)
{
chain0pwrPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[0][index].pwrPdg[0][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[0][index+1].pwrPdg[0][i]
);
chain0vpdPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[0][index].vpdPdg[0][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[0][index+1].vpdPdg[0][i]
);
chain0pwrPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[0][index].pwrPdg[1][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[0][index+1].pwrPdg[1][i]
);
chain0vpdPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[0][index].vpdPdg[1][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[0][index+1].vpdPdg[1][i]
);
chain2pwrPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[1][index].pwrPdg[0][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[1][index+1].pwrPdg[0][i]
);
chain2vpdPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[1][index].vpdPdg[0][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[1][index+1].vpdPdg[0][i]
);
chain2pwrPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[1][index].pwrPdg[1][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[1][index+1].pwrPdg[1][i]
);
chain2vpdPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier2G[index],
eepromImage->calPierData2G[1][index].vpdPdg[1][i],
eepromImage->calFreqPier2G[index+1],
eepromImage->calPierData2G[1][index+1].vpdPdg[1][i]
);
}
}
else
{
for (i=0; i<8; i++)
{
if (eepromImage->calFreqPier5G[i] == 0xff)
{
break;
}
}
max5gIndex = i;
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("max5gIndex : %d\n", max5gIndex);
#endif
fbin = (u8_t)((frequency - 4800)/5);
index = zfFindFreqIndex(fbin, eepromImage->calFreqPier5G, max5gIndex);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("5G index : %d\n", index);
#endif
for (i=0; i<5; i++)
{
chain0pwrPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[0][index].pwrPdg[0][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[0][index+1].pwrPdg[0][i]
);
chain0vpdPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[0][index].vpdPdg[0][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[0][index+1].vpdPdg[0][i]
);
chain0pwrPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[0][index].pwrPdg[1][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[0][index+1].pwrPdg[1][i]
);
chain0vpdPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[0][index].vpdPdg[1][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[0][index+1].vpdPdg[1][i]
);
chain2pwrPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[1][index].pwrPdg[0][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[1][index+1].pwrPdg[0][i]
);
chain2vpdPdg0[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[1][index].vpdPdg[0][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[1][index+1].vpdPdg[0][i]
);
chain2pwrPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[1][index].pwrPdg[1][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[1][index+1].pwrPdg[1][i]
);
chain2vpdPdg1[i] = zfInterpolateFuncX(fbin,
eepromImage->calFreqPier5G[index],
eepromImage->calPierData5G[1][index].vpdPdg[1][i],
eepromImage->calFreqPier5G[index+1],
eepromImage->calPierData5G[1][index+1].vpdPdg[1][i]
);
}
}
/* Chain 1 */
/* Get pwr and vpd test points from frequency */
for (i=0; i<5; i++)
{
pwr0[i] = chain0pwrPdg0[i]>>1;
vpd0[i] = chain0vpdPdg0[i];
pwr1[i] = chain0pwrPdg1[i]>>1;
vpd1[i] = chain0vpdPdg1[i];
}
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("Test Points\n");
DbgPrint("pwr0 : %d, %d, %d, %d ,%d\n", pwr0[0], pwr0[1], pwr0[2], pwr0[3], pwr0[4]);
DbgPrint("vpd0 : %d, %d, %d, %d ,%d\n", vpd0[0], vpd0[1], vpd0[2], vpd0[3], vpd0[4]);
DbgPrint("pwr1 : %d, %d, %d, %d ,%d\n", pwr1[0], pwr1[1], pwr1[2], pwr1[3], pwr1[4]);
DbgPrint("vpd1 : %d, %d, %d, %d ,%d\n", vpd1[0], vpd1[1], vpd1[2], vpd1[3], vpd1[4]);
#endif
/* Generate the vpd arrays */
for (i=0; i<boundary1+1+6; i++)
{
vpd_chain1[i] = zfGetInterpolatedValue(i, &pwr0[0], &vpd0[0]);
}
for (; i<powerTxMax+1+6+6; i++)
{
vpd_chain1[i] = zfGetInterpolatedValue(i-6-6, &pwr1[0], &vpd1[0]);
}
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("vpd_chain1\n");
for (i=0; i<powerTxMax+1+6+6; i+=10)
{
DbgPrint("%d, %d, %d, %d ,%d, %d, %d, %d, %d, %d\n",
vpd_chain1[i+0], vpd_chain1[i+1], vpd_chain1[i+2], vpd_chain1[i+3], vpd_chain1[i+4],
vpd_chain1[i+5], vpd_chain1[i+6], vpd_chain1[i+7], vpd_chain1[i+8], vpd_chain1[i+9]);
}
#endif
/* Write PHY regs 672-703 */
for (i=0; i<128; i+=4)
{
u32_t val;
val = ((u32_t)vpd_chain1[i+3]<<24) |
((u32_t)vpd_chain1[i+2]<<16) |
((u32_t)vpd_chain1[i+1]<<8) |
((u32_t)vpd_chain1[i]);
#ifndef ZM_OTUS_LINUX_PHASE_2
reg_write(regAddr + i, val); /* CR672 */
#endif
}
/* Chain 2 */
/* Get pwr and vpd test points from frequency */
for (i=0; i<5; i++)
{
pwr0[i] = chain2pwrPdg0[i]>>1;
vpd0[i] = chain2vpdPdg0[i];
pwr1[i] = chain2pwrPdg1[i]>>1;
vpd1[i] = chain2vpdPdg1[i];
}
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("Test Points\n");
DbgPrint("pwr0 : %d, %d, %d, %d ,%d\n", pwr0[0], pwr0[1], pwr0[2], pwr0[3], pwr0[4]);
DbgPrint("vpd0 : %d, %d, %d, %d ,%d\n", vpd0[0], vpd0[1], vpd0[2], vpd0[3], vpd0[4]);
DbgPrint("pwr1 : %d, %d, %d, %d ,%d\n", pwr1[0], pwr1[1], pwr1[2], pwr1[3], pwr1[4]);
DbgPrint("vpd1 : %d, %d, %d, %d ,%d\n", vpd1[0], vpd1[1], vpd1[2], vpd1[3], vpd1[4]);
#endif
/* Generate the vpd arrays */
for (i=0; i<boundary1+1+6; i++)
{
vpd_chain3[i] = zfGetInterpolatedValue(i, &pwr0[0], &vpd0[0]);
}
for (; i<powerTxMax+1+6+6; i++)
{
vpd_chain3[i] = zfGetInterpolatedValue(i-6-6, &pwr1[0], &vpd1[0]);
}
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("vpd_chain3\n");
for (i=0; i<powerTxMax+1+6+6; i+=10)
{
DbgPrint("%d, %d, %d, %d ,%d, %d, %d, %d, %d, %d\n",
vpd_chain3[i+0], vpd_chain3[i+1], vpd_chain3[i+2], vpd_chain3[i+3], vpd_chain3[i+4],
vpd_chain3[i+5], vpd_chain3[i+6], vpd_chain3[i+7], vpd_chain3[i+8], vpd_chain3[i+9]);
}
#endif
/* Write PHY regs 672-703 + 0x1000 */
for (i=0; i<128; i+=4)
{
u32_t val;
val = ((u32_t)vpd_chain3[i+3]<<24) |
((u32_t)vpd_chain3[i+2]<<16) |
((u32_t)vpd_chain3[i+1]<<8) |
((u32_t)vpd_chain3[i]);
#ifndef ZM_OTUS_LINUX_PHASE_2
reg_write(regAddr + i, val); /* CR672 */
#endif
}
zfFlushDelayWrite(dev);
/* 3. Generate target power table */
if (frequency < 3000)
{
for (i=0; i<3; i++)
{
if (eepromImage->calTargetPowerCck[i].bChannel != 0xff)
{
fbinArray[i] = eepromImage->calTargetPowerCck[i].bChannel;
}
else
{
break;
}
}
index = zfFindFreqIndex(fbin, fbinArray, i);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("CCK index=%d\n", index);
#endif
for (i=0; i<4; i++)
{
hpPriv->tPow2xCck[i] = zfInterpolateFuncX(fbin,
eepromImage->calTargetPowerCck[index].bChannel,
eepromImage->calTargetPowerCck[index].tPow2x[i],
eepromImage->calTargetPowerCck[index+1].bChannel,
eepromImage->calTargetPowerCck[index+1].tPow2x[i]
);
}
for (i=0; i<4; i++)
{
if (eepromImage->calTargetPower2G[i].bChannel != 0xff)
{
fbinArray[i] = eepromImage->calTargetPower2G[i].bChannel;
}
else
{
break;
}
}
index = zfFindFreqIndex(fbin, fbinArray, i);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("2G index=%d\n", index);
#endif
for (i=0; i<4; i++)
{
hpPriv->tPow2x2g[i] = zfInterpolateFuncX(fbin,
eepromImage->calTargetPower2G[index].bChannel,
eepromImage->calTargetPower2G[index].tPow2x[i],
eepromImage->calTargetPower2G[index+1].bChannel,
eepromImage->calTargetPower2G[index+1].tPow2x[i]
);
}
for (i=0; i<4; i++)
{
if (eepromImage->calTargetPower2GHT20[i].bChannel != 0xff)
{
fbinArray[i] = eepromImage->calTargetPower2GHT20[i].bChannel;
}
else
{
break;
}
}
index = zfFindFreqIndex(fbin, fbinArray, i);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("2G HT20 index=%d\n", index);
#endif
for (i=0; i<8; i++)
{
hpPriv->tPow2x2gHt20[i] = zfInterpolateFuncX(fbin,
eepromImage->calTargetPower2GHT20[index].bChannel,
eepromImage->calTargetPower2GHT20[index].tPow2x[i],
eepromImage->calTargetPower2GHT20[index+1].bChannel,
eepromImage->calTargetPower2GHT20[index+1].tPow2x[i]
);
}
for (i=0; i<4; i++)
{
if (eepromImage->calTargetPower2GHT40[i].bChannel != 0xff)
{
fbinArray[i] = eepromImage->calTargetPower2GHT40[i].bChannel;
}
else
{
break;
}
}
index = zfFindFreqIndex( (u8_t)zfAdjustHT40FreqOffset(dev, fbin, bw40, extOffset), fbinArray, i);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("2G HT40 index=%d\n", index);
#endif
for (i=0; i<8; i++)
{
hpPriv->tPow2x2gHt40[i] = zfInterpolateFuncX(
(u8_t)zfAdjustHT40FreqOffset(dev, fbin, bw40, extOffset),
eepromImage->calTargetPower2GHT40[index].bChannel,
eepromImage->calTargetPower2GHT40[index].tPow2x[i],
eepromImage->calTargetPower2GHT40[index+1].bChannel,
eepromImage->calTargetPower2GHT40[index+1].tPow2x[i]
);
}
zfPrintTargetPower2G(hpPriv->tPow2xCck,
hpPriv->tPow2x2g,
hpPriv->tPow2x2gHt20,
hpPriv->tPow2x2gHt40);
}
else
{
/* 5G */
for (i=0; i<8; i++)
{
if (eepromImage->calTargetPower5G[i].bChannel != 0xff)
{
fbinArray[i] = eepromImage->calTargetPower5G[i].bChannel;
}
else
{
break;
}
}
index = zfFindFreqIndex(fbin, fbinArray, i);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("5G index=%d\n", index);
#endif
for (i=0; i<4; i++)
{
hpPriv->tPow2x5g[i] = zfInterpolateFuncX(fbin,
eepromImage->calTargetPower5G[index].bChannel,
eepromImage->calTargetPower5G[index].tPow2x[i],
eepromImage->calTargetPower5G[index+1].bChannel,
eepromImage->calTargetPower5G[index+1].tPow2x[i]
);
}
for (i=0; i<8; i++)
{
if (eepromImage->calTargetPower5GHT20[i].bChannel != 0xff)
{
fbinArray[i] = eepromImage->calTargetPower5GHT20[i].bChannel;
}
else
{
break;
}
}
index = zfFindFreqIndex(fbin, fbinArray, i);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("5G HT20 index=%d\n", index);
#endif
for (i=0; i<8; i++)
{
hpPriv->tPow2x5gHt20[i] = zfInterpolateFuncX(fbin,
eepromImage->calTargetPower5GHT20[index].bChannel,
eepromImage->calTargetPower5GHT20[index].tPow2x[i],
eepromImage->calTargetPower5GHT20[index+1].bChannel,
eepromImage->calTargetPower5GHT20[index+1].tPow2x[i]
);
}
for (i=0; i<8; i++)
{
if (eepromImage->calTargetPower5GHT40[i].bChannel != 0xff)
{
fbinArray[i] = eepromImage->calTargetPower5GHT40[i].bChannel;
}
else
{
break;
}
}
index = zfFindFreqIndex((u8_t)zfAdjustHT40FreqOffset(dev, fbin, bw40, extOffset), fbinArray, i);
#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
DbgPrint("5G HT40 index=%d\n", index);
#endif
for (i=0; i<8; i++)
{
hpPriv->tPow2x5gHt40[i] = zfInterpolateFuncX(
(u8_t)zfAdjustHT40FreqOffset(dev, fbin, bw40, extOffset),
eepromImage->calTargetPower5GHT40[index].bChannel,
eepromImage->calTargetPower5GHT40[index].tPow2x[i],
eepromImage->calTargetPower5GHT40[index+1].bChannel,
eepromImage->calTargetPower5GHT40[index+1].tPow2x[i]
);
}
zfPrintTargetPower5G(
hpPriv->tPow2x5g,
hpPriv->tPow2x5gHt20,
hpPriv->tPow2x5gHt40);
}
/* 4. CTL */
/*
* 4.1 Get the bandedges tx power by frequency
* 2.4G we get ctlEdgesMaxPowerCCK
* ctlEdgesMaxPower2G
* ctlEdgesMaxPower2GHT20
* ctlEdgesMaxPower2GHT40
* 5G we get ctlEdgesMaxPower5G
* ctlEdgesMaxPower5GHT20
* ctlEdgesMaxPower5GHT40
* 4.2 Update (3.) target power table by 4.1
* 4.3 Tx power offset for ART - NDIS/MDK
* 4.4 Write MAC reg 0x694 for ACK's TPC
*
*/
//zfDumpEepBandEdges(eepromImage);
/* get the cfg from Eeprom: regionCode => RegulatoryDomain : 0x10-FFC 0x30-eu 0x40-jap */
desired_CtlIndex = zfHpGetRegulatoryDomain(dev);
if ((desired_CtlIndex == 0x30) || (desired_CtlIndex == 0x40) || (desired_CtlIndex == 0x0))
{
/* skip CTL and heavy clip */
hpPriv->enableBBHeavyClip = 0;
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("RegulatoryDomain = 0, skip CTL and heavy clip\n"));
#endif
}
else
{
hpPriv->enableBBHeavyClip = 1;
if (desired_CtlIndex == 0xff)
{
/* desired index not found */
desired_CtlIndex = 0x10;
}
/* first part : 2.4G */
if (frequency <= ZM_CH_G_14)
{
/* 2.4G - CTL_11B */
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_11B);
if(ctl_i<AR5416_NUM_CTLS)
{
ctlEdgesMaxPowerCCK = zfGetMaxEdgePower(dev, eepromImage->ctlData[ctl_i].ctlEdges[1], frequency);
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("CTL_11B ctl_i = %d\n", ctl_i));
#endif
/* 2.4G - CTL_11G */
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_11G);
if(ctl_i<AR5416_NUM_CTLS)
{
ctlEdgesMaxPower2G = zfGetMaxEdgePower(dev, eepromImage->ctlData[ctl_i].ctlEdges[1], frequency);
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("CTL_11G ctl_i = %d\n", ctl_i));
#endif
/* 2.4G - CTL_2GHT20 */
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_2GHT20);
if(ctl_i<AR5416_NUM_CTLS)
{
ctlEdgesMaxPower2GHT20 = zfGetMaxEdgePower(dev, eepromImage->ctlData[ctl_i].ctlEdges[1], frequency);
}
else
{
/* workaround for no data in Eeprom, replace by normal 2G */
ctlEdgesMaxPower2GHT20 = ctlEdgesMaxPower2G;
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("CTL_2GHT20 ctl_i = %d\n", ctl_i));
#endif
/* 2.4G - CTL_2GHT40 */
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_2GHT40);
if(ctl_i<AR5416_NUM_CTLS)
{
ctlEdgesMaxPower2GHT40 = zfGetMaxEdgePower(dev, eepromImage->ctlData[ctl_i].ctlEdges[1],
zfAdjustHT40FreqOffset(dev, frequency, bw40, extOffset));
}
else
{
/* workaround for no data in Eeprom, replace by normal 2G */
ctlEdgesMaxPower2GHT40 = ctlEdgesMaxPower2G;
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("CTL_2GHT40 ctl_i = %d\n", ctl_i));
#endif
/* 7a17 : */
/* Max power (dBm) for channel range when using DFS define by madwifi*/
for (i=0; i<wd->regulationTable.allowChannelCnt; i++)
{
if (wd->regulationTable.allowChannel[i].channel == frequency)
{
if (zfHpIsDfsChannel(dev, (u16_t)frequency))
{
zm_debug_msg1("frequency use DFS -- ", frequency);
ctlEdgesMaxPowerCCK = zm_min(ctlEdgesMaxPowerCCK, wd->regulationTable.allowChannel[i].maxRegTxPower*2);
ctlEdgesMaxPower2G = zm_min(ctlEdgesMaxPower2G, wd->regulationTable.allowChannel[i].maxRegTxPower*2);
ctlEdgesMaxPower2GHT20 = zm_min(ctlEdgesMaxPower2GHT20, wd->regulationTable.allowChannel[i].maxRegTxPower*2);
ctlEdgesMaxPower2GHT40 = zm_min(ctlEdgesMaxPower2GHT40, wd->regulationTable.allowChannel[i].maxRegTxPower*2);
}
break;
}
}
/* Apply ctl mode to correct target power set */
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_debug_msg1("ctlEdgesMaxPowerCCK = ", ctlEdgesMaxPowerCCK);
zm_debug_msg1("ctlEdgesMaxPower2G = ", ctlEdgesMaxPower2G);
zm_debug_msg1("ctlEdgesMaxPower2GHT20 = ", ctlEdgesMaxPower2GHT20);
zm_debug_msg1("ctlEdgesMaxPower2GHT40 = ", ctlEdgesMaxPower2GHT40);
#endif
for (i=0; i<4; i++)
{
hpPriv->tPow2xCck[i] = zm_min(hpPriv->tPow2xCck[i], ctlEdgesMaxPowerCCK) + HALTX_POWER_OFFSET;
}
hpPriv->tPow2x2g24HeavyClipOffset = 0;
if (hpPriv->enableBBHeavyClip)
{
ctlOffset = 2;
}
else
{
ctlOffset = 0;
}
for (i=0; i<4; i++)
{
if (((frequency == 2412) || (frequency == 2462)))
{
if (i != 0)
{
hpPriv->tPow2x2g[i] = zm_min(hpPriv->tPow2x2g[i], ctlEdgesMaxPower2G-ctlOffset) + HALTX_POWER_OFFSET;
}
else
{
hpPriv->tPow2x2g[i] = zm_min(hpPriv->tPow2x2g[i], ctlEdgesMaxPower2G) + HALTX_POWER_OFFSET;
if (hpPriv->tPow2x2g[i] > (ctlEdgesMaxPower2G-ctlOffset))
{
hpPriv->tPow2x2g24HeavyClipOffset = hpPriv->tPow2x2g[i] - (ctlEdgesMaxPower2G-ctlOffset);
}
}
}
else
{
hpPriv->tPow2x2g[i] = zm_min(hpPriv->tPow2x2g[i], ctlEdgesMaxPower2G) + HALTX_POWER_OFFSET;
}
}
for (i=0; i<8; i++)
{
if (((frequency == 2412) || (frequency == 2462)) && (i>=3))
{
hpPriv->tPow2x2gHt20[i] = zm_min(hpPriv->tPow2x2gHt20[i], ctlEdgesMaxPower2GHT20-ctlOffset) + HALTX_POWER_OFFSET;
}
else
{
hpPriv->tPow2x2gHt20[i] = zm_min(hpPriv->tPow2x2gHt20[i], ctlEdgesMaxPower2GHT20) + HALTX_POWER_OFFSET;
}
}
for (i=0; i<8; i++)
{
if ((frequency == 2412) && (i>=3))
{
hpPriv->tPow2x2gHt40[i] = zm_min(hpPriv->tPow2x2gHt40[i], ctlEdgesMaxPower2GHT40-ctlOffset) + HALTX_POWER_OFFSET;
}
else if ((frequency == 2462) && (i>=3))
{
hpPriv->tPow2x2gHt40[i] = zm_min(hpPriv->tPow2x2gHt40[i], ctlEdgesMaxPower2GHT40-(ctlOffset*2)) + HALTX_POWER_OFFSET;
}
else
{
hpPriv->tPow2x2gHt40[i] = zm_min(hpPriv->tPow2x2gHt40[i], ctlEdgesMaxPower2GHT40) + HALTX_POWER_OFFSET;
}
}
}
else
{
/* 5G - CTL_11A */
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_11A);
if(ctl_i<AR5416_NUM_CTLS)
{
ctlEdgesMaxPower5G = zfGetMaxEdgePower(dev, eepromImage->ctlData[ctl_i].ctlEdges[1], frequency);
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("CTL_11A ctl_i = %d\n", ctl_i));
#endif
/* 5G - CTL_5GHT20 */
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_5GHT20);
if(ctl_i<AR5416_NUM_CTLS)
{
ctlEdgesMaxPower5GHT20 = zfGetMaxEdgePower(dev, eepromImage->ctlData[ctl_i].ctlEdges[1], frequency);
}
else
{
/* workaround for no data in Eeprom, replace by normal 5G */
ctlEdgesMaxPower5GHT20 = ctlEdgesMaxPower5G;
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("CTL_5GHT20 ctl_i = %d\n", ctl_i));
#endif
/* 5G - CTL_5GHT40 */
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_5GHT40);
if(ctl_i<AR5416_NUM_CTLS)
{
ctlEdgesMaxPower5GHT40 = zfGetMaxEdgePower(dev, eepromImage->ctlData[ctl_i].ctlEdges[1],
zfAdjustHT40FreqOffset(dev, frequency, bw40, extOffset));
}
else
{
/* workaround for no data in Eeprom, replace by normal 5G */
ctlEdgesMaxPower5GHT40 = ctlEdgesMaxPower5G;
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("CTL_5GHT40 ctl_i = %d\n", ctl_i));
#endif
/* 7a17 : */
/* Max power (dBm) for channel range when using DFS define by madwifi*/
for (i=0; i<wd->regulationTable.allowChannelCnt; i++)
{
if (wd->regulationTable.allowChannel[i].channel == frequency)
{
if (zfHpIsDfsChannel(dev, (u16_t)frequency))
{
zm_debug_msg1("frequency use DFS -- ", frequency);
ctlEdgesMaxPower5G = zm_min(ctlEdgesMaxPower5G, wd->regulationTable.allowChannel[i].maxRegTxPower*2);
ctlEdgesMaxPower5GHT20 = zm_min(ctlEdgesMaxPower5GHT20, wd->regulationTable.allowChannel[i].maxRegTxPower*2);
ctlEdgesMaxPower5GHT40 = zm_min(ctlEdgesMaxPower5GHT40, wd->regulationTable.allowChannel[i].maxRegTxPower*2);
}
break;
}
}
/* Apply ctl mode to correct target power set */
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_debug_msg1("ctlEdgesMaxPower5G = ", ctlEdgesMaxPower5G);
zm_debug_msg1("ctlEdgesMaxPower5GHT20 = ", ctlEdgesMaxPower5GHT20);
zm_debug_msg1("ctlEdgesMaxPower5GHT40 = ", ctlEdgesMaxPower5GHT40);
#endif
for (i=0; i<4; i++)
{
hpPriv->tPow2x5g[i] = zm_min(hpPriv->tPow2x5g[i], ctlEdgesMaxPower5G) + HALTX_POWER_OFFSET;
}
for (i=0; i<8; i++)
{
hpPriv->tPow2x5gHt20[i] = zm_min(hpPriv->tPow2x5gHt20[i], ctlEdgesMaxPower5GHT20) + HALTX_POWER_OFFSET;
}
for (i=0; i<8; i++)
{
hpPriv->tPow2x5gHt40[i] = zm_min(hpPriv->tPow2x5gHt40[i], ctlEdgesMaxPower5GHT40) + HALTX_POWER_OFFSET;
}
}/* end of bandedges of 5G */
}/* end of if ((desired_CtlIndex = zfHpGetRegulatoryDomain(dev)) == 0) */
/* workaround */
/* 5. BB heavy clip */
/* only 2.4G do heavy clip */
if (hpPriv->enableBBHeavyClip && hpPriv->hwBBHeavyClip && (frequency <= ZM_CH_G_14))
{
if (frequency <= ZM_CH_G_14)
{
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_11G);
}
else
{
ctl_i = zfFindCtlEdgesIndex(dev, desired_CtlIndex|CTL_11A);
}
hpPriv->setValueHeavyClip = zfHpCheckDoHeavyClip(dev, frequency, eepromImage->ctlData[ctl_i].ctlEdges[1], bw40);
if (hpPriv->setValueHeavyClip)
{
hpPriv->doBBHeavyClip = 1;
}
else
{
hpPriv->doBBHeavyClip = 0;
}
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
zm_dbg(("zfHpCheckDoHeavyClip ret = %02x, doBBHeavyClip = %d\n",
hpPriv->setValueHeavyClip, hpPriv->doBBHeavyClip));
#endif
if (hpPriv->doBBHeavyClip)
{
if (hpPriv->setValueHeavyClip & 0xf0)
{
hpPriv->tPow2x2gHt40[0] -= 1;
hpPriv->tPow2x2gHt40[1] -= 1;
hpPriv->tPow2x2gHt40[2] -= 1;
}
if (hpPriv->setValueHeavyClip & 0xf)
{
hpPriv->tPow2x2gHt20[0] += 1;
hpPriv->tPow2x2gHt20[1] += 1;
hpPriv->tPow2x2gHt20[2] += 1;
}
}
}
else
{
hpPriv->doBBHeavyClip = 0;
hpPriv->setValueHeavyClip = 0;
}
/* Final : write MAC register for some ctrl frame Tx power */
/* first part : 2.4G */
if (frequency <= ZM_CH_G_14)
{
/* Write MAC reg 0x694 for ACK's TPC */
/* Write MAC reg 0xbb4 RTS and SF-CTS frame power control */
/* Always use two stream for low legacy rate */
#if 0
//if (hpPriv->halCapability & ZM_HP_CAP_11N_ONE_TX_STREAM)
//{
zfDelayWriteInternalReg(dev, 0x1c3694, ((hpPriv->tPow2x2g[0]&0x3f) << 20) | (0x1<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((hpPriv->tPow2x2g[0]&0x3f) << 5 ) | (0x1<<11) |
((hpPriv->tPow2x2g[0]&0x3f) << 21) | (0x1<<27) );
//}
#endif
#if 1
//else
{
#ifndef ZM_OTUS_LINUX_PHASE_2
zfDelayWriteInternalReg(dev, 0x1c3694, ((hpPriv->tPow2x2g[0]&0x3f) << 20) | (0x5<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((hpPriv->tPow2x2g[0]&0x3f) << 5 ) | (0x5<<11) |
((hpPriv->tPow2x2g[0]&0x3f) << 21) | (0x5<<27) );
#endif
hpPriv->currentAckRtsTpc = hpPriv->tPow2x2g[0];
}
#endif
zfFlushDelayWrite(dev);
zfPrintTargetPower2G(hpPriv->tPow2xCck,
hpPriv->tPow2x2g,
hpPriv->tPow2x2gHt20,
hpPriv->tPow2x2gHt40);
}
else
{
/* Write MAC reg 0x694 for ACK's TPC */
/* Write MAC reg 0xbb4 RTS and SF-CTS frame power control */
/* Always use two stream for low legacy rate */
if (hpPriv->halCapability & ZM_HP_CAP_11N_ONE_TX_STREAM)
{
#ifndef ZM_OTUS_LINUX_PHASE_2
zfDelayWriteInternalReg(dev, 0x1c3694, ((hpPriv->tPow2x5g[0]&0x3f) << 20) | (0x1<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((hpPriv->tPow2x5g[0]&0x3f) << 5 ) | (0x1<<11) |
((hpPriv->tPow2x5g[0]&0x3f) << 21) | (0x1<<27) );
#endif
}
else
{
#ifndef ZM_OTUS_LINUX_PHASE_2
zfDelayWriteInternalReg(dev, 0x1c3694, ((hpPriv->tPow2x5g[0]&0x3f) << 20) | (0x5<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((hpPriv->tPow2x5g[0]&0x3f) << 5 ) | (0x5<<11) |
((hpPriv->tPow2x5g[0]&0x3f) << 21) | (0x5<<27) );
#endif
hpPriv->currentAckRtsTpc = hpPriv->tPow2x2g[0];
}
zfFlushDelayWrite(dev);
zfPrintTargetPower5G(
hpPriv->tPow2x5g,
hpPriv->tPow2x5gHt20,
hpPriv->tPow2x5gHt40);
}/* end of bandedges of 5G */
}
void zfDumpEepBandEdges(struct ar5416Eeprom* eepromImage)
{
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
u8_t i, j, k;
#if 0
zm_dbg(("\n === BandEdges index dump ==== \n"));
for (i = 0; i < AR5416_NUM_CTLS; i++)
{
zm_dbg(("%02x ", eepromImage->ctlIndex[i]));
}
zm_dbg(("\n === BandEdges data dump ==== \n"));
for (i = 0; i < AR5416_NUM_CTLS; i++)
{
for (j = 0; j < 2; j++)
{
for(k = 0; k < AR5416_NUM_BAND_EDGES; k++)
{
u8_t *pdata = (u8_t*)&(eepromImage->ctlData[i].ctlEdges[j][k]);
zm_dbg(("(%02x %02x)", pdata[0], pdata[1]));
}
zm_dbg(("\n"));
}
}
#else
zm_dbg(("\n === BandEdges index dump ==== \n"));
for (i = 0; i < 24; i+=8)
{
zm_dbg(("%02x %02x %02x %02x %02x %02x %02x %02x",
eepromImage->ctlIndex[i+0], eepromImage->ctlIndex[i+1], eepromImage->ctlIndex[i+2], eepromImage->ctlIndex[i+3],
eepromImage->ctlIndex[i+4], eepromImage->ctlIndex[i+5], eepromImage->ctlIndex[i+6], eepromImage->ctlIndex[i+7]
));
}
zm_dbg(("\n === BandEdges data dump ==== \n"));
for (i = 0; i < AR5416_NUM_CTLS; i++)
{
for (j = 0; j < 2; j++)
{
u8_t *pdata = (u8_t*)&(eepromImage->ctlData[i].ctlEdges[j]);
zm_dbg(("(%03d %02x) (%03d %02x) (%03d %02x) (%03d %02x) \n",
pdata[0], pdata[1], pdata[2], pdata[3],
pdata[4], pdata[5], pdata[6], pdata[7]
));
zm_dbg(("(%03d %02x) (%03d %02x) (%03d %02x) (%03d %02x) \n",
pdata[8], pdata[9], pdata[10], pdata[11],
pdata[12], pdata[13], pdata[14], pdata[15]
));
}
}
#endif
#endif
}
void zfPrintTargetPower2G(u8_t* tPow2xCck, u8_t* tPow2x2g, u8_t* tPow2x2gHt20, u8_t* tPow2x2gHt40)
{
//#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
DbgPrint("targetPwr CCK : %d, %d, %d, %d\n",
tPow2xCck[0],
tPow2xCck[1],
tPow2xCck[2],
tPow2xCck[3]
);
DbgPrint("targetPwr 2G : %d, %d, %d, %d\n",
tPow2x2g[0],
tPow2x2g[1],
tPow2x2g[2],
tPow2x2g[3]
);
DbgPrint("targetPwr 2GHT20 : %d, %d, %d, %d, %d, %d, %d, %d\n",
tPow2x2gHt20[0],
tPow2x2gHt20[1],
tPow2x2gHt20[2],
tPow2x2gHt20[3],
tPow2x2gHt20[4],
tPow2x2gHt20[5],
tPow2x2gHt20[6],
tPow2x2gHt20[7]
);
DbgPrint("targetPwr 2GHT40 : %d, %d, %d, %d, %d, %d, %d, %d\n",
tPow2x2gHt40[0],
tPow2x2gHt40[1],
tPow2x2gHt40[2],
tPow2x2gHt40[3],
tPow2x2gHt40[4],
tPow2x2gHt40[5],
tPow2x2gHt40[6],
tPow2x2gHt40[7]
);
#endif
return;
}
void zfPrintTargetPower5G(u8_t* tPow2x5g, u8_t* tPow2x5gHt20, u8_t* tPow2x5gHt40)
{
//#ifdef ZM_ENABLE_TPC_WINDOWS_DEBUG
#ifdef ZM_ENABLE_BANDEDGES_WINDOWS_DEBUG
DbgPrint("targetPwr 5G : %d, %d, %d, %d\n",
tPow2x5g[0],
tPow2x5g[1],
tPow2x5g[2],
tPow2x5g[3]
);
DbgPrint("targetPwr 5GHT20 : %d, %d, %d, %d, %d, %d, %d, %d\n",
tPow2x5gHt20[0],
tPow2x5gHt20[1],
tPow2x5gHt20[2],
tPow2x5gHt20[3],
tPow2x5gHt20[4],
tPow2x5gHt20[5],
tPow2x5gHt20[6],
tPow2x5gHt20[7]
);
DbgPrint("targetPwr 5GHT40 : %d, %d, %d, %d, %d, %d, %d, %d\n",
tPow2x5gHt40[0],
tPow2x5gHt40[1],
tPow2x5gHt40[2],
tPow2x5gHt40[3],
tPow2x5gHt40[4],
tPow2x5gHt40[5],
tPow2x5gHt40[6],
tPow2x5gHt40[7]
);
#endif
return;
}
void zfHpPowerSaveSetMode(zdev_t* dev, u8_t staMode, u8_t psMode, u16_t bcnInterval)
{
if ( staMode == 0 )
{
if ( psMode == 0 )
{
// Turn off pre-TBTT interrupt
zfDelayWriteInternalReg(dev, ZM_MAC_REG_PRETBTT, 0);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_PERIOD, 0);
zfFlushDelayWrite(dev);
}
else
{
// Turn on pre-TBTT interrupt
zfDelayWriteInternalReg(dev, ZM_MAC_REG_PRETBTT, (bcnInterval-6)<<16);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_BCN_PERIOD, bcnInterval);
zfFlushDelayWrite(dev);
}
}
}
void zfHpPowerSaveSetState(zdev_t* dev, u8_t psState)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
//DbgPrint("INTO zfHpPowerSaveSetState");
if ( psState == 0 ) //power up
{
//DbgPrint("zfHpPowerSaveSetState Wake up from PS\n");
reg_write(0x982C, 0x0000a000); //wake up ADDAC
reg_write(0x9808, 0x0); //enable all agc gain and offset updates to a2
//# bank 3
if (((struct zsHpPriv*)wd->hpPrivate)->hwFrequency <= ZM_CH_G_14)
{
/* 11g */
//reg_write (0x98f0, 0x01c00018);
reg_write (0x98f0, 0x01c20098);//syn_on+RX_ON
}
else
{
/* 11a */
//reg_write (0x98f0, 0x01400018);
reg_write (0x98f0, 0x01420098);//syn_on+RX_ON
}
////#bank 5
//reg_write(0x98b0, 0x00000013);
//reg_write(0x98e4, 0x00000002);
zfFlushDelayWrite(dev);
}
else //power down
{
//DbgPrint("zfHpPowerSaveSetState Go to PS\n");
//reg_write(0x982C, 0xa000a000);
reg_write(0x9808, 0x8000000); //disable all agc gain and offset updates to a2
reg_write(0x982C, 0xa000a000); //power down ADDAC
//# bank 3
if (((struct zsHpPriv*)wd->hpPrivate)->hwFrequency <= ZM_CH_G_14)
{
/* 11g */
reg_write (0x98f0, 0x00c00018);//syn_off+RX_off
}
else
{
/* 11a */
reg_write (0x98f0, 0x00400018);//syn_off+RX_off
}
////#bank 5
//reg_write(0x98b0, 0x000e0013);
//reg_write(0x98e4, 0x00018002);
zfFlushDelayWrite(dev);
}
}
void zfHpSetAggPktNum(zdev_t* dev, u32_t num)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
num = (num << 16) | (0xa);
hpPriv->aggPktNum = num;
//aggregation number will be update in HAL heart beat
//zfDelayWriteInternalReg(dev, 0x1c3b9c, num);
//zfFlushDelayWrite(dev);
}
void zfHpSetMPDUDensity(zdev_t* dev, u8_t density)
{
u32_t value;
if (density > ZM_MPDU_DENSITY_8US)
{
return;
}
/* Default value in this register */
value = 0x140A00 | density;
zfDelayWriteInternalReg(dev, 0x1c3ba0, value);
zfFlushDelayWrite(dev);
return;
}
void zfHpSetSlotTime(zdev_t* dev, u8_t type)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv = wd->hpPrivate;
if (type == 0)
{
//normal slot = 20us
hpPriv->slotType = 0;
}
else //if (type == 1)
{
//short slot = 9us
hpPriv->slotType = 1;
}
return;
}
void zfHpSetSlotTimeRegister(zdev_t* dev, u8_t type)
{
if(type == 0)
{
//normal slot = 20us
zfDelayWriteInternalReg(dev, ZM_MAC_REG_SLOT_TIME, 20<<10);
}
else
{
//short slot = 9us
zfDelayWriteInternalReg(dev, ZM_MAC_REG_SLOT_TIME, 9<<10);
}
}
void zfHpSetRifs(zdev_t* dev, u8_t ht_enable, u8_t ht2040, u8_t g_mode)
{
zfDelayWriteInternalReg(dev, 0x1c6388, 0x0c000000);
zfDelayWriteInternalReg(dev, 0x1c59ec, 0x0cc80caa);
if (ht_enable)
{
if (ht2040)
{
zfDelayWriteInternalReg(dev, 0x1c5918, 40);
}
else
{
zfDelayWriteInternalReg(dev, 0x1c5918, 20);
}
}
if (g_mode)
{
zfDelayWriteInternalReg(dev, 0x1c5850, 0xec08b4e2);
zfDelayWriteInternalReg(dev, 0x1c585c, 0x313a5d5e);
}
else
{
zfDelayWriteInternalReg(dev, 0x1c5850, 0xede8b4e0);
zfDelayWriteInternalReg(dev, 0x1c585c, 0x3139605e);
}
zfFlushDelayWrite(dev);
return;
}
void zfHpBeginSiteSurvey(zdev_t* dev, u8_t status)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
if ( status == 1 )
{ // Connected
hpPriv->isSiteSurvey = 1;
}
else
{ // Not connected
hpPriv->isSiteSurvey = 0;
}
/* reset workaround state to default */
// if (hpPriv->rxStrongRSSI == 1)
{
hpPriv->rxStrongRSSI = 0;
if ((hpPriv->eepromImage[0x100+0x110*2/4]&0xff) == 0x80) //FEM TYPE
{
if (hpPriv->hwFrequency <= ZM_CH_G_14)
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x9b49);
}
else
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x0900);
}
}
else
{
zfDelayWriteInternalReg(dev, 0x1c8960, 0x9b40);
}
zfFlushDelayWrite(dev);
}
// if (hpPriv->strongRSSI == 1)
{
hpPriv->strongRSSI = 0;
zfDelayWriteInternalReg(dev, 0x1c3694, ((hpPriv->currentAckRtsTpc&0x3f) << 20) | (0x5<<26));
zfDelayWriteInternalReg(dev, 0x1c3bb4, ((hpPriv->currentAckRtsTpc&0x3f) << 5 ) | (0x5<<11) |
((hpPriv->currentAckRtsTpc&0x3f) << 21) | (0x5<<27) );
zfFlushDelayWrite(dev);
}
}
void zfHpFinishSiteSurvey(zdev_t* dev, u8_t status)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
zmw_declare_for_critical_section();
zmw_enter_critical_section(dev);
if ( status == 1 )
{
hpPriv->isSiteSurvey = 2;
}
else
{
hpPriv->isSiteSurvey = 0;
}
zmw_leave_critical_section(dev);
}
u16_t zfFwRetry(zdev_t* dev, u8_t enable)
{
u32_t cmd[(ZM_MAX_CMD_SIZE/4)];
u16_t ret = 0;
cmd[0] = 4 | (0x92 << 8);
cmd[1] = (enable == 1) ? 0x01 : 0x00;
ret = zfIssueCmd(dev, cmd, 8, ZM_OID_INTERNAL_WRITE, NULL);
return ret;
}
u16_t zfHpEnableHwRetry(zdev_t* dev)
{
u16_t ret;
ret = zfFwRetry(dev, 0);
zfDelayWriteInternalReg(dev, 0x1c3b28, 0x33333);
zfFlushDelayWrite(dev);
return ret;
}
u16_t zfHpDisableHwRetry(zdev_t* dev)
{
u16_t ret;
ret = zfFwRetry(dev, 1);
zfDelayWriteInternalReg(dev, 0x1c3b28, 0x00000);
zfFlushDelayWrite(dev);
return ret;
}
/* Download SPI Fw */
#define ZM_FIRMWARE_WLAN 0
#define ZM_FIRMWARE_SPI_FLASH 1
u16_t zfHpFirmwareDownload(zdev_t* dev, u8_t fwType)
{
u16_t ret = ZM_SUCCESS;
if (fwType == ZM_FIRMWARE_WLAN)
{
ret = zfFirmwareDownload(dev, (u32_t*)zcFwImage,
(u32_t)zcFwImageSize, ZM_FIRMWARE_WLAN_ADDR);
}
else if (fwType == ZM_FIRMWARE_SPI_FLASH)
{
ret = zfFirmwareDownload(dev, (u32_t*)zcFwImageSPI,
(u32_t)zcFwImageSPISize, ZM_FIRMWARE_SPI_ADDR);
}
else
{
zm_debug_msg1("Unknown firmware type = ", fwType);
ret = ZM_ERR_FIRMWARE_WRONG_TYPE;
}
return ret;
}
/* Enable software decryption */
void zfHpSWDecrypt(zdev_t* dev, u8_t enable)
{
u32_t value = 0x70;
/* Bit 4 for enable software decryption */
if (enable == 1)
{
value = 0x78;
}
zfDelayWriteInternalReg(dev, 0x1c3678, value);
zfFlushDelayWrite(dev);
}
/* Enable software encryption */
void zfHpSWEncrypt(zdev_t* dev, u8_t enable)
{
/* Because encryption by software or hardware is judged by driver in Otus,
we don't need to do anything in the HAL layer.
*/
}
u32_t zfHpCapability(zdev_t* dev)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
return hpPriv->halCapability;
}
void zfHpSetRollCallTable(zdev_t* dev)
{
struct zsHpPriv* hpPriv;
zmw_get_wlan_dev(dev);
hpPriv=wd->hpPrivate;
if (hpPriv->camRollCallTable != (u64_t) 0)
{
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ROLL_CALL_TBL_L, (u32_t)(hpPriv->camRollCallTable & 0xffffffff));
zfDelayWriteInternalReg(dev, ZM_MAC_REG_ROLL_CALL_TBL_H, (u32_t)((hpPriv->camRollCallTable >> 32) & 0xffffffff));
zfFlushDelayWrite(dev);
}
}
void zfHpSetTTSIFSTime(zdev_t* dev, u8_t sifs_time)
{
u32_t reg_value = 0;
sifs_time &= 0x3f;
reg_value = 0x14400b | (((u32_t)sifs_time)<<24);
zfDelayWriteInternalReg(dev, ZM_MAC_REG_EIFS_AND_SIFS, reg_value);
zfFlushDelayWrite(dev);
}
/* #3 Enable RIFS function if the RIFS pattern matched ! */
void zfHpEnableRifs(zdev_t* dev, u8_t mode24g, u8_t modeHt, u8_t modeHt2040)
{
/* # Enable Reset TDOMAIN
* $rddata = &$phyreg_read(0x9800+(738<<2));
* $wrdata = $rddata | (0x1 << 26) | (0x1 << 27);
* &$phyreg_write(0x9800+(738<<2), $wrdata);
*/
reg_write (0x9800+(738<<2), 0x08000000 | (0x1 << 26) | (0x1 << 27));
//reg_write (0x9800+(738<<2), 0x08000000 | (0x1 << 26));
/* # reg 123: heavy clip factor, xr / RIFS search parameters */
reg_write (0x99ec, 0x0cc80caa);
/* # Reduce Search Start Delay for RIFS */
if (modeHt == 1) /* ($HT_ENABLE == 1) */
{
if (modeHt2040 == 0x1) /* ($DYNAMIC_HT2040_EN == 0x1) */
{
reg_write(0x9800+(70<<2), 40);/*40*/
}
else
{
reg_write(0x9800+(70<<2), 20);
if(mode24g == 0x0)
{
/* $rddata = &$phyreg_read(0x9800+(24<<2));#0x9860;0x1c5860
*$wrdata = ($rddata & 0xffffffc7) | (0x4 << 3);
* &$phyreg_write(0x9800+(24<<2), $wrdata);
*/
reg_write(0x9800+(24<<2), (0x0004dd10 & 0xffffffc7) | (0x4 << 3));
}
}
}
if (mode24g == 0x1)
{
reg_write(0x9850, 0xece8b4e4);/*org*/
//reg_write(0x9850, 0xece8b4e2);
reg_write(0x985c, 0x313a5d5e);
}
else
{
reg_write(0x9850, 0xede8b4e4);
reg_write(0x985c, 0x3139605e);
}
zfFlushDelayWrite(dev);
return;
}
/* #4 Disable RIFS function if the RIFS timer is timeout ! */
void zfHpDisableRifs(zdev_t* dev)
{
zmw_get_wlan_dev(dev);
/* Disable RIFS function is to store these HW register initial value while the device plug-in and
re-write to these register if the RIFS function is disabled */
// reg : 9850
reg_write(0x9850, ((struct zsHpPriv*)wd->hpPrivate)->initDesiredSigSize);
// reg : 985c
reg_write(0x985c, ((struct zsHpPriv*)wd->hpPrivate)->initAGC);
// reg : 9860
reg_write(0x9800+(24<<2), ((struct zsHpPriv*)wd->hpPrivate)->initAgcControl);
// reg : 9918
reg_write(0x9800+(70<<2), ((struct zsHpPriv*)wd->hpPrivate)->initSearchStartDelay);
// reg : 991c
reg_write (0x99ec, ((struct zsHpPriv*)wd->hpPrivate)->initRIFSSearchParams);
// reg : a388
reg_write (0x9800+(738<<2), ((struct zsHpPriv*)wd->hpPrivate)->initFastChannelChangeControl);
zfFlushDelayWrite(dev);
return;
}