/*
* Stop hardware timer and read time elapsed since last start.
*
* returns
* The elapsed time since last start in units of 1 us.
*
*/
SK_U32 SkHwtRead(
SK_AC *pAC, /* Adapter Context */
SK_IOC IoC) /* I/O Context */
{
SK_U32 TRead;
SK_U32 IStatus;
SK_U32 TimerInt;
TimerInt = CHIP_ID_YUKON_2(pAC) ? Y2_IS_TIMINT : IS_TIMINT;
if (pAC->Hwt.TActive) {
SkHwtStop(pAC, IoC);
SK_IN32(IoC, B2_TI_VAL, &TRead);
TRead /= SK_HWT_FAC;
SK_IN32(IoC, B0_ISRC, &IStatus);
/* Check if timer expired (or wrapped around) */
if ((TRead > pAC->Hwt.TStart) || ((IStatus & TimerInt) != 0)) {
SkHwtStop(pAC, IoC);
pAC->Hwt.TStop = pAC->Hwt.TStart;
}
else {
pAC->Hwt.TStop = pAC->Hwt.TStart - TRead;
}
}
return(pAC->Hwt.TStop);
}
/*****************************************************************************
*
* SkGeGetCoalesce - retrieves the IRQ moderation settings
*
* Description:
* All current IRQ moderation settings of a selected adapter are placed
* in the passed ethtool_coalesce structure and are returned.
*
* Returns: N/A
*
*/
int SkGeGetCoalesce(struct net_device *dev,
struct ethtool_coalesce *ecmd)
{
DEV_NET *pNet = PPRIV;
SK_AC *pAC = pNet->pAC;
DIM_INFO *Info = &pAC->DynIrqModInfo;
SK_BOOL UseTxIrqModeration = SK_FALSE;
SK_BOOL UseRxIrqModeration = SK_FALSE;
if (Info->IntModTypeSelect != C_INT_MOD_NONE) {
if (CHIP_ID_YUKON_2(pAC)) {
UseRxIrqModeration = SK_TRUE;
UseTxIrqModeration = SK_TRUE;
} else {
if ((Info->MaskIrqModeration == IRQ_MASK_RX_ONLY) ||
(Info->MaskIrqModeration == IRQ_MASK_SP_RX) ||
(Info->MaskIrqModeration == IRQ_MASK_RX_TX_SP)) {
UseRxIrqModeration = SK_TRUE;
}
if ((Info->MaskIrqModeration == IRQ_MASK_TX_ONLY) ||
(Info->MaskIrqModeration == IRQ_MASK_SP_TX) ||
(Info->MaskIrqModeration == IRQ_MASK_RX_TX_SP)) {
UseTxIrqModeration = SK_TRUE;
}
}
if (UseRxIrqModeration) {
ecmd->rx_coalesce_usecs = 1000000 / Info->MaxModIntsPerSec;
}
if (UseTxIrqModeration) {
ecmd->tx_coalesce_usecs = 1000000 / Info->MaxModIntsPerSec;
}
if (Info->IntModTypeSelect == C_INT_MOD_DYNAMIC) {
ecmd->rate_sample_interval = Info->DynIrqModSampleInterval;
if (UseRxIrqModeration) {
ecmd->use_adaptive_rx_coalesce = 1;
ecmd->rx_coalesce_usecs_low =
1000000 / Info->MaxModIntsPerSecLowerLimit;
ecmd->rx_coalesce_usecs_high =
1000000 / Info->MaxModIntsPerSecUpperLimit;
}
if (UseTxIrqModeration) {
ecmd->use_adaptive_tx_coalesce = 1;
ecmd->tx_coalesce_usecs_low =
1000000 / Info->MaxModIntsPerSecLowerLimit;
ecmd->tx_coalesce_usecs_high =
1000000 / Info->MaxModIntsPerSecUpperLimit;
}
}
}
return(0);
}
/*****************************************************************************
*
* SkGeSetTSO - set the TSO parameters
*
* Description:
* This function sets the TSO parameters
*
* Returns:
* ==0: everything fine, no error
* !=0: the return value is the error code of the failure
*/
int SkGeSetTSO(struct net_device *dev,
u32 data)
{
DEV_NET *pNet = PPRIV;
SK_AC *pAC = pNet->pAC;
if (CHIP_ID_YUKON_2(pAC)) {
if (data) {
if ((pAC->GIni.GIChipId == CHIP_ID_YUKON_EC_U) && (dev->mtu > ETH_MAX_MTU)) {
dev->features &= ~NETIF_F_TSO;
} else {
dev->features |= NETIF_F_TSO;
}
} else {
dev->features &= ~NETIF_F_TSO;
}
return 0;
}
return -EOPNOTSUPP;
}
/*
* waits for a completion of a TWSI transfer
*
* Returns
* Nothing
*/
void SkI2cWaitIrq(
SK_AC *pAC, /* Adapter Context */
SK_IOC IoC) /* I/O Context */
{
SK_SENSOR *pSen;
SK_U64 StartTime;
SK_U32 IrqSrc;
SK_U32 IsTwsiReadyBit;
pSen = &pAC->I2c.SenTable[pAC->I2c.CurrSens];
if (pSen->SenState == SK_SEN_IDLE) {
return;
}
IsTwsiReadyBit = CHIP_ID_YUKON_2(pAC) ? Y2_IS_TWSI_RDY : IS_I2C_READY;
StartTime = SkOsGetTime(pAC);
do {
if (SkOsGetTime(pAC) - StartTime > SK_TICKS_PER_SEC / 8) {
SK_I2C_STOP(IoC);
#ifndef SK_DIAG
SK_ERR_LOG(pAC, SK_ERRCL_SW, SKERR_I2C_E016, SKERR_I2C_E016MSG);
#endif /* !SK_DIAG */
return;
}
SK_IN32(IoC, B0_ISRC, &IrqSrc);
} while ((IrqSrc & IsTwsiReadyBit) == 0);
pSen->SenState = SK_SEN_IDLE;
return;
} /* SkI2cWaitIrq */
/*****************************************************************************
*
* SkGeSetCoalesce - configures the IRQ moderation of an adapter
*
* Description:
* Depending on the desired IRQ moderation parameters, either a) static,
* b) dynamic or c) no moderation is configured.
*
* Returns:
* ==0: everything fine, no error
* !=0: the return value is the error code of the failure
*
* Notes:
* The supported timeframe for the coalesced interrupts ranges from
* 33.333us (30 IntsPerSec) down to 25us (40.000 IntsPerSec).
* Any requested value that is not in this range will abort the request!
*/
int SkGeSetCoalesce(struct net_device *dev,
struct ethtool_coalesce *ecmd)
{
DEV_NET *pNet = PPRIV;
SK_AC *pAC = pNet->pAC;
DIM_INFO *Info = &pAC->DynIrqModInfo;
int PrevModeration = Info->IntModTypeSelect;
Info->IntModTypeSelect = C_INT_MOD_NONE; /* initial default */
if ((ecmd->rx_coalesce_usecs) || (ecmd->tx_coalesce_usecs)) {
if (ecmd->rx_coalesce_usecs) {
if ((ecmd->rx_coalesce_usecs < 25) ||
(ecmd->rx_coalesce_usecs > 33333)) {
return -EINVAL;
}
}
if (ecmd->tx_coalesce_usecs) {
if ((ecmd->tx_coalesce_usecs < 25) ||
(ecmd->tx_coalesce_usecs > 33333)) {
return -EINVAL;
}
}
if (!CHIP_ID_YUKON_2(pAC)) {
if ((Info->MaskIrqModeration == IRQ_MASK_SP_RX) ||
(Info->MaskIrqModeration == IRQ_MASK_SP_TX) ||
(Info->MaskIrqModeration == IRQ_MASK_RX_TX_SP)) {
Info->MaskIrqModeration = IRQ_MASK_SP_ONLY;
}
}
Info->IntModTypeSelect = C_INT_MOD_STATIC;
if (ecmd->rx_coalesce_usecs) {
Info->MaxModIntsPerSec =
1000000 / ecmd->rx_coalesce_usecs;
if (!CHIP_ID_YUKON_2(pAC)) {
if (Info->MaskIrqModeration == IRQ_MASK_TX_ONLY) {
Info->MaskIrqModeration = IRQ_MASK_TX_RX;
}
if (Info->MaskIrqModeration == IRQ_MASK_SP_ONLY) {
Info->MaskIrqModeration = IRQ_MASK_SP_RX;
}
if (Info->MaskIrqModeration == IRQ_MASK_SP_TX) {
Info->MaskIrqModeration = IRQ_MASK_RX_TX_SP;
}
} else {
Info->MaskIrqModeration = Y2_IRQ_MASK;
}
}
if (ecmd->tx_coalesce_usecs) {
Info->MaxModIntsPerSec =
1000000 / ecmd->tx_coalesce_usecs;
if (!CHIP_ID_YUKON_2(pAC)) {
if (Info->MaskIrqModeration == IRQ_MASK_RX_ONLY) {
Info->MaskIrqModeration = IRQ_MASK_TX_RX;
}
if (Info->MaskIrqModeration == IRQ_MASK_SP_ONLY) {
Info->MaskIrqModeration = IRQ_MASK_SP_TX;
}
if (Info->MaskIrqModeration == IRQ_MASK_SP_RX) {
Info->MaskIrqModeration = IRQ_MASK_RX_TX_SP;
}
} else {
Info->MaskIrqModeration = Y2_IRQ_MASK;
}
}
}
if ((ecmd->rate_sample_interval) ||
(ecmd->rx_coalesce_usecs_low) ||
(ecmd->tx_coalesce_usecs_low) ||
(ecmd->rx_coalesce_usecs_high)||
(ecmd->tx_coalesce_usecs_high)) {
if (ecmd->rate_sample_interval) {
if ((ecmd->rate_sample_interval < 1) ||
(ecmd->rate_sample_interval > 10)) {
return -EINVAL;
}
}
if (ecmd->rx_coalesce_usecs_low) {
if ((ecmd->rx_coalesce_usecs_low < 25) ||
(ecmd->rx_coalesce_usecs_low > 33333)) {
return -EINVAL;
}
}
if (ecmd->rx_coalesce_usecs_high) {
if ((ecmd->rx_coalesce_usecs_high < 25) ||
(ecmd->rx_coalesce_usecs_high > 33333)) {
return -EINVAL;
}
}
if (ecmd->tx_coalesce_usecs_low) {
if ((ecmd->tx_coalesce_usecs_low < 25) ||
(ecmd->tx_coalesce_usecs_low > 33333)) {
return -EINVAL;
}
}
if (ecmd->tx_coalesce_usecs_high) {
if ((ecmd->tx_coalesce_usecs_high < 25) ||
(ecmd->tx_coalesce_usecs_high > 33333)) {
return -EINVAL;
}
}
Info->IntModTypeSelect = C_INT_MOD_DYNAMIC;
if (ecmd->rate_sample_interval) {
Info->DynIrqModSampleInterval =
ecmd->rate_sample_interval;
}
if (ecmd->rx_coalesce_usecs_low) {
Info->MaxModIntsPerSecLowerLimit =
1000000 / ecmd->rx_coalesce_usecs_low;
}
if (ecmd->tx_coalesce_usecs_low) {
Info->MaxModIntsPerSecLowerLimit =
1000000 / ecmd->tx_coalesce_usecs_low;
}
if (ecmd->rx_coalesce_usecs_high) {
Info->MaxModIntsPerSecUpperLimit =
1000000 / ecmd->rx_coalesce_usecs_high;
}
if (ecmd->tx_coalesce_usecs_high) {
Info->MaxModIntsPerSecUpperLimit =
1000000 / ecmd->tx_coalesce_usecs_high;
}
}
if ((PrevModeration == C_INT_MOD_NONE) &&
(Info->IntModTypeSelect != C_INT_MOD_NONE)) {
SkDimEnableModerationIfNeeded(pAC);
}
if (PrevModeration != C_INT_MOD_NONE) {
SkDimDisableModeration(pAC, PrevModeration);
if (Info->IntModTypeSelect != C_INT_MOD_NONE) {
SkDimEnableModerationIfNeeded(pAC);
}
}
return 0;
}
/*****************************************************************************
*
* toggleLeds - Changes the LED state of an adapter
*
* Description:
* This function changes the current state of all LEDs of an adapter so
* that it can be located by a user. If the requested time interval for
* this test has elapsed, this function cleans up everything that was
* temporarily setup during the locate NIC test. This involves of course
* also closing or opening any adapter so that the initial board state
* is recovered.
*
* Returns: N/A
*
*/
static void toggleLeds(
unsigned long ptr) /* holds the pointer to adapter control context */
{
DEV_NET *pNet = (DEV_NET*) ptr;
SK_AC *pAC = pNet->pAC;
int port = pNet->PortNr;
SK_IOC IoC = pAC->IoBase;
struct SK_NET_DEVICE *pDev = pAC->dev[port];
int OtherPort = (port) ? 0 : 1;
struct SK_NET_DEVICE *pOtherDev = pAC->dev[OtherPort];
SK_U16 PageSelect;
SK_BOOL YukLedState;
SK_U16 YukLedOn = (PHY_M_LED_MO_DUP(MO_LED_ON) |
PHY_M_LED_MO_10(MO_LED_ON) |
PHY_M_LED_MO_100(MO_LED_ON) |
PHY_M_LED_MO_1000(MO_LED_ON) |
PHY_M_LED_MO_RX(MO_LED_ON));
SK_U16 YukLedOff = (PHY_M_LED_MO_DUP(MO_LED_OFF) |
PHY_M_LED_MO_10(MO_LED_OFF) |
PHY_M_LED_MO_100(MO_LED_OFF) |
PHY_M_LED_MO_1000(MO_LED_OFF) |
PHY_M_LED_MO_RX(MO_LED_OFF) |
PHY_M_LED_MO_TX(MO_LED_OFF));
nbrBlinkQuarterSeconds--;
if (nbrBlinkQuarterSeconds <= 0) {
/*
* We have to stop the device again in case the device has no
* been up.
*/
if (!boardWasDown[0]) {
/*
* The board is already up as we bring it up in case it is not.
*/
} else {
#if LINUX_VERSION_CODE > KERNEL_VERSION(2,6,29)
(*pDev->netdev_ops->ndo_stop)(pDev);
#else
(*pDev->stop)(pDev);
#endif
}
if (isDualNetCard) {
if (!boardWasDown[1]) {
/*
* The board is already up as we bring it up in case it is not.
*/
} else {
#if LINUX_VERSION_CODE > KERNEL_VERSION(2,6,29)
(*pOtherDev->netdev_ops->ndo_stop)(pOtherDev);
#else
(*pOtherDev->stop)(pOtherDev);
#endif
}
}
isDualNetCard = SK_FALSE;
isLocateNICrunning = SK_FALSE;
return;
}
doSwitchLEDsOn = (doSwitchLEDsOn) ? SK_FALSE : SK_TRUE;
if ( (doSwitchLEDsOn) && (nbrBlinkQuarterSeconds > 2) ){
if ( (pAC->GIni.GIChipId == CHIP_ID_YUKON_XL) ||
(pAC->GIni.GIChipId == CHIP_ID_YUKON_2(pAC)) ||
(pAC->GIni.GIChipId == CHIP_ID_YUKON_EC_U) ) {
YukLedOn = 0;
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_INIT_CTRL(YukLedState ? 9 : 8);
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_STA1_CTRL(YukLedState ? 9 : 8);
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_STA0_CTRL(YukLedState ? 9 : 8);
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_LOS_CTRL(YukLedState ? 9 : 8);
/* save page register */
SkGmPhyRead(pAC, IoC, port, PHY_MARV_EXT_ADR, &PageSelect);
/* select page 3 for LED control */
SkGmPhyWrite(pAC, IoC, port, PHY_MARV_EXT_ADR, 3);
SkGmPhyWrite(pAC, IoC, port, PHY_MARV_PHY_CTRL, YukLedOn);
/* restore page register */
SkGmPhyWrite(pAC, IoC, port, PHY_MARV_EXT_ADR, PageSelect);
} else {
SkGmPhyWrite(pAC,IoC,port,PHY_MARV_LED_OVER,YukLedOn);
}
} else {
if ( (pAC->GIni.GIChipId == CHIP_ID_YUKON_XL) ||
(pAC->GIni.GIChipId == CHIP_ID_YUKON_2(pAC)) ||
(pAC->GIni.GIChipId == CHIP_ID_YUKON_EC_U) ) {
YukLedOn = 0;
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_INIT_CTRL(YukLedState ? 9 : 8);
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_STA1_CTRL(YukLedState ? 9 : 8);
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_STA0_CTRL(YukLedState ? 9 : 8);
YukLedState = 1;
YukLedOn |= PHY_M_LEDC_LOS_CTRL(YukLedState ? 9 : 8);
/* save page register */
SkGmPhyRead(pAC, IoC, port, PHY_MARV_EXT_ADR, &PageSelect);
/* select page 3 for LED control */
SkGmPhyWrite(pAC, IoC, port, PHY_MARV_EXT_ADR, 3);
SkGmPhyWrite(pAC, IoC, port, PHY_MARV_PHY_CTRL, YukLedOff);
/* restore page register */
SkGmPhyWrite(pAC, IoC, port, PHY_MARV_EXT_ADR, PageSelect);
} else {
SkGmPhyWrite(pAC,IoC,port,PHY_MARV_LED_OVER,YukLedOff);
}
}
locateNICtimer.function = toggleLeds;
locateNICtimer.data = (unsigned long) pNet;
locateNICtimer.expires = jiffies + (HZ/4);
add_timer(&locateNICtimer);
}
/*
* Do the init state 1 initialization
*
* initialize the following register of the LM80:
* Configuration register:
* - START, noINT, activeLOW, noINT#Clear, noRESET, noCI, noGPO#, noINIT
*
* Interrupt Mask Register 1:
* - all interrupts are Disabled (0xff)
*
* Interrupt Mask Register 2:
* - all interrupts are Disabled (0xff) Interrupt modi doesn't matter.
*
* Fan Divisor/RST_OUT register:
* - Divisors set to 1 (bits 00), all others 0s.
*
* OS# Configuration/Temperature resolution Register:
* - all 0s
*
*/
static int SkI2cInit1(
SK_AC *pAC, /* Adapter Context */
SK_IOC IoC) /* I/O Context */
{
int i;
SK_U8 I2cSwCtrl;
SK_GEPORT *pPrt; /* GIni Port struct pointer */
SK_SENSOR *pSen;
if (pAC->I2c.InitLevel != SK_INIT_DATA) {
/* Re-init not needed in TWSI module */
return(0);
}
if (pAC->GIni.GIChipId == CHIP_ID_YUKON_EC ||
pAC->GIni.GIChipId == CHIP_ID_YUKON_FE) {
/* No sensors on Yukon-EC and Yukon-FE */
return(0);
}
/* Set the Direction of TWSI-Data Pin to IN */
SK_I2C_CLR_BIT(IoC, I2C_DATA_DIR | I2C_DATA);
/* Check for 32-Bit Yukon with Low at TWSI-Data Pin */
SK_I2C_GET_SW(IoC, &I2cSwCtrl);
if ((I2cSwCtrl & I2C_DATA) == 0) {
/* this is a 32-Bit board */
pAC->GIni.GIYukon32Bit = SK_TRUE;
return(0);
}
/* Check for 64 Bit Yukon without sensors */
if (SkI2cWrite(pAC, IoC, 0, LM80_ADDR, I2C_025K_DEV, LM80_CFG, 0) != 0) {
return(0);
}
(void)SkI2cWrite(pAC, IoC, 0xffUL, LM80_ADDR, I2C_025K_DEV, LM80_IMSK_1, 0);
(void)SkI2cWrite(pAC, IoC, 0xffUL, LM80_ADDR, I2C_025K_DEV, LM80_IMSK_2, 0);
(void)SkI2cWrite(pAC, IoC, 0, LM80_ADDR, I2C_025K_DEV, LM80_FAN_CTRL, 0);
(void)SkI2cWrite(pAC, IoC, 0, LM80_ADDR, I2C_025K_DEV, LM80_TEMP_CTRL, 0);
(void)SkI2cWrite(pAC, IoC, (SK_U32)LM80_CFG_START, LM80_ADDR, I2C_025K_DEV,
LM80_CFG, 0);
/*
* MaxSens has to be updated here, because PhyType is not
* set when performing Init Level 0
*/
pAC->I2c.MaxSens = 5;
pPrt = &pAC->GIni.GP[0];
if (pAC->GIni.GIGenesis) {
if (pPrt->PhyType == SK_PHY_BCOM) {
if (pAC->GIni.GIMacsFound == 1) {
pAC->I2c.MaxSens += 1;
}
else {
pAC->I2c.MaxSens += 3;
}
}
}
else {
pAC->I2c.MaxSens += 3;
}
for (i = 0; i < pAC->I2c.MaxSens; i++) {
pSen = &pAC->I2c.SenTable[i];
switch (i) {
case 0:
pSen->SenDesc = "Temperature";
pSen->SenType = SK_SEN_TEMP;
pSen->SenThreErrHigh = SK_SEN_TEMP_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_TEMP_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_TEMP_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_TEMP_LOW_ERR;
pSen->SenReg = LM80_TEMP_IN;
break;
case 1:
pSen->SenDesc = "Voltage PCI";
pSen->SenType = SK_SEN_VOLT;
pSen->SenThreErrHigh = SK_SEN_PCI_5V_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_PCI_5V_HIGH_WARN;
if (pAC->GIni.GIPciBus != SK_PEX_BUS) {
pSen->SenThreWarnLow = SK_SEN_PCI_5V_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_PCI_5V_LOW_ERR;
}
else {
pSen->SenThreWarnLow = 0;
pSen->SenThreErrLow = 0;
}
pSen->SenReg = LM80_VT0_IN;
break;
case 2:
pSen->SenDesc = "Voltage PCI-IO";
pSen->SenType = SK_SEN_VOLT;
pSen->SenThreErrHigh = SK_SEN_PCI_IO_5V_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_PCI_IO_5V_HIGH_WARN;
if (pAC->GIni.GIPciBus != SK_PEX_BUS) {
pSen->SenThreWarnLow = SK_SEN_PCI_IO_3V3_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_PCI_IO_3V3_LOW_ERR;
}
else {
pSen->SenThreWarnLow = 0;
pSen->SenThreErrLow = 0;
}
pSen->SenReg = LM80_VT1_IN;
pSen->SenInit = SK_SEN_DYN_INIT_PCI_IO;
break;
case 3:
if (pAC->GIni.GIGenesis) {
pSen->SenDesc = "Voltage ASIC";
}
else {
pSen->SenDesc = "Voltage VMAIN";
}
pSen->SenType = SK_SEN_VOLT;
pSen->SenThreErrHigh = SK_SEN_VDD_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_VDD_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_VDD_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_VDD_LOW_ERR;
pSen->SenReg = LM80_VT2_IN;
break;
case 4:
if (pAC->GIni.GIGenesis) {
if (pPrt->PhyType == SK_PHY_BCOM) {
pSen->SenDesc = "Voltage PHY A PLL";
pSen->SenThreErrHigh = SK_SEN_PLL_3V3_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_PLL_3V3_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_PLL_3V3_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_PLL_3V3_LOW_ERR;
}
else {
pSen->SenDesc = "Voltage PMA";
pSen->SenThreErrHigh = SK_SEN_PLL_3V3_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_PLL_3V3_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_PLL_3V3_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_PLL_3V3_LOW_ERR;
}
}
else {
pSen->SenDesc = "Voltage VAUX";
pSen->SenThreErrHigh = SK_SEN_VAUX_3V3_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_VAUX_3V3_HIGH_WARN;
if (pAC->GIni.GIVauxAvail) {
pSen->SenThreWarnLow = SK_SEN_VAUX_3V3_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_VAUX_3V3_LOW_ERR;
}
else {
pSen->SenThreErrLow = 0;
pSen->SenThreWarnLow = 0;
}
}
pSen->SenType = SK_SEN_VOLT;
pSen->SenReg = LM80_VT3_IN;
break;
case 5:
if (CHIP_ID_YUKON_2(pAC)) {
if (pAC->GIni.GIChipRev == CHIP_REV_YU_XL_A0) {
pSen->SenDesc = "Voltage Core 1V3";
pSen->SenThreErrHigh = SK_SEN_CORE_1V3_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_CORE_1V3_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_CORE_1V3_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_CORE_1V3_LOW_ERR;
}
else {
pSen->SenDesc = "Voltage Core 1V2";
pSen->SenThreErrHigh = SK_SEN_CORE_1V2_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_CORE_1V2_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_CORE_1V2_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_CORE_1V2_LOW_ERR;
}
}
else {
if (pAC->GIni.GIGenesis) {
pSen->SenDesc = "Voltage PHY 2V5";
pSen->SenThreErrHigh = SK_SEN_PHY_2V5_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_PHY_2V5_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_PHY_2V5_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_PHY_2V5_LOW_ERR;
}
else {
pSen->SenDesc = "Voltage Core 1V5";
pSen->SenThreErrHigh = SK_SEN_CORE_1V5_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_CORE_1V5_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_CORE_1V5_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_CORE_1V5_LOW_ERR;
}
}
pSen->SenType = SK_SEN_VOLT;
pSen->SenReg = LM80_VT4_IN;
break;
case 6:
if (CHIP_ID_YUKON_2(pAC)) {
pSen->SenDesc = "Voltage PHY 1V5";
pSen->SenThreErrHigh = SK_SEN_CORE_1V5_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_CORE_1V5_HIGH_WARN;
if (pAC->GIni.GIPciBus == SK_PEX_BUS) {
pSen->SenThreWarnLow = SK_SEN_CORE_1V5_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_CORE_1V5_LOW_ERR;
}
else {
pSen->SenThreWarnLow = 0;
pSen->SenThreErrLow = 0;
}
}
else {
if (pAC->GIni.GIGenesis) {
pSen->SenDesc = "Voltage PHY B PLL";
}
else {
pSen->SenDesc = "Voltage PHY 3V3";
}
pSen->SenThreErrHigh = SK_SEN_PLL_3V3_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_PLL_3V3_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_PLL_3V3_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_PLL_3V3_LOW_ERR;
}
pSen->SenType = SK_SEN_VOLT;
pSen->SenReg = LM80_VT5_IN;
break;
case 7:
if (pAC->GIni.GIGenesis) {
pSen->SenDesc = "Speed Fan";
pSen->SenType = SK_SEN_FAN;
pSen->SenThreErrHigh = SK_SEN_FAN_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_FAN_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_FAN_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_FAN_LOW_ERR;
pSen->SenReg = LM80_FAN2_IN;
}
else {
pSen->SenDesc = "Voltage PHY 2V5";
pSen->SenType = SK_SEN_VOLT;
pSen->SenThreErrHigh = SK_SEN_PHY_2V5_HIGH_ERR;
pSen->SenThreWarnHigh = SK_SEN_PHY_2V5_HIGH_WARN;
pSen->SenThreWarnLow = SK_SEN_PHY_2V5_LOW_WARN;
pSen->SenThreErrLow = SK_SEN_PHY_2V5_LOW_ERR;
pSen->SenReg = LM80_VT6_IN;
}
break;
default:
SK_ERR_LOG(pAC, SK_ERRCL_INIT | SK_ERRCL_SW,
SKERR_I2C_E001, SKERR_I2C_E001MSG);
break;
}
pSen->SenValue = 0;
pSen->SenErrFlag = SK_SEN_ERR_OK;
pSen->SenErrCts = 0;
pSen->SenBegErrTS = 0;
pSen->SenState = SK_SEN_IDLE;
if (pSen->SenThreWarnLow != 0) {
pSen->SenRead = SkLm80ReadSensor;
}
pSen->SenDev = LM80_ADDR;
}
#ifndef SK_DIAG
pAC->I2c.DummyReads = pAC->I2c.MaxSens;
#endif /* !SK_DIAG */
/* Clear TWSI IRQ */
SK_OUT32(IoC, B2_I2C_IRQ, I2C_CLR_IRQ);
/* Now we are I/O initialized */
pAC->I2c.InitLevel = SK_INIT_IO;
return(0);
} /* SkI2cInit1 */
