/*
* Copyright 2007,2009 Free Software Foundation, Inc.
* Copyright 2009 Ettus Research LLC
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see .
*/
#ifdef HAVE_CONFIG_H
#include
#endif
#include "../x300/x300_defs.h"
#include "ethernet.h"
#include "cron.h"
#include
#include "wb_i2c.h"
#include "wb_utils.h"
//#include "memory_map.h"
//#include "eth_phy.h"
//#include "pic.h"
//#include "hal_io.h"
//#include "nonstdio.h"
#include
#include
#include "xge_phy.h"
#include "xge_mac.h"
#include
#define VERBOSE 0
#define NETHS 2 // # of ethernet interfaces
static bool links_up[NETHS] = {};
////////////////////////////////////////////////////////////////////////
//
// 10 Gig Ethernet MAC.
//
typedef struct {
volatile uint32_t config; // WO
volatile uint32_t int_pending; // Clear-on-read
volatile uint32_t int_status; // RO
volatile uint32_t int_mask; // RW
volatile uint32_t mdio_data;
volatile uint32_t mdio_addr;
volatile uint32_t mdio_op;
volatile uint32_t mdio_control;
volatile uint32_t gpio;
} xge_regs_t;
#define xge_regs ((xge_regs_t *) base)
#define SFPP_STATUS_MODABS_CHG (1 << 5) // Has MODABS changed since last read?
#define SFPP_STATUS_TXFAULT_CHG (1 << 4) // Has TXFAULT changed since last read?
#define SFPP_STATUS_RXLOS_CHG (1 << 3) // Has RXLOS changed since last read?
#define SFPP_STATUS_MODABS (1 << 2) // MODABS state
#define SFPP_STATUS_TXFAULT (1 << 1) // TXFAULT state
#define SFPP_STATUS_RXLOS (1 << 0) // RXLOS state
int
ethernet_ninterfaces(void)
{
return NETHS;
}
////////////////////////////////////////////////////////////////////////
//
// Clause 45 MDIO used for 10Gig Ethernet has two bus transactions to complete a transfer.
// An initial transaction sets up the address, and a subsequent one transfers the read or write data.
//
static uint32_t
xge_read_mdio(const uint32_t base, const uint32_t address, const uint32_t device, const uint32_t port)
{
// Set register address each iteration
xge_regs->mdio_addr = address;
// Its a clause 45 device. We want to ADDRESS
xge_regs->mdio_op = XGE_MDIO_CLAUSE(CLAUSE45) | XGE_MDIO_OP(MDIO_ADDRESS) | XGE_MDIO_ADDR(port) | XGE_MDIO_MMD(device);
// Start MDIO bus transaction
xge_regs->mdio_control = 1;
// Wait until bus transaction complete
while (xge_regs->mdio_control == 1);
// Its a clause 45 device. We want to READ
xge_regs->mdio_op = XGE_MDIO_CLAUSE(CLAUSE45) | XGE_MDIO_OP(MDIO_READ) | XGE_MDIO_ADDR(port) | XGE_MDIO_MMD(device);
// Start MDIO bus transaction
xge_regs->mdio_control = 1;
// Wait until bus transaction complete
while (xge_regs->mdio_control == 1);
// Read MDIO data
return(xge_regs->mdio_data);
}
static void
xge_write_mdio(const uint32_t base, const uint32_t address, const uint32_t device, const uint32_t port, const uint32_t data)
{
// Set register address each iteration
xge_regs->mdio_addr = address;
// Its a clause 45 device. We want to ADDRESS
xge_regs->mdio_op = XGE_MDIO_CLAUSE(CLAUSE45) | XGE_MDIO_OP(MDIO_ADDRESS) | XGE_MDIO_ADDR(port) | XGE_MDIO_MMD(device);
// Start MDIO bus transaction
xge_regs->mdio_control = 1;
// Wait until bus transaction complete
while (xge_regs->mdio_control == 1);
// Write new value to mdio_write_data reg.
xge_regs->mdio_data = data;
// Its a clause 45 device. We want to WRITE
xge_regs->mdio_op = XGE_MDIO_CLAUSE(CLAUSE45) | XGE_MDIO_OP(MDIO_WRITE) | XGE_MDIO_ADDR(port) | XGE_MDIO_MMD(device);
// Start MDIO bus transaction
xge_regs->mdio_control = 1;
// Wait until bus transaction complete
while (xge_regs->mdio_control == 1);
}
////////////////////////////////////////////////////////////////////////
//
// Clause 22 MDIO used for 1Gig Ethernet has one bus transaction to complete a transfer.
//
static uint32_t
ge_read_mdio(const uint32_t base, const uint32_t address, const uint32_t port)
{
// Its a clause 22 device. We want to READ
xge_regs->mdio_op = XGE_MDIO_CLAUSE(CLAUSE22) | XGE_MDIO_OP(MDIO_C22_READ) | XGE_MDIO_ADDR(port) | address;
// Start MDIO bus transaction
xge_regs->mdio_control = 1;
// Wait until bus transaction complete
while (xge_regs->mdio_control == 1);
// Read MDIO data
return(xge_regs->mdio_data);
}
static void
ge_write_mdio(const uint32_t base, const uint32_t address, const uint32_t port, const uint32_t data)
{
// Write new value to mdio_write_data reg.
xge_regs->mdio_data = data;
// Its a clause 22 device. We want to WRITE
xge_regs->mdio_op = XGE_MDIO_CLAUSE(CLAUSE22) | XGE_MDIO_OP(MDIO_C22_WRITE) | XGE_MDIO_ADDR(port) | address;
// Start MDIO bus transaction
xge_regs->mdio_control = 1;
// Wait until bus transaction complete
while (xge_regs->mdio_control == 1);
}
////////////////////////////////////////////////////////////////////////
//
// Read and write MDIO independent of type
//
static uint32_t read_mdio(const uint8_t eth, const uint32_t address, const uint32_t device, const uint32_t port)
{
const uint32_t rb_addr = (eth==0) ? RB_SFP0_TYPE : RB_SFP1_TYPE;
const uint32_t base = (eth==0) ? SFP0_MAC_BASE : SFP1_MAC_BASE;
if (wb_peek32(SR_ADDR(RB0_BASE, rb_addr)) != 0)
{
return xge_read_mdio(base, address, device, port);
}
else
{
return ge_read_mdio(base, address, port);
}
}
static void write_mdio(const uint8_t eth, const uint32_t address, const uint32_t device, const uint32_t port, const uint32_t data)
{
const uint32_t rb_addr = (eth==0) ? RB_SFP0_TYPE : RB_SFP1_TYPE;
const uint32_t base = (eth==0) ? SFP0_MAC_BASE : SFP1_MAC_BASE;
if (wb_peek32(SR_ADDR(RB0_BASE, rb_addr)) != 0)
{
return xge_write_mdio(base, address, device, port, data);
}
else
{
return ge_write_mdio(base, address, port, data);
}
}
////////////////////////////////////////////////////////////////////////
//
// Read an 8-bit word from a device attached to the PHY's i2c bus.
//
static int
xge_i2c_rd(const uint32_t base, const uint8_t i2c_dev_addr, const uint8_t i2c_word_addr)
{
uint8_t buf;
// IJB. CHECK HERE FOR MODET. Bail immediately if no module
// SFF-8472 defines a hardcoded bus address of 0xA0, an 8bit internal address and a register map.
// Write the random access address to the SPF module
if (wb_i2c_write(base, i2c_dev_addr, &i2c_word_addr, 1) == false)
return(-1);
// Now read back a byte of data
if (wb_i2c_read(base, i2c_dev_addr, &buf, 1) == false)
return(-1);
return((int) buf);
}
////////////////////////////////////////////////////////////////////////
//
// Read identity of SFP+ module for XGE PHY
//
// (base is i2c controller)
static int
xge_read_sfpp_type(const uint32_t base, const uint32_t delay_ms)
{
int x;
// Delay read of SFPP
if (delay_ms)
sleep_ms(delay_ms);
// Read ID code from SFP
x = xge_i2c_rd(base, MODULE_DEV_ADDR, 3);
// I2C Error?
if (x < 0) {
UHD_FW_TRACE(ERROR, "I2C error in SFPP_TYPE.");
return x;
}
// Decode module type. These registers and values are defined in SFF-8472
if (x & 0x01) // Active 1X Infinband Copper
{
goto twinax;
}
if (x & 0x10)
{
UHD_FW_TRACE(DEBUG, "SFFP_TYPE_SR.");
return SFFP_TYPE_SR;
}
if (x & 0x20)
{
UHD_FW_TRACE(DEBUG, "SFFP_TYPE_LR.");
return SFFP_TYPE_LR;
}
if (x & 0x40)
{
UHD_FW_TRACE(DEBUG, "SFFP_TYPE_LRM.");
return SFFP_TYPE_LRM;
}
// Search for legacy 1000-Base SFP types
x = xge_i2c_rd(base, MODULE_DEV_ADDR, 0x6);
if (x < 0) {
UHD_FW_TRACE(ERROR, "I2C error in SFPP_TYPE.");
return x;
}
if (x & 0x01) {
UHD_FW_TRACE(DEBUG, "SFFP_TYPE_1000BASE_SX.");
return SFFP_TYPE_1000BASE_SX;
}
if (x & 0x02) {
UHD_FW_TRACE(DEBUG, "SFFP_TYPE_1000BASE_LX.");
return SFFP_TYPE_1000BASE_LX;
}
if (x & 0x08) {
UHD_FW_TRACE(DEBUG, "SFFP_TYPE_1000BASE_T.");
return SFFP_TYPE_1000BASE_T;
}
// Not one of the standard optical types..now try to deduce if it's twinax aka 10GSFP+CU
// which is not covered explicitly in SFF-8472
x = xge_i2c_rd(base, MODULE_DEV_ADDR, 8);
if (x < 0) {
UHD_FW_TRACE(ERROR, "I2C error in SFPP_TYPE.");
return x;
}
if ((x & 4) == 0) // Passive SFP+ cable type
goto unknown;
// x = xge_i2c_rd(MODULE_DEV_ADDR, 6);
// UHD_FW_TRACE(DEBUG, "SFP+ reg6 read as %x",x);
// if (x < 0)
// return x;
// if (x != 0x04) // Returns 1000Base-CX as Compliance code
// goto unknown;
x = xge_i2c_rd(base, MODULE_DEV_ADDR, 0xA);
if (x < 0) {
UHD_FW_TRACE(ERROR, "I2C error in SFPP_TYPE.");
return x;
}
if (x & 0x80) {
twinax:
// Reports 1200 MBytes/sec fibre channel speed..close enough to 10G ethernet!
x = xge_i2c_rd(base, MODULE_DEV_ADDR, 0x12);
if (x < 0) {
UHD_FW_TRACE(ERROR, "I2C error in SFPP_TYPE.");
return x;
}
UHD_FW_TRACE(DEBUG, "TwinAx.");
// If cable length support is greater than 10M then pick correct type
return x > 10 ? SFFP_TYPE_TWINAX_LONG : SFFP_TYPE_TWINAX;
}
unknown:
UHD_FW_TRACE(WARN, "Unknown SFP+ type.");
// Not a supported Module type
return SFFP_TYPE_UNKNOWN;
}
static void xge_mac_init(const uint32_t base)
{
UHD_FW_TRACE(DEBUG, "Begining XGE MAC init sequence.");
xge_regs->config = XGE_TX_ENABLE;
}
// base is pointer to XGE MAC on Wishbone.
static void xge_phy_init(const uint8_t eth, const uint32_t mdio_port)
{
int x;
// Read LASI Ctrl register to capture state.
//y = xge_read_mdio(0x9002,XGE_MDIO_DEVICE_PMA,XGE_MDIO_ADDR_PHY_A);
UHD_FW_TRACE(DEBUG, "Begining XGE PHY init sequence.");
// Software reset
x = read_mdio(eth, 0x0, XGE_MDIO_DEVICE_PMA,mdio_port);
x = x | (1 << 15);
write_mdio(eth, 0x0,XGE_MDIO_DEVICE_PMA,mdio_port,x);
uint32_t loopCount = 0;
while(x&(1<<15)) {
x = read_mdio(eth, 0x0,XGE_MDIO_DEVICE_PMA,mdio_port);
if( loopCount++ > 200 ) break; // usually succeeds after 22 or 23 polls
}
}
void update_eth_state(const uint32_t eth, const uint32_t sfp_type)
{
const bool old_link_up = links_up[eth];
const uint32_t status_reg_addr = (eth==0) ? RB_SFP0_STATUS : RB_SFP1_STATUS;
uint32_t sfpp_status = wb_peek32(SR_ADDR(RB0_BASE, status_reg_addr)) & 0xFFFF;
if ((sfpp_status & (SFPP_STATUS_RXLOS|SFPP_STATUS_TXFAULT|SFPP_STATUS_MODABS)) == 0) {
//SFP+ pin state changed. Reinitialize PHY and MAC
if (sfp_type == RB_SFP_10G_ETH) {
xge_mac_init((eth==0) ? SFP0_MAC_BASE : SFP1_MAC_BASE);
xge_phy_init(eth, MDIO_PORT);
} else {
//No-op for 1G
}
int8_t timeout = 100;
bool link_up = false;
do {
if (sfp_type == RB_SFP_10G_ETH) {
link_up = ((read_mdio(eth, XGE_MDIO_STATUS1,XGE_MDIO_DEVICE_PMA,MDIO_PORT)) & (1 << 2)) != 0;
} else {
link_up = ((wb_peek32(SR_ADDR(RB0_BASE, status_reg_addr)) >> 16) & 0x1) != 0;
}
} while (!link_up && timeout-- > 0);
links_up[eth] = link_up;
}
else
{
links_up[eth] = false;
}
if (!old_link_up && links_up[eth]) u3_net_stack_send_arp_request(eth, u3_net_stack_get_ip_addr(eth));
}
void poll_sfpp_status(const uint32_t sfp)
{
uint32_t type = wb_peek32(SR_ADDR(RB0_BASE, (sfp==0) ? RB_SFP0_TYPE : RB_SFP1_TYPE));
uint32_t status = wb_peek32(SR_ADDR(RB0_BASE, (sfp==0) ? RB_SFP0_STATUS : RB_SFP1_STATUS));
if (status & SFPP_STATUS_MODABS_CHG) {
// MODDET has changed state since last checked
if (status & SFPP_STATUS_MODABS) {
// MODDET is high, module currently removed.
UHD_FW_TRACE_FSTR(INFO, "An SFP+ module has been removed from eth port %d.", sfp);
} else {
// MODDET is low, module currently inserted.
// Return status.
UHD_FW_TRACE_FSTR(INFO, "A new SFP+ module has been inserted into eth port %d.", sfp);
if (type == RB_SFP_10G_ETH) {
xge_read_sfpp_type((sfp==0) ? I2C0_BASE : I2C2_BASE,1);
}
}
}
if (status & SFPP_STATUS_RXLOS_CHG) {
UHD_FW_TRACE_FSTR(DEBUG, "SFP%1d RXLOS changed state: %d", sfp, (status & SFPP_STATUS_RXLOS));
}
if (status & SFPP_STATUS_TXFAULT_CHG) {
UHD_FW_TRACE_FSTR(DEBUG, "SFP%1d TXFAULT changed state: %d", sfp, ((status & SFPP_STATUS_TXFAULT) >> 1));
}
if (status & SFPP_STATUS_MODABS_CHG) {
UHD_FW_TRACE_FSTR(DEBUG, "SFP%1d MODABS changed state: %d", sfp, ((status & SFPP_STATUS_MODABS) >> 2));
}
//update the link up status
const bool old_link_up = links_up[sfp];
if (type == RB_SFP_AURORA) {
links_up[sfp] = ((wb_peek32(SR_ADDR(RB0_BASE, (sfp==0) ? RB_SFP0_STATUS : RB_SFP1_STATUS)) >> 16) & 0x1) != 0;
} else {
if ((status & SFPP_STATUS_RXLOS_CHG) ||
(status & SFPP_STATUS_TXFAULT_CHG) ||
(status & SFPP_STATUS_MODABS_CHG))
{
update_eth_state(sfp, type);
}
}
if (old_link_up != links_up[sfp]) {
UHD_FW_TRACE_FSTR(INFO, "The link on SFP port %u is %s", sfp, links_up[sfp]?"up":"down");
}
}
void ethernet_init(const uint32_t sfp)
{
#ifdef UHD_FW_TRACE_LEVEL
uint32_t x = wb_peek32(SR_ADDR(RB0_BASE, (sfp==0) ? RB_SFP0_STATUS : RB_SFP1_STATUS ));
UHD_FW_TRACE_FSTR(DEBUG, "SFP%1d SFP initial state: RXLOS: %d TXFAULT: %d MODABS: %d",
sfp,
(x & SFPP_STATUS_RXLOS),
((x & SFPP_STATUS_TXFAULT) >> 1),
((x & SFPP_STATUS_MODABS) >> 2));
#endif
update_eth_state(sfp, wb_peek32(SR_ADDR(RB0_BASE, (sfp==0) ? RB_SFP0_TYPE : RB_SFP1_TYPE)));
}
//
// Debug code to verbosely read XGE MDIO registers below here.
//
void decode_reg(uint32_t address, uint32_t device, uint32_t data)
{
UHD_FW_TRACE_FSTR(DEBUG,
"[MDIO Register Dump for Addr=%x, Device=%x]\n- Raw Value = %x",
address, device, data);
int x;
switch(address) {
case XGE_MDIO_CONTROL1:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "CONTROL1: %x = ", data);
for (x=15; x >= 0 ; x--)
if ((data & (1 << x)) != 0)
// Bits set.
switch(x) {
case 15: UHD_FW_TRACE_SHORT(DEBUG, "Reset,"); break;
case 14: UHD_FW_TRACE_SHORT(DEBUG, "Loopback,"); break;
case 11: UHD_FW_TRACE_SHORT(DEBUG, "Low Power Mode,"); break;
case 5:case 4:case 3:case 2: UHD_FW_TRACE_SHORT(DEBUG, "RESERVED speed value,"); break;
case 0: UHD_FW_TRACE_SHORT(DEBUG, "PMA loopback,"); break;
} //else
// Bits clear.
//switch (x) {
//case 13: case 6: UHD_FW_TRACE_SHORT(DEBUG, " None 10Gb/s speed set!"); break;
//}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XGE_MDIO_STATUS1:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "STATUS1: %x = ", data);
for (x=15; x >= 0 ; x--)
if ((data & (1 << x)) != 0)
// Bits set.
switch(x) {
case 7: UHD_FW_TRACE_SHORT(DEBUG, "Fault Detected,"); break;
case 2: UHD_FW_TRACE_SHORT(DEBUG, "Link is Up,"); break;
case 1: UHD_FW_TRACE_SHORT(DEBUG, "Supports Low Power,"); break;
} else
// Bits Clear
switch(x) {
case 2: UHD_FW_TRACE_SHORT(DEBUG, "Link is Down,"); break;
}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XGE_MDIO_SPEED:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "SPEED ABILITY: %x = ", data);
for (x=15; x >= 0 ; x--)
if ((data & (1 << x)) != 0)
// Bits set.
switch(x) {
case 15:case 14:case 13:case 12:case 11:case 10:case 9:
case 8:case 7:case 6:case 5:case 4:case 3:case 2:case 1: UHD_FW_TRACE_SHORT(DEBUG, "RESERVED bits set!,"); break;
case 0: UHD_FW_TRACE_SHORT(DEBUG, "Capable of 10Gb/s,");
} else
// Bits clear.
switch(x) {
case 0: UHD_FW_TRACE_SHORT(DEBUG, "Incapable of 10Gb/s,"); break;
}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XGE_MDIO_DEVICES1:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "DEVICES IN PACKAGE: %x = ", data);
for (x=15; x >= 0 ; x--)
if ((data & (1 << x)) != 0)
// Bits set.
switch(x) {
case 7: UHD_FW_TRACE_SHORT(DEBUG, "Auto-Negotiation,"); break;
case 6: UHD_FW_TRACE_SHORT(DEBUG, "TC,"); break;
case 5: UHD_FW_TRACE_SHORT(DEBUG, "DTE XS,"); break;
case 4: UHD_FW_TRACE_SHORT(DEBUG, "PHY XS,"); break;
case 3: UHD_FW_TRACE_SHORT(DEBUG, "PCS,"); break;
case 2: UHD_FW_TRACE_SHORT(DEBUG, "WIS,"); break;
case 1: UHD_FW_TRACE_SHORT(DEBUG, "PMD/PMA,"); break;
case 0: UHD_FW_TRACE_SHORT(DEBUG, "Clause 22 registers,"); break;
}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XGE_MDIO_DEVICES2:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "DEVICES IN PACKAGE (cont): %x = ", data);
for (x=15; x >= 0 ; x--)
if ((data & (1 << x)) != 0)
// Bits set.
switch(x) {
case 15: UHD_FW_TRACE_SHORT(DEBUG, "Vendor device 2,"); break;
case 14: UHD_FW_TRACE_SHORT(DEBUG, "Vendor device 1,"); break;
case 13: UHD_FW_TRACE_SHORT(DEBUG, "Clause 22 extension,"); break;
}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XGE_MDIO_CONTROL2:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "CONTROL2: %x = ", data);
// PMA/PMD
if (device == XGE_MDIO_DEVICE_PMA)
switch((data & 0xf)) {
case 0xF: UHD_FW_TRACE_SHORT(DEBUG, "10BASE-T,"); break;
case 0xE: UHD_FW_TRACE_SHORT(DEBUG, "100BASE-TX,"); break;
case 0xD: UHD_FW_TRACE_SHORT(DEBUG, "1000BASE-KX,"); break;
case 0xC: UHD_FW_TRACE_SHORT(DEBUG, "1000BASE-T,"); break;
case 0xB: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-KR,"); break;
case 0xA: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-KX4,"); break;
case 0x9: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-T,"); break;
case 0x8: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-LRM,"); break;
case 0x7: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-SR,"); break;
case 0x6: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-LR,"); break;
case 0x5: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-ER,"); break;
case 0x4: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-LX4,"); break;
// case 0x3: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-SW,"); break;
// case 0x2: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-LW,"); break;
// case 0x1: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-EW,"); break;
case 0x0: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-CX4,"); break;
} else if (device == XGE_MDIO_DEVICE_PCS)
// PCS
switch((data & 0x3)) {
case 0x3: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-T PCS,"); break;
case 0x2: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-W PCS,"); break;
case 0x1: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-X PCS,"); break;
case 0x0: UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-R PCS,"); break;
}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XGE_MDIO_STATUS2:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "STATUS2: %x = ", data);
for (x=15; x >= 0 ; x--)
if ((data & (1 << x)) != 0)
// Bits set.
switch(x) {
case 15: if ((data & (1 << 14)) == 0) UHD_FW_TRACE_SHORT(DEBUG, "Device responding,"); break;
case 13: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "Able detect a Tx fault,"); break;
case 12: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "Able detect an Rx fault,"); break;
case 11: UHD_FW_TRACE_SHORT(DEBUG, "Fault on Tx path,"); break;
case 10: UHD_FW_TRACE_SHORT(DEBUG, "Fault on Rx path,"); break;
case 9: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "Extended abilities in Reg1.11,"); break;
case 8: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "Able to disable TX,"); break;
case 7: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-SR,"); break;
case 6: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-LR,"); break;
case 5: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-ER,"); break;
case 4: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-LX4,"); break;
case 3: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-SW,"); break;
case 2: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-LW,"); break;
case 1: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "10GBASE-EW,"); break;
case 0: if (device == XGE_MDIO_DEVICE_PMA) UHD_FW_TRACE_SHORT(DEBUG, "loopback,"); break;
}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XGE_MDIO_LANESTATUS:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "LANE STATUS: %x = ", data);
for (x=15; x >= 0 ; x--)
if ((data & (1 << x)) != 0)
// Bits set.
switch(x) {
case 12: UHD_FW_TRACE_SHORT(DEBUG, "Lanes aligned,"); break;
case 11: UHD_FW_TRACE_SHORT(DEBUG, "Able to generate test patterns,"); break;
case 3: UHD_FW_TRACE_SHORT(DEBUG, "Lane 3 synced,"); break;
case 2: UHD_FW_TRACE_SHORT(DEBUG, "Lane 2 synced,"); break;
case 1: UHD_FW_TRACE_SHORT(DEBUG, "Lane 1 synced,"); break;
case 0: UHD_FW_TRACE_SHORT(DEBUG, "Lane 0 synced,"); break;
} else
// Bits clear
switch(x) {
case 3: UHD_FW_TRACE_SHORT(DEBUG, "Lane 3 not synced,"); break;
case 2: UHD_FW_TRACE_SHORT(DEBUG, "Lane 2 not synced,"); break;
case 1: UHD_FW_TRACE_SHORT(DEBUG, "Lane 1 not synced,"); break;
case 0: UHD_FW_TRACE_SHORT(DEBUG, "Lane 0 not synced,"); break;
}
UHD_FW_TRACE_SHORT(DEBUG, " \n");
break;
case XILINX_CORE_VERSION:
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "XILINX CORE VERSION: %x ",data);
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "Version: %d.%d ",((data&0xf000)>>12),((data&0xf00)>>8));
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "Patch: %d ",((data&0xE)>>1));
UHD_FW_TRACE_SHORT(DEBUG, " \n");
if (data&0x1) UHD_FW_TRACE(WARN, "Evaluation Version of core");
break;
default:
UHD_FW_TRACE_SHORT(DEBUG, "Register @ address: ");
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "%x",address);
UHD_FW_TRACE_SHORT(DEBUG, " has value: ");
UHD_FW_TRACE_FSTR_SHORT(DEBUG, "%x\n",data);
break;
}
}
void
dump_mdio_regs(const uint8_t eth, uint32_t mdio_port)
{
volatile unsigned int x;
int y;
unsigned int regs_a[9] = {0,1,4,5,6,7,8,32,33};
unsigned int regs_b[10] = {0,1,4,5,6,7,8,10,11,65535};
for (y = 0; y < 10; y++)
{
// Read MDIO data
x = read_mdio(eth,regs_b[y],XGE_MDIO_DEVICE_PMA,mdio_port);
decode_reg(regs_b[y],XGE_MDIO_DEVICE_PMA,x);
}
for (y = 0; y < 9; y++)
{
// Read MDIO data
x = read_mdio(eth,regs_a[y],XGE_MDIO_DEVICE_PCS,mdio_port);
decode_reg(regs_a[y],XGE_MDIO_DEVICE_PCS,x);
}
/* for (y = 0; y < 8; y++) */
/* { */
/* // Read MDIO data */
/* x = xge_read_mdio(base,regs_a[y],XGE_MDIO_DEVICE_PHY_XS,mdio_port); */
/* decode_reg(regs_a[y],XGE_MDIO_DEVICE_PHY_XS,x); */
/* } */
/* for (y = 0; y < 8; y++) */
/* { */
/* // Read MDIO data */
/* x = xge_read_mdio(base,regs_a[y],XGE_MDIO_DEVICE_DTE_XS,mdio_port); */
/* decode_reg(regs_a[y],XGE_MDIO_DEVICE_DTE_XS,x); */
/* } */
}
bool ethernet_get_link_up(const uint32_t eth)
{
return links_up[eth];
}