/******************************************************************************
*
* ip_VLANInit - initialize "port-based VLANs" for the specified enet unit.
*/
static void
ip_VLANInit(int ethUnit)
{
int phyUnit;
uint32_t phyBase;
uint32_t phyReg;
phyBase = IP_GLOBALREGBASE;
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (IP_ETHUNIT(phyUnit) != ethUnit) {
continue;
}
phy_reg_write(phyBase, IP_GLOBAL_PHY29_ADDR,
IP_GLOBAL_PHY29_24_REG + ((phyUnit == 5) ? (phyUnit + 1) : phyUnit),
IP_VLAN_TABLE_SETTING(phyUnit));
/* Send all packets to all ports */
phyReg = phy_reg_read(phyBase, IP_GLOBAL_PHY30_ADDR, IP_GLOBAL_PHY30_1_REG);
phyReg = phyReg | ((1 << phyUnit) << IP_VLAN1_OUTPUT_PORT_MASK_S);
phy_reg_write(phyBase, IP_GLOBAL_PHY30_ADDR, IP_GLOBAL_PHY30_1_REG, phyReg);
}
phyReg = phy_reg_read(phyBase, IP_GLOBAL_PHY30_ADDR, IP_GLOBAL_PHY30_9_REG);
phyReg = phyReg | TAG_VLAN_ENABLE;
phyReg = phyReg & ~VID_INDX_SEL_M;
phy_reg_write(phyBase, IP_GLOBAL_PHY30_ADDR, IP_GLOBAL_PHY30_9_REG, phyReg);
}
BOOL
adm_phySpeed(int ethUnit)
{
int phyUnit;
uint16_t phyHwStatus;
uint32_t phyBase;
uint32_t phyAddr;
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
if (adm_phyIsLinkAlive(phyUnit)) {
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phyHwStatus = phy_reg_read(phyBase, phyAddr, ADM_LINK_PARTNER_ABILITY);
if (phyHwStatus & ADM_LINK_100BASETX) {
return AG7100_PHY_SPEED_100TX;
}
}
}
return AG7100_PHY_SPEED_10T;
}
/******************************************************************************
*
* adm_phyIsDuplexFull - Determines whether the phy ports associated with the
* specified device are FULL or HALF duplex.
*
* RETURNS:
* 1 --> FULL
* 0 --> HALF
*/
int
adm_phyIsFullDuplex(int ethUnit)
{
int phyUnit;
uint32_t phyBase;
uint32_t phyAddr;
uint16_t phyHwStatus;
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
if (adm_phyIsLinkAlive(phyUnit)) {
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phyHwStatus = phy_reg_read(phyBase, phyAddr, ADM_LINK_PARTNER_ABILITY);
if ((phyHwStatus & ADM_LINK_100BASETX_FULL_DUPLEX) ||
(phyHwStatus & ADM_LINK_10BASETX_FULL_DUPLEX)) {
return TRUE;
}
}
return -1;
}
return FALSE;
}
unsigned int
athrs_ar8033_phy_read(int ethUnit, unsigned int phy_addr, unsigned int reg_addr)
{
return phy_reg_read(0x1,phy_addr,reg_addr);
}
/******************************************************************************
*
* ip_phyIsDuplexFull - Determines whether the phy ports associated with the
* specified device are FULL or HALF duplex.
*
* RETURNS:
* 1 --> FULL
* 0 --> HALF
*/
int
ip_phyIsFullDuplex(int ethUnit)
{
int phyUnit;
uint32_t phyBase;
uint32_t phyAddr;
uint16_t phyHwStatus;
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (!IP_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
if (ip_phyIsLinkAlive(phyUnit)) {
phyBase = IP_PHYBASE(phyUnit);
phyAddr = IP_PHYADDR(phyUnit);
phyHwStatus = phy_reg_read(phyBase, phyAddr, IP_LINK_PARTNER_ABILITY);
printk("ipPhy.c: phyHwStatus 0x%x\n",phyHwStatus);
if ((phyHwStatus & IP_LINK_100BASETX_FULL_DUPLEX) ||
(phyHwStatus & IP_LINK_10BASETX_FULL_DUPLEX)) {
return TRUE;
}
}
return -1;
}
return FALSE;
}
/******************************************************************************
*
* adm_phyIsLinkAlive - test to see if the specified link is alive
*
* RETURNS:
* TRUE --> link is alive
* FALSE --> link is down
*/
BOOL
adm_phyIsLinkAlive(int phyUnit)
{
uint16_t phyHwStatus;
uint32_t phyBase;
uint32_t phyAddr;
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phyHwStatus = phy_reg_read(phyBase, phyAddr, ADM_PHY_STATUS);
if (phyHwStatus & ADM_STATUS_LINK_PASS) {
return TRUE;
} else {
return FALSE;
}
}
int ethernetext_chk_link_mode(void) {
int32_t link;
uint16_t data;
if ((phy_id & M_PHY_ID) == PHY_ID_LAN8710A) {
data = phy_reg_read(PHY_SP_CTL_STS_REG);
switch (((uint32_t)data >> 2) & 0x00000007) {
case 0x0001:
link = HALF_10M;
break;
case 0x0005:
link = FULL_10M;
break;
case 0x0002:
link = HALF_TX;
break;
case 0x0006:
link = FULL_TX;
break;
default:
link = NEGO_FAIL;
break;
}
} else {
int
adm_phyIsUp(int ethUnit)
{
int phyUnit;
uint16_t phyHwStatus;
admPhyInfo_t *lastStatus;
int linkCount = 0;
int lostLinks = 0;
int gainedLinks = 0;
uint32_t phyBase;
uint32_t phyAddr;
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
lastStatus = &admPhyInfo[phyUnit];
phyHwStatus = phy_reg_read(phyBase, phyAddr, ADM_PHY_STATUS);
if (lastStatus->isPhyAlive) { /* last known link status was ALIVE */
/* See if we've lost link */
if (phyHwStatus & ADM_STATUS_LINK_PASS) {
linkCount++;
} else {
lostLinks++;
#ifdef COBRA_TODO
mv_flushATUDB(phyUnit);
#endif
DRV_PRINT(DRV_DEBUG_PHYCHANGE,("\nenet%d port%d down\n",
ethUnit, phyUnit));
lastStatus->isPhyAlive = FALSE;
}
} else { /* last known link status was DEAD */
/* Check for AutoNegotiation complete */
if (ADM_AUTONEG_DONE(phyHwStatus)) {
//printk("autoneg done\n");
gainedLinks++;
linkCount++;
DRV_PRINT(DRV_DEBUG_PHYCHANGE,("\nenet%d port%d up\n",
ethUnit, phyUnit));
lastStatus->isPhyAlive = TRUE;
}
}
}
return (linkCount);
#if 0
if (linkCount == 0) {
if (lostLinks) {
/* We just lost the last link for this MAC */
phyLinkLost(ethUnit);
}
} else {
if (gainedLinks == linkCount) {
/* We just gained our first link(s) for this MAC */
phyLinkGained(ethUnit);
}
}
#endif
}
BOOL
adm_phySetup(int ethUnit)
{
int phyUnit, global;
uint16_t phyHwStatus;
uint16_t timeout;
int liveLinks = 0;
uint32_t phyBase = 0;
BOOL foundPhy = FALSE;
uint32_t phyAddr;
static int inited = 0;
/* Reset PHYs*/
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phy_reg_write(phyBase, phyAddr, ADM_PHY_CONTROL,
ADM_CTRL_SOFTWARE_RESET);
}
/*
* After the phy is reset, it takes a little while before
* it can respond properly.
*/
sysMsDelay(300);
/* See if there's any configuration data for this enet */
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = ADM_PHYBASE(phyUnit);
foundPhy = TRUE;
break;
}
if (!foundPhy) {
return FALSE; /* No PHY's configured for this ethUnit */
}
/* start auto negogiation on each phy */
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phy_reg_write(phyBase, phyAddr, ADM_AUTONEG_ADVERT,
ADM_ADVERTISE_ALL);
phy_reg_write(phyBase, phyAddr, ADM_PHY_CONTROL,
ADM_CTRL_AUTONEGOTIATION_ENABLE | ADM_CTRL_START_AUTONEGOTIATION);
}
/*
* Wait up to .75 seconds for ALL associated PHYs to finish
* autonegotiation. The only way we get out of here sooner is
* if ALL PHYs are connected AND finish autonegotiation.
*/
timeout=5;
for (phyUnit=0; (phyUnit < ADM_PHY_MAX) /*&& (timeout > 0) */; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
for (;;) {
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phyHwStatus = phy_reg_read(phyBase, phyAddr, ADM_PHY_STATUS);
if (ADM_AUTONEG_DONE(phyHwStatus)) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Neg Success\n", phyUnit));
break;
}
if (timeout == 0) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Negogiation timeout\n", phyUnit));
break;
}
if (--timeout == 0) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Negogiation timeout\n", phyUnit));
break;
}
sysMsDelay(150);
}
}
/*
* All PHYs have had adequate time to autonegotiate.
* Now initialize software status.
*
* It's possible that some ports may take a bit longer
* to autonegotiate; but we can't wait forever. They'll
* get noticed by mv_phyCheckStatusChange during regular
* polling activities.
*/
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
if (adm_phyIsLinkAlive(phyUnit)) {
liveLinks++;
ADM_IS_PHY_ALIVE(phyUnit) = TRUE;
} else {
ADM_IS_PHY_ALIVE(phyUnit) = FALSE;
}
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("eth%d: Phy Status=%4.4x\n",
ethUnit,
phy_reg_read(ADM_PHYBASE(phyUnit),
ADM_PHYADDR(phyUnit),
ADM_PHY_STATUS)));
}
/*
* XXX
*/
phy_reg_write(0, 0, 0x10, 0x50);
return (liveLinks > 0);
}
BOOL
adm_phySetup(int ethUnit)
{
int phyUnit;
uint16_t phyHwStatus;
uint16_t timeout;
int liveLinks = 0;
uint32_t phyBase = 0;
BOOL foundPhy = FALSE;
uint32_t phyAddr;
/* Reset PHYs*/
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phy_reg_write(phyBase, phyAddr, ADM_PHY_CONTROL,
ADM_CTRL_SOFTWARE_RESET);
}
/*
* After the phy is reset, it takes a little while before
* it can respond properly.
*/
mdelay(300);
/* See if there's any configuration data for this enet */
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = ADM_PHYBASE(phyUnit);
foundPhy = TRUE;
break;
}
if (!foundPhy) {
return FALSE; /* No PHY's configured for this ethUnit */
}
/* start auto negogiation on each phy */
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phy_reg_write(phyBase, phyAddr, ADM_AUTONEG_ADVERT,
ADM_ADVERTISE_ALL);
phy_reg_write(phyBase, phyAddr, ADM_PHY_CONTROL,
ADM_CTRL_AUTONEGOTIATION_ENABLE | ADM_CTRL_START_AUTONEGOTIATION);
}
/*
* Wait up to .75 seconds for ALL associated PHYs to finish
* autonegotiation. The only way we get out of here sooner is
* if ALL PHYs are connected AND finish autonegotiation.
*/
timeout=5;
for (phyUnit=0; (phyUnit < ADM_PHY_MAX) /*&& (timeout > 0) */; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
for (;;) {
phyBase = ADM_PHYBASE(phyUnit);
phyAddr = ADM_PHYADDR(phyUnit);
phyHwStatus = phy_reg_read(phyBase, phyAddr, ADM_PHY_STATUS);
if (ADM_AUTONEG_DONE(phyHwStatus)) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Neg Success\n", phyUnit));
break;
}
if (timeout == 0) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Negogiation timeout\n", phyUnit));
break;
}
if (--timeout == 0) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Negogiation timeout\n", phyUnit));
break;
}
mdelay(150);
}
}
/*
* All PHYs have had adequate time to autonegotiate.
* Now initialize software status.
*
* It's possible that some ports may take a bit longer
* to autonegotiate; but we can't wait forever. They'll
* get noticed by mv_phyCheckStatusChange during regular
* polling activities.
*/
for (phyUnit=0; phyUnit < ADM_PHY_MAX; phyUnit++) {
if (!ADM_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
if (adm_phyIsLinkAlive(phyUnit)) {
liveLinks++;
ADM_IS_PHY_ALIVE(phyUnit) = TRUE;
} else {
ADM_IS_PHY_ALIVE(phyUnit) = FALSE;
}
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("eth%d: Phy Status=%4.4x\n",
ethUnit,
phy_reg_read(ADM_PHYBASE(phyUnit),
ADM_PHYADDR(phyUnit),
ADM_PHY_STATUS)));
}
#ifdef CONFIG_MV6060
/* added by lsz 30Apri07 to configure port vlan registers */
/****************************************************************************
Port VLan:
---------------------------------------------------------------
| | Port6 | Port5 | Port4 | Port3 | Port2 | Port1 | Port0 |
---------------------------------------------------------------
| Port0 | 0 | 1 | 0 | 0 | 0 | 0 | 0 |
---------------------------------------------------------------
| Port1 | 0 | 1 | 1 | 1 | 1 | 0 | 0 |
---------------------------------------------------------------
| Port2 | 0 | 1 | 1 | 1 | 0 | 1 | 0 |
---------------------------------------------------------------
| Port3 | 0 | 1 | 1 | 0 | 1 | 1 | 0 |
---------------------------------------------------------------
| Port4 | 0 | 1 | 0 | 1 | 1 | 1 | 0 |
---------------------------------------------------------------
| Port5 | 0 | 0 | 1 | 1 | 1 | 1 | 1 |
---------------------------------------------------------------
| Port6 | 0 | 0 | 0 | 0 | 0 | 0 | 0 |
---------------------------------------------------------------
Port 0: Wan
Port 1~4: Lan
e.g. Port 0 is 010 0000, i.e. 0x20.
****************************************************************************/
#define PORT_VALN_MAP_REG 0x06
uint32_t portAddr[7] = {0x8, 0x9, 0xA, 0xB, 0xC, 0xD, 0xE};
phy_reg_write(0, portAddr[0], PORT_VALN_MAP_REG, 0x103E);
phy_reg_write(0, portAddr[1], PORT_VALN_MAP_REG, 0x103D);
phy_reg_write(0, portAddr[2], PORT_VALN_MAP_REG, 0x103B);
phy_reg_write(0, portAddr[3], PORT_VALN_MAP_REG, 0x1037);
phy_reg_write(0, portAddr[4], PORT_VALN_MAP_REG, 0x102F);
phy_reg_write(0, portAddr[5], PORT_VALN_MAP_REG, 0x101F);
/* phy_reg_write(0, portAddr[0], PORT_VALN_MAP_REG, 0x1020);
phy_reg_write(0, portAddr[1], PORT_VALN_MAP_REG, 0x103C);
phy_reg_write(0, portAddr[2], PORT_VALN_MAP_REG, 0x103A);
phy_reg_write(0, portAddr[3], PORT_VALN_MAP_REG, 0x1036);
phy_reg_write(0, portAddr[4], PORT_VALN_MAP_REG, 0x102E);
phy_reg_write(0, portAddr[5], PORT_VALN_MAP_REG, 0x101F);*/
//phy_reg_write(0, portAddr[6], PORT_VALN_MAP_REG, 0x0000);
/* added by lsz to configure header mode registers */
#define PORT_CONTROL_REG 0x04
uint16_t reg_data = 0x8803; /* Flow Control | Header Mode | Forwarding */
phy_reg_write(0, portAddr[0], PORT_CONTROL_REG, 0x8003);
phy_reg_write(0, portAddr[1], PORT_CONTROL_REG, 0x8003);
phy_reg_write(0, portAddr[2], PORT_CONTROL_REG, 0x8003);
phy_reg_write(0, portAddr[3], PORT_CONTROL_REG, 0x8003);
phy_reg_write(0, portAddr[4], PORT_CONTROL_REG, 0x8003);
phy_reg_write(0, portAddr[5], PORT_CONTROL_REG, 0x8003);
phy_reg_write(0, 0x1E, PORT_CONTROL_REG, reg_data);
#else
/*
* XXX
*/
phy_reg_write(0, 0, 0x10, 0x50);
#endif
return (liveLinks > 0);
}
int ethernetext_init(ethernet_cfg_t *p_ethcfg) {
int32_t i;
uint16_t val;
CPGSTBCR7 &= ~(CPG_STBCR7_BIT_MSTP74); /* enable ETHER clock */
/* P4_2(PHY Reset) */
GPIOP4 &= ~0x0004; /* Outputs low level */
GPIOPMC4 &= ~0x0004; /* Port mode */
GPIOPM4 &= ~0x0004; /* Output mode */
/* GPIO P1 P1_14(ET_COL) */
GPIOPMC1 |= 0x4000;
GPIOPFCAE1 &= ~0x4000;
GPIOPFCE1 |= 0x4000;
GPIOPFC1 |= 0x4000;
/* P3_0(ET_TXCLK), P3_3(ET_MDIO), P3_4(ET_RXCLK), P3_5(ET_RXER), P3_6(ET_RXDV) */
GPIOPMC3 |= 0x0079;
GPIOPFCAE3 &= ~0x0079;
GPIOPFCE3 &= ~0x0079;
GPIOPFC3 |= 0x0079;
GPIOPIPC3 |= 0x0079;
/* P5_9(ET_MDC) */
GPIOPMC5 |= 0x0200;
GPIOPFCAE5 &= ~0x0200;
GPIOPFCE5 &= ~0x0200;
GPIOPFC5 |= 0x0200;
GPIOPIPC5 |= 0x0200;
/* P10_1(ET_TXER), P10_2(ET_TXEN), P10_3(ET_CRS), P10_4(ET_TXD0), P10_5(ET_TXD1) */
/* P10_6(ET_TXD2), P10_7(ET_TXD3), P10_8(ET_RXD0), P10_9(ET_RXD1), P10_10(ET_RXD2), P10_11(ET_RXD3) */
GPIOPMC10 |= 0x0FFE;
GPIOPFCAE10 &= ~0x0FFE;
GPIOPFCE10 |= 0x0FFE;
GPIOPFC10 |= 0x0FFE;
GPIOPIPC10 |= 0x0FFE;
/* Resets the E-MAC,E-DMAC */
lan_reg_reset();
/* PHY Reset */
GPIOP4 &= ~0x0004; /* P4_2 Outputs low level */
wait_100us(250); /* 25msec */
GPIOP4 |= 0x0004; /* P4_2 Outputs high level */
wait_100us(100); /* 10msec */
/* Resets the PHY-LSI */
phy_reg_write(BASIC_MODE_CONTROL_REG, 0x8000);
for (i = 10000; i > 0; i--) {
val = phy_reg_read(BASIC_MODE_CONTROL_REG);
if (((uint32_t)val & 0x8000uL) == 0) {
break; /* Reset complete */
}
}
phy_id = ((uint32_t)phy_reg_read(PHY_IDENTIFIER1_REG) << 16)
| (uint32_t)phy_reg_read(PHY_IDENTIFIER2_REG);
Interrupt_priority = p_ethcfg->int_priority;
p_recv_cb_fnc = p_ethcfg->recv_cb;
start_stop = 1;
if (p_ethcfg->ether_mac != NULL) {
(void)memcpy(mac_addr, p_ethcfg->ether_mac, sizeof(mac_addr));
} else {
ethernet_address(mac_addr); /* Get MAC Address */
}
return 0;
}
/*****************************************************************************
*
* ip_phyShow - Dump the state of a PHY.
* There are two sets of registers for each phy port:
* "phy registers" and
* "switch port registers"
* We dump 'em all, plus the switch global registers.
*/
void
ip_phyShow(int phyUnit)
{
int i;
uint16_t value;
uint32_t phyBase;
uint32_t phyAddr;
if (!ip_validPhyId(phyUnit)) {
return;
}
phyBase = IP_PHYBASE(phyUnit);
phyAddr = IP_PHYADDR(phyUnit);
printk("PHY state for PHY%d (enet%d, phyBase 0x%8x, phyAddr 0x%x)\n",
phyUnit,
IP_ETHUNIT(phyUnit),
IP_PHYBASE(phyUnit),
IP_PHYADDR(phyUnit));
printk("PHY Registers:\n");
for (i=0; i < ipPhyNumRegs; i++) {
value = phy_reg_read(phyBase, phyAddr, ipPhyRegisterTable[i].regNum);
printk("Reg %02d (0x%02x) %s = 0x%08x\n",
ipPhyRegisterTable[i].regNum,
ipPhyRegisterTable[i].regNum,
ipPhyRegisterTable[i].regIdString,
value);
}
phyBase = IP_GLOBALREGBASE;
printk("Switch Global Registers:\n");
printk("Phy29 Registers:\n");
for (i=0; i < ipPhy29GlobalNumRegs; i++) {
value = phy_reg_read(phyBase, IP_GLOBAL_PHY29_ADDR,
ipPhy29GlobalRegisterTable[i].regNum);
printk("Reg %02d (0x%02x) %s = 0x%08x\n",
ipPhy29GlobalRegisterTable[i].regNum,
ipPhy29GlobalRegisterTable[i].regNum,
ipPhy29GlobalRegisterTable[i].regIdString,
value);
}
printk("Phy30 Registers:\n");
for (i=0; i < ipPhy30GlobalNumRegs; i++) {
value = phy_reg_read(phyBase, IP_GLOBAL_PHY30_ADDR,
ipPhy30GlobalRegisterTable[i].regNum);
printk("Reg %02d (0x%02x) %s = 0x%08x\n",
ipPhy30GlobalRegisterTable[i].regNum,
ipPhy30GlobalRegisterTable[i].regNum,
ipPhy30GlobalRegisterTable[i].regIdString,
value);
}
printk("Phy31 Registers:\n");
for (i=0; i < ipPhy31GlobalNumRegs; i++) {
value = phy_reg_read(phyBase, IP_GLOBAL_PHY31_ADDR,
ipPhy31GlobalRegisterTable[i].regNum);
printk("Reg %02d (0x%02x) %s = 0x%08x\n",
ipPhy31GlobalRegisterTable[i].regNum,
ipPhy31GlobalRegisterTable[i].regNum,
ipPhy31GlobalRegisterTable[i].regIdString,
value);
}
}
BOOL
ip_phySetup(int ethUnit)
{
int phyUnit;
uint16_t phyHwStatus;
uint16_t timeout;
int liveLinks = 0;
uint32_t phyBase = 0;
BOOL foundPhy = FALSE;
uint32_t phyAddr;
/* Reset PHYs*/
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (!IP_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = IP_PHYBASE(phyUnit);
phyAddr = IP_PHYADDR(phyUnit);
phy_reg_write(phyBase, phyAddr, IP_PHY_CONTROL,
IP_CTRL_SOFTWARE_RESET);
}
/*
* After the phy is reset, it takes a little while before
* it can respond properly.
*/
mdelay(300);
/* Verify that the switch is what we think it is, and that it's ready */
ip_verifyReady(ethUnit);
/* See if there's any configuration data for this enet */
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (IP_ETHUNIT(phyUnit) != ethUnit) {
continue;
}
phyBase = IP_PHYBASE(phyUnit);
foundPhy = TRUE;
break;
}
if (!foundPhy) {
return FALSE; /* No PHY's configured for this ethUnit */
}
#ifdef COBRA_TODO
/* Initialize global switch settings */
/* Initialize the aging time */
/* Set the learning properties */
#endif
/* start auto negogiation on each phy */
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (!IP_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = IP_PHYBASE(phyUnit);
phyAddr = IP_PHYADDR(phyUnit);
phy_reg_write(phyBase, phyAddr, IP_AUTONEG_ADVERT,
IP_ADVERTISE_ALL);
phy_reg_write(phyBase, phyAddr, IP_PHY_CONTROL,
IP_CTRL_AUTONEGOTIATION_ENABLE | IP_CTRL_START_AUTONEGOTIATION);
}
/*
* Wait up to .75 seconds for ALL associated PHYs to finish
* autonegotiation. The only way we get out of here sooner is
* if ALL PHYs are connected AND finish autonegotiation.
*/
timeout=5;
for (phyUnit=0; (phyUnit < IP_PHY_MAX) /*&& (timeout > 0) */; phyUnit++) {
if (!IP_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
for (;;) {
phyBase = IP_PHYBASE(phyUnit);
phyAddr = IP_PHYADDR(phyUnit);
phyHwStatus = phy_reg_read(phyBase, phyAddr, IP_PHY_STATUS);
if (IP_AUTONEG_DONE(phyHwStatus)) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Neg Success\n", phyUnit));
break;
}
if (timeout == 0) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Negogiation timeout\n", phyUnit));
break;
}
if (--timeout == 0) {
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Port %d, Negogiation timeout\n", phyUnit));
break;
}
mdelay(150);
}
}
/*
* All PHYs have had adequate time to autonegotiate.
* Now initialize software status.
*
* It's possible that some ports may take a bit longer
* to autonegotiate; but we can't wait forever. They'll
* get noticed by mv_phyCheckStatusChange during regular
* polling activities.
*/
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (!IP_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
if (ip_phyIsLinkAlive(phyUnit)) {
liveLinks++;
IP_IS_PHY_ALIVE(phyUnit) = TRUE;
} else {
IP_IS_PHY_ALIVE(phyUnit) = FALSE;
}
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("eth%d: Phy Status=%4.4x\n",
ethUnit,
phy_reg_read(IP_PHYBASE(phyUnit),
IP_PHYADDR(phyUnit),
IP_PHY_STATUS)));
}
ip_VLANInit(ethUnit);
return (liveLinks > 0);
}
static void
ip_verifyReady(int ethUnit)
{
int phyUnit;
uint32_t phyBase = 0;
uint32_t phyAddr;
uint16_t phyID1;
uint16_t phyID2;
/*
* The first read to the Phy port registers always fails and
* returns 0. So get things started with a bogus read.
*/
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (!IP_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
phyBase = IP_PHYBASE(phyUnit);
phyAddr = IP_PHYADDR(phyUnit);
phyID1 = phy_reg_read(phyBase, phyAddr, IP_PHY_ID1); /* returns 0 */
break;
}
for (phyUnit=0; phyUnit < IP_PHY_MAX; phyUnit++) {
if (!IP_IS_ETHUNIT(phyUnit, ethUnit)) {
continue;
}
/*******************/
/* Verify phy port */
/*******************/
phyBase = IP_PHYBASE(phyUnit);
phyAddr = IP_PHYADDR(phyUnit);
phyID1 = phy_reg_read(phyBase, phyAddr, IP_PHY_ID1);
if (phyID1 != IP_PHY_ID1_EXPECTATION) {
DRV_PRINT(DRV_DEBUG_PHYERROR,
("Invalid PHY ID1 for enet%d port%d. Expected 0x%04x, read 0x%04x\n",
ethUnit,
phyUnit,
IP_PHY_ID1_EXPECTATION,
phyID1));
return;
}
phyID2 = phy_reg_read(phyBase, phyAddr, IP_PHY_ID2);
if ((phyID2 & IP_OUI_LSB_MASK) != IP_OUI_LSB_EXPECTATION) {
DRV_PRINT(DRV_DEBUG_PHYERROR,
("Invalid PHY ID2 for enet%d port %d. Expected 0x%04x, read 0x%04x\n",
ethUnit,
phyUnit,
IP_OUI_LSB_EXPECTATION,
phyID2));
return;
}
DRV_PRINT(DRV_DEBUG_PHYSETUP,
("Found PHY enet%d port%d: model 0x%x revision 0x%x\n",
ethUnit,
phyUnit,
(phyID2 & IP_MODEL_NUM_MASK) >> IP_MODEL_NUM_SHIFT,
(phyID2 & IP_REV_NUM_MASK) >> IP_REV_NUM_SHIFT));
}
}
