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Merge branch 'master' of ssh://sha@octopus/home/git/projects/u-boot-v2

This commit is contained in:
Sascha Hauer 2008-02-20 18:06:20 +01:00
commit e912912a48
3 changed files with 405 additions and 537 deletions

View File

@ -4,53 +4,21 @@
*
* This file is based on mpc4200fec.c,
* (C) Copyright Motorola, Inc., 2000
*
* See file CREDITS for list of people who contributed to this
* project.
*
* 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 2 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, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston,
* MA 02111-1307 USA
*/
#define DEBUG
#include <common.h>
//#include <asm/arch/mpc5xxx.h>
#include <asm/arch/mpc5xxx.h>
#include <malloc.h>
#include <net.h>
#include <init.h>
#include <miiphy.h>
#include <driver.h>
//#include <asm/arch/sdma.h>
//#include <asm/arch/fec.h>
#include <asm-ppc/arch-mpc5200/fec.h>
//#include <asm/arch/clocks.h>
#include <asm/arch/sdma.h>
#include <asm/arch/fec.h>
#include <asm/arch/clocks.h>
#include <miiphy.h>
#include "fec_mpc5200.h"
#include <asm/io.h>
#ifdef CONFIG_ARCH_IMX27
#include <asm/arch/imx-regs.h>
#include <clock.h>
#include <asm/arch/clock.h>
#include <xfuncs.h>
#endif
extern int memory_display(char *addr, ulong offs, ulong nbytes, int size);
#define CONFIG_PHY_ADDR 1 /* FIXME */
typedef struct {
@ -71,38 +39,36 @@ static int fec5xxx_miiphy_read(struct miiphy_device *mdev, uint8_t phyAddr,
uint32 reg; /* convenient holder for the PHY register */
uint32 phy; /* convenient holder for the PHY */
uint64_t start;
int timeout = 0xffff;
/*
* reading from any PHY's register is done by properly
* programming the FEC's MII data register.
*/
writel(FEC_IEVENT_MII, &fec->eth->ievent);
reg = regAddr << FEC_MII_DATA_RA_SHIFT;
phy = phyAddr << FEC_MII_DATA_PA_SHIFT;
writel(FEC_MII_DATA_ST | FEC_MII_DATA_OP_RD | FEC_MII_DATA_TA | phy | reg, &fec->eth->mii_data);
fec->eth->mii_data = (FEC_MII_DATA_ST | FEC_MII_DATA_OP_RD | FEC_MII_DATA_TA | phy | reg);
/*
* wait for the related interrupt
*/
start = get_time_ns();
while (!(readl(&fec->eth->ievent) & FEC_IEVENT_MII)) {
if (is_timeout(start, MSECOND)) {
printf("Read MDIO failed...\n");
return -1;
}
while ((timeout--) && (!(fec->eth->ievent & FEC_IEVENT_MII))) ;
if (timeout == 0) {
debug("Read MDIO failed...\n");
return -1;
}
/*
* clear mii interrupt bit
*/
writel(FEC_IEVENT_MII, &fec->eth->ievent);
fec->eth->ievent = FEC_IEVENT_MII;
/*
* it's now safe to read the PHY's register
*/
*retVal = readl(&fec->eth->mii_data);
*retVal = (uint16) fec->eth->mii_data;
return 0;
}
@ -115,171 +81,148 @@ static int fec5xxx_miiphy_write(struct miiphy_device *mdev, uint8_t phyAddr,
uint32 reg; /* convenient holder for the PHY register */
uint32 phy; /* convenient holder for the PHY */
uint64_t start;
int timeout = 0xffff;
reg = regAddr << FEC_MII_DATA_RA_SHIFT;
phy = phyAddr << FEC_MII_DATA_PA_SHIFT;
writel(FEC_MII_DATA_ST | FEC_MII_DATA_OP_WR |
FEC_MII_DATA_TA | phy | reg | data, &fec->eth->mii_data);
fec->eth->mii_data = (FEC_MII_DATA_ST | FEC_MII_DATA_OP_WR |
FEC_MII_DATA_TA | phy | reg | data);
/*
* wait for the MII interrupt
*/
start = get_time_ns();
while (!(readl(&fec->eth->ievent) & FEC_IEVENT_MII)) {
if (is_timeout(start, MSECOND)) {
printf("Write MDIO failed...\n");
return -1;
}
while ((timeout--) && (!(fec->eth->ievent & FEC_IEVENT_MII))) ;
if (timeout == 0) {
debug("Write MDIO failed...\n");
return -1;
}
/*
* clear MII interrupt bit
*/
writel(FEC_IEVENT_MII, &fec->eth->ievent);
fec->eth->ievent = FEC_IEVENT_MII;
return 0;
}
#ifdef CONFIG_MPC5200
static int mpc5xxx_fec_rx_task_enable(mpc5xxx_fec_priv *fec)
{
SDMA_TASK_ENABLE(FEC_RECV_TASK_NO);
return 0;
}
static int mpc5xxx_fec_rx_task_disable(mpc5xxx_fec_priv *fec)
{
SDMA_TASK_DISABLE(FEC_RECV_TASK_NO);
return 0;
}
static int mpc5xxx_fec_tx_task_enable(mpc5xxx_fec_priv *fec)
{
SDMA_TASK_ENABLE(FEC_XMIT_TASK_NO);
return 0;
}
static int mpc5xxx_fec_tx_task_disable(mpc5xxx_fec_priv *fec)
{
SDMA_TASK_DISABLE(FEC_XMIT_TASK_NO);
return 0;
}
#endif
#ifdef CONFIG_ARCH_IMX27
static int mpc5xxx_fec_rx_task_enable(mpc5xxx_fec_priv *fec)
{
writel(1 << 24, &fec->eth->r_des_active);
return 0;
}
static int mpc5xxx_fec_rx_task_disable(mpc5xxx_fec_priv *fec)
{
return 0;
}
static int mpc5xxx_fec_tx_task_enable(mpc5xxx_fec_priv *fec)
{
writel(1 << 24, &fec->eth->x_des_active);
return 0;
}
static int mpc5xxx_fec_tx_task_disable(mpc5xxx_fec_priv *fec)
{
return 0;
}
#endif
/**
* allocate and link buffers for the receive task
* @param[in] fec all we know about the device yet
* @param[in] count receive buffer count to be allocated
* @param[in] size size of each receive buffer
* @return 0 on success
*
* We need some alignment for the buffers. Thy must be
* aligned to a specific boundary each. See RDB_ALIGNMENT
*/
static int mpc5xxx_fec_rbd_init(mpc5xxx_fec_priv *fec, int count, int size)
static int mpc5xxx_fec_rbd_init(mpc5xxx_fec_priv *fec)
{
int ix;
char *data;
static int once = 0;
uint32 p;
printf("%s\n", __FUNCTION__);
size += RDB_ALIGNMENT; /* enlarge the size for alignment */
for (ix = 0; ix < count; ix++) {
for (ix = 0; ix < FEC_RBD_NUM; ix++) {
if (!once) {
p = (uint32)xzalloc(size);
p += RDB_ALIGNMENT - 1;
p &= ~(RDB_ALIGNMENT - 1);
writel(p, &fec->rbdBase[ix].dataPointer);
data = (char *)malloc(FEC_MAX_PKT_SIZE);
if (data == NULL) {
printf ("RBD INIT FAILED\n");
return -1;
}
fec->rbdBase[ix].dataPointer = (uint32)data;
}
writew(FEC_RBD_EMPTY, &fec->rbdBase[ix].status);
writew(0, &fec->rbdBase[ix].dataLength);
fec->rbdBase[ix].status = FEC_RBD_EMPTY;
fec->rbdBase[ix].dataLength = 0;
}
once ++;
/*
* have the last RBD to close the ring
*/
writew(FEC_RBD_WRAP | readl(&fec->rbdBase[ix - 1].status), &fec->rbdBase[ix - 1].status);
fec->rbdBase[ix - 1].status |= FEC_RBD_WRAP;
fec->rbdIndex = 0;
return 0;
}
/**
* initialize buffers for the transmit task
* @param[in] fec all we know about the device yet
*
* Nothing special here to do. We ony using one bufffer
* for all transmit operations.
*/
static void mpc5xxx_fec_tbd_init(mpc5xxx_fec_priv *fec)
{
writew(FEC_TBD_WRAP, &fec->tbdBase[0].status);
int ix;
for (ix = 0; ix < FEC_TBD_NUM; ix++) {
fec->tbdBase[ix].status = 0;
}
/*
* Have the last TBD to close the ring
*/
fec->tbdBase[ix - 1].status |= FEC_TBD_WRAP;
/*
* Initialize some indices
*/
fec->tbdIndex = 0;
fec->usedTbdIndex = 0;
fec->cleanTbdNum = FEC_TBD_NUM;
}
/**
* Mark the given read buffer descriptor as free
* @param[in] last 1 if this is the last buffer descriptor in the chain, else 0
* @param[in] pRbd buffer descriptor to mark free again
*/
static void mpc5xxx_fec_rbd_clean(int last, FEC_RBD *pRbd)
static void mpc5xxx_fec_rbd_clean(mpc5xxx_fec_priv *fec, volatile FEC_RBD * pRbd)
{
/*
* Reset buffer descriptor as empty
*/
if (last)
writew(FEC_RBD_WRAP | FEC_RBD_EMPTY, &pRbd->status);
if ((fec->rbdIndex) == (FEC_RBD_NUM - 1))
pRbd->status = (FEC_RBD_WRAP | FEC_RBD_EMPTY);
else
writew(FEC_RBD_EMPTY, &pRbd->status);
pRbd->status = FEC_RBD_EMPTY;
pRbd->dataLength = 0;
/*
* no data in it
* Now, we have an empty RxBD, restart the SmartDMA receive task
*/
writew(0, &pRbd->dataLength);
SDMA_TASK_ENABLE(FEC_RECV_TASK_NO);
/*
* Increment BD count
*/
fec->rbdIndex = (fec->rbdIndex + 1) % FEC_RBD_NUM;
}
static int mpc5xxx_fec_get_hwaddr(struct eth_device *dev, unsigned char *mac)
static void mpc5xxx_fec_tbd_scrub(mpc5xxx_fec_priv *fec)
{
volatile FEC_TBD *pUsedTbd;
/*
* process all the consumed TBDs
*/
while (fec->cleanTbdNum < FEC_TBD_NUM) {
pUsedTbd = &fec->tbdBase[fec->usedTbdIndex];
if (pUsedTbd->status & FEC_TBD_READY) {
debug("Cannot clean TBD %d, in use\n", fec->cleanTbdNum);
return;
}
/*
* clean this buffer descriptor
*/
if (fec->usedTbdIndex == (FEC_TBD_NUM - 1))
pUsedTbd->status = FEC_TBD_WRAP;
else
pUsedTbd->status = 0;
/*
* update some indeces for a correct handling of the TBD ring
*/
fec->cleanTbdNum++;
fec->usedTbdIndex = (fec->usedTbdIndex + 1) % FEC_TBD_NUM;
}
}
static int mpc5xxx_fec_get_ethaddr(struct eth_device *dev, unsigned char *mac)
{
/* no eeprom */
return -1;
}
static int mpc5xxx_fec_set_hwaddr(struct eth_device *dev, unsigned char *mac)
static int mpc5xxx_fec_set_ethaddr(struct eth_device *dev, unsigned char *mac)
{
mpc5xxx_fec_priv *fec = (mpc5xxx_fec_priv *)dev->priv;
//#define WTF_IS_THIS
#ifdef WTF_IS_THIS
uint32 crc = 0xffffffff; /* initial value */
uint8 currByte; /* byte for which to compute the CRC */
int byte; /* loop - counter */
int bit; /* loop - counter */
uint32 crc = 0xffffffff; /* initial value */
/*
* The algorithm used is the following:
@ -321,17 +264,12 @@ static int mpc5xxx_fec_set_hwaddr(struct eth_device *dev, unsigned char *mac)
fec->eth->iaddr1 = 0;
fec->eth->iaddr2 = (1 << crc);
}
#else
writel(0, &fec->eth->iaddr1);
writel(0, &fec->eth->iaddr2);
writel(0, &fec->eth->gaddr1);
writel(0, &fec->eth->gaddr2);
#endif
/*
* Set physical address
*/
writel((mac[0] << 24) + (mac[1] << 16) + (mac[2] << 8) + mac[3], &fec->eth->paddr1);
writel((mac[4] << 24) + (mac[5] << 16) + 0x8808, &fec->eth->paddr2);
fec->eth->paddr1 = (mac[0] << 24) + (mac[1] << 16) + (mac[2] << 8) + mac[3];
fec->eth->paddr2 = (mac[4] << 24) + (mac[5] << 16) + 0x8808;
return 0;
}
@ -339,26 +277,25 @@ static int mpc5xxx_fec_set_hwaddr(struct eth_device *dev, unsigned char *mac)
static int mpc5xxx_fec_init(struct eth_device *dev)
{
mpc5xxx_fec_priv *fec = (mpc5xxx_fec_priv *)dev->priv;
#ifdef CONFIG_MPC5200
struct mpc5xxx_sdma *sdma = (struct mpc5xxx_sdma *)MPC5XXX_SDMA;
#endif
debug("mpc5xxx_fec_init... Begin\n");
/*
* Initialize RxBD/TxBD rings
*/
mpc5xxx_fec_rbd_init(fec, FEC_RBD_NUM, FEC_MAX_PKT_SIZE);
mpc5xxx_fec_rbd_init(fec);
mpc5xxx_fec_tbd_init(fec);
/*
* Clear FEC-Lite interrupt event register(IEVENT)
*/
writel(0xffffffff, &fec->eth->ievent);
fec->eth->ievent = 0xffffffff;
/*
* Set interrupt mask register
*/
writel(0x00000000, &fec->eth->imask);
fec->eth->imask = 0x00000000;
/*
* Set FEC-Lite receive control register(R_CNTRL):
@ -367,94 +304,84 @@ static int mpc5xxx_fec_init(struct eth_device *dev)
/*
* Frame length=1518; 7-wire mode
*/
writel(0x05ee0020, &fec->eth->r_cntrl); /* FIXME 0x05ee0000 */
fec->eth->r_cntrl = 0x05ee0020; /*0x05ee0000;FIXME */
} else {
/*
* Frame length=1518; MII mode;
*/
writel(0x05ee0024, &fec->eth->r_cntrl); /* FIXME 0x05ee0004 */
fec->eth->r_cntrl = 0x05ee0024; /*0x05ee0004;FIXME */
}
if (fec->xcv_type != SEVENWIRE) {
/*
* Set MII_SPEED = (1/(mii_speed * 2)) * System Clock
* and do not drop the Preamble.
*/
#ifdef CONFIG_MPC5200
writel(((get_ipb_clock() >> 20) / 5) << 1, &fec->eth->mii_speed); /* No MII for 7-wire mode */
#endif
#ifdef CONFIG_ARCH_IMX27
writel(((imx_get_ahbclk() >> 20) / 5) << 1, &fec->eth->mii_speed); /* No MII for 7-wire mode */
#endif
fec->eth->mii_speed = (((get_ipb_clock() >> 20) / 5) << 1); /* No MII for 7-wire mode */
}
/*
* Set Opcode/Pause Duration Register
*/
writel(0x00010020, &fec->eth->op_pause); /* FIXME 0xffff0020; */
fec->eth->op_pause = 0x00010020; /*FIXME 0xffff0020; */
#ifdef CONFIG_MPC5200
/*
* Set Rx FIFO alarm and granularity value
*/
writel(0x0c000000 | (readl(&fec->eth->rfifo_cntrl) & ~0x0f000000)), &fec->eth->rfifo_cntrl);
writel(0x0000030c, &fec->eth->rfifo_alarm);
fec->eth->rfifo_cntrl = 0x0c000000
| (fec->eth->rfifo_cntrl & ~0x0f000000);
fec->eth->rfifo_alarm = 0x0000030c;
if (readl(&fec->eth->rfifo_status) & 0x00700000 ) {
if (fec->eth->rfifo_status & 0x00700000 ) {
debug("mpc5xxx_fec_init() RFIFO error\n");
}
/*
* Set Tx FIFO granularity value
*/
writel(0x0c000000 | (readl(&fec->eth->tfifo_cntrl)& ~0x0f000000), &fec->eth->tfifo_cntrl);
fec->eth->tfifo_cntrl = 0x0c000000
| (fec->eth->tfifo_cntrl & ~0x0f000000);
debug("tfifo_status: 0x%08x\n", readl(&fec->eth->tfifo_status));
debug("tfifo_alarm: 0x%08x\n", readl(&fec->eth->tfifo_alarm));
debug("tfifo_status: 0x%08x\n", fec->eth->tfifo_status);
debug("tfifo_alarm: 0x%08x\n", fec->eth->tfifo_alarm);
/*
* Set transmit fifo watermark register(X_WMRK), default = 64
*/
writel(0x00000080, &fec->eth->tfifo_alarm);
/*
* Turn ON cheater FSM: ????
*/
writel(0x03000000, &fec->eth->xmit_fsm);
#endif
writel(0x2, &fec->eth->x_wmrk);
fec->eth->tfifo_alarm = 0x00000080;
fec->eth->x_wmrk = 0x2;
/*
* Set multicast address filter
*/
writel(0x00000000, &fec->eth->gaddr1);
writel(0x00000000, &fec->eth->gaddr2);
fec->eth->gaddr1 = 0x00000000;
fec->eth->gaddr2 = 0x00000000;
/*
* Turn ON cheater FSM: ????
*/
fec->eth->xmit_fsm = 0x03000000;
#ifdef CONFIG_MPC5200
/*
* Set priority of different initiators
*/
sdma->IPR0 = 7; /* always */
sdma->IPR3 = 6; /* Eth RX */
sdma->IPR4 = 5; /* Eth Tx */
#endif
#ifdef CONFIG_ARCH_IMX27
writel(2048-16, &fec->eth->emrbr);
#endif
/*
* Clear SmartDMA task interrupt pending bits
*/
// SDMA_CLEAR_IEVENT(FEC_RECV_TASK_NO);
SDMA_CLEAR_IEVENT(FEC_RECV_TASK_NO);
/*
* Initialize SmartDMA parameters stored in SRAM
*/
#ifdef CONFIG_MPC5200
*(volatile int *)FEC_TBD_BASE = (int)fec->tbdBase;
*(volatile int *)FEC_RBD_BASE = (int)fec->rbdBase;
*(volatile int *)FEC_TBD_NEXT = (int)fec->tbdBase;
*(volatile int *)FEC_RBD_NEXT = (int)fec->rbdBase;
#endif
debug("mpc5xxx_fec_init... Done \n");
if (fec->xcv_type != SEVENWIRE)
@ -467,8 +394,6 @@ static int mpc5xxx_fec_open(struct eth_device *edev)
{
mpc5xxx_fec_priv *fec = (mpc5xxx_fec_priv *)edev->priv;
printf("%s\n", __FUNCTION__);
#if defined(CONFIG_MPC5200)
struct mpc5xxx_sdma *sdma = (struct mpc5xxx_sdma *)MPC5XXX_SDMA;
/*
@ -478,27 +403,17 @@ static int mpc5xxx_fec_open(struct eth_device *edev)
sdma->PtdCntrl |= 0x00000001;
#endif
#if 0
writel(0x00000000, &fec->eth->x_cntrl); /* half-duplex, heartbeat disabled */
#else
writel(1 << 2, &fec->eth->x_cntrl); /* full-duplex, heartbeat disabled */
#endif
fec->rbdIndex = 0;
fec->eth->x_cntrl = 0x00000000; /* half-duplex, heartbeat disabled */
/*
* Enable FEC-Lite controller
*/
#if defined(CONFIG_MPC5200)
writel(0x00000006 | readl(&fec->eth->ecntrl), &fec->eth->ecntrl);
#endif
#if defined(CONFIG_ARCH_IMX27)
writel(0x00000002 | readl(&fec->eth->ecntrl), &fec->eth->ecntrl);
#endif
fec->eth->ecntrl |= 0x00000006;
/*
* Enable SmartDMA receive task
*/
mpc5xxx_fec_rx_task_enable(fec);
SDMA_TASK_ENABLE(FEC_RECV_TASK_NO);
if (fec->xcv_type != SEVENWIRE) {
miiphy_wait_aneg(&fec->miiphy);
@ -519,21 +434,20 @@ static void mpc5xxx_fec_halt(struct eth_device *dev)
/*
* issue graceful stop command to the FEC transmitter if necessary
*/
writel(0x00000001 | readl(&fec->eth->x_cntrl), &fec->eth->x_cntrl);
fec->eth->x_cntrl |= 0x00000001;
/*
* wait for graceful stop to register
*/
while ((counter--) && (!(readl(&fec->eth->ievent) & FEC_IEVENT_GRA)))
;
while ((counter--) && (!(fec->eth->ievent & FEC_IEVENT_GRA))) ;
/*
* Disable SmartDMA tasks
*/
mpc5xxx_fec_tx_task_disable(fec);
mpc5xxx_fec_rx_task_disable(fec);
SDMA_TASK_DISABLE (FEC_XMIT_TASK_NO);
SDMA_TASK_DISABLE (FEC_RECV_TASK_NO);
#ifdef CONFIG_MPC5200
#if defined(CONFIG_MPC5200)
/*
* Turn on COMM bus prefetch in the MGT5200 BestComm after we're
* done. It doesn't work w/ the current receive task.
@ -544,17 +458,15 @@ static void mpc5xxx_fec_halt(struct eth_device *dev)
/*
* Disable the Ethernet Controller
*/
writel(0, &fec->eth->ecntrl);
fec->eth->ecntrl &= 0xfffffffd;
#ifdef CONFIG_MPC5200
/*
* Clear FIFO status registers
*/
writel(0x00700000 & readl(&fec->eth->rfifo_status), &fec->eth->rfifo_status);
writel(0x00700000 & readl(&fec->eth->tfifo_status), &fec->eth->tfifo_status);
#endif
fec->eth->rfifo_status &= 0x00700000;
fec->eth->tfifo_status &= 0x00700000;
// writel(0x01000000, &fec->eth->reset_cntrl);
// fec->eth->reset_cntrl = 0x01000000;
debug("Ethernet task stopped\n");
}
@ -562,39 +474,39 @@ static void mpc5xxx_fec_halt(struct eth_device *dev)
#ifdef DEBUG_FIFO
static void tfifo_print(char *devname, mpc5xxx_fec_priv *fec)
{
if ((readl(&fec->eth->tfifo_lrf_ptr) != readl(&fec->eth->tfifo_lwf_ptr))
|| (readl(&fec->eth->tfifo_rdptr) != readl(&fec->eth->tfifo_wrptr))) {
if ((fec->eth->tfifo_lrf_ptr != fec->eth->tfifo_lwf_ptr)
|| (fec->eth->tfifo_rdptr != fec->eth->tfifo_wrptr)) {
printf("ecntrl: 0x%08x\n", readl(&fec->eth->ecntrl));
printf("ievent: 0x%08x\n", readl(&fec->eth->ievent));
printf("x_status: 0x%08x\n", readl(&fec->eth->x_status));
printf("tfifo: status 0x%08x\n", readl(&fec->eth->tfifo_status));
printf("ecntrl: 0x%08x\n", fec->eth->ecntrl);
printf("ievent: 0x%08x\n", fec->eth->ievent);
printf("x_status: 0x%08x\n", fec->eth->x_status);
printf("tfifo: status 0x%08x\n", fec->eth->tfifo_status);
printf(" control 0x%08x\n", readl(&fec->eth->tfifo_cntrl));
printf(" lrfp 0x%08x\n", readl(&fec->eth->tfifo_lrf_ptr));
printf(" lwfp 0x%08x\n", readl(&fec->eth->tfifo_lwf_ptr));
printf(" alarm 0x%08x\n", readl(&fec->eth->tfifo_alarm));
printf(" readptr 0x%08x\n", readl(&fec->eth->tfifo_rdptr));
printf(" writptr 0x%08x\n", readl(&fec->eth->tfifo_wrptr));
printf(" control 0x%08x\n", fec->eth->tfifo_cntrl);
printf(" lrfp 0x%08x\n", fec->eth->tfifo_lrf_ptr);
printf(" lwfp 0x%08x\n", fec->eth->tfifo_lwf_ptr);
printf(" alarm 0x%08x\n", fec->eth->tfifo_alarm);
printf(" readptr 0x%08x\n", fec->eth->tfifo_rdptr);
printf(" writptr 0x%08x\n", fec->eth->tfifo_wrptr);
}
}
static void rfifo_print(char *devname, mpc5xxx_fec_priv *fec)
{
if ((readl(&fec->eth->rfifo_lrf_ptr) != readl(&fec->eth->rfifo_lwf_ptr))
|| (readl(&fec->eth->rfifo_rdptr) != readl(&fec->eth->rfifo_wrptr))) {
if ((fec->eth->rfifo_lrf_ptr != fec->eth->rfifo_lwf_ptr)
|| (fec->eth->rfifo_rdptr != fec->eth->rfifo_wrptr)) {
printf("ecntrl: 0x%08x\n", readl(&fec->eth->ecntrl));
printf("ievent: 0x%08x\n", readl(&fec->eth->ievent));
printf("x_status: 0x%08x\n", readl(&fec->eth->x_status));
printf("rfifo: status 0x%08x\n", readl(&fec->eth->rfifo_status));
printf("ecntrl: 0x%08x\n", fec->eth->ecntrl);
printf("ievent: 0x%08x\n", fec->eth->ievent);
printf("x_status: 0x%08x\n", fec->eth->x_status);
printf("rfifo: status 0x%08x\n", fec->eth->rfifo_status);
printf(" control 0x%08x\n", readl(&fec->eth->rfifo_cntrl));
printf(" lrfp 0x%08x\n", readl(&fec->eth->rfifo_lrf_ptr));
printf(" lwfp 0x%08x\n", readl(&fec->eth->rfifo_lwf_ptr));
printf(" alarm 0x%08x\n", readl(&fec->eth->rfifo_alarm));
printf(" readptr 0x%08x\n", readl(&fec->eth->rfifo_rdptr));
printf(" writptr 0x%08x\n", readl(&fec->eth->rfifo_wrptr));
printf(" control 0x%08x\n", fec->eth->rfifo_cntrl);
printf(" lrfp 0x%08x\n", fec->eth->rfifo_lrf_ptr);
printf(" lwfp 0x%08x\n", fec->eth->rfifo_lwf_ptr);
printf(" alarm 0x%08x\n", fec->eth->rfifo_alarm);
printf(" readptr 0x%08x\n", fec->eth->rfifo_rdptr);
printf(" writptr 0x%08x\n", fec->eth->rfifo_wrptr);
}
}
#else
@ -602,7 +514,7 @@ static void tfifo_print(char *devname, mpc5xxx_fec_priv *fec)
{
}
static void __maybe_unused rfifo_print(char *devname, mpc5xxx_fec_priv *fec)
static void rfifo_print(char *devname, mpc5xxx_fec_priv *fec)
{
}
#endif /* DEBUG_FIFO */
@ -617,12 +529,15 @@ static int mpc5xxx_fec_send(struct eth_device *dev, void *eth_data,
mpc5xxx_fec_priv *fec = (mpc5xxx_fec_priv *)dev->priv;
volatile FEC_TBD *pTbd;
// printf("%s length=%d data=0x%08x\n", __FUNCTION__, data_length, eth_data);
#ifdef DEBUG_FIFO
debug_fifo("tbd status: 0x%04x\n", fec->tbdBase[0].status);
tfifo_print(dev->name, fec);
#endif
/*
* Clear Tx BD ring at first
*/
mpc5xxx_fec_tbd_scrub(fec);
/*
* Check for valid length of data.
*/
@ -630,18 +545,42 @@ static int mpc5xxx_fec_send(struct eth_device *dev, void *eth_data,
return -1;
}
/*
* Check the number of vacant TxBDs.
*/
if (fec->cleanTbdNum < 1) {
printf("No available TxBDs ...\n");
return -1;
}
/*
* Get the first TxBD to send the mac header
*/
pTbd = &fec->tbdBase[0];
pTbd = &fec->tbdBase[fec->tbdIndex];
pTbd->dataLength = data_length;
pTbd->dataPointer = (uint32)eth_data;
pTbd->status = FEC_TBD_LAST | FEC_TBD_TC | FEC_TBD_READY | FEC_TBD_WRAP;
pTbd->status |= FEC_TBD_LAST | FEC_TBD_TC | FEC_TBD_READY;
fec->tbdIndex = (fec->tbdIndex + 1) % FEC_TBD_NUM;
/*
* Kick the MII i/f
*/
if (fec->xcv_type != SEVENWIRE) {
uint16 phyStatus;
fec5xxx_miiphy_read(&fec->miiphy, 0, 0x1, &phyStatus);
}
/*
* Enable SmartDMA transmit task
*/
mpc5xxx_fec_tx_task_enable(fec);
// tfifo_print(dev->name, fec);
SDMA_TASK_ENABLE (FEC_XMIT_TASK_NO);
// tfifo_print(dev->name, fec);
fec->cleanTbdNum -= 1;
/*
* wait until frame is sent .
@ -659,35 +598,33 @@ static int mpc5xxx_fec_recv(struct eth_device *dev)
* This command pulls one frame from the card
*/
mpc5xxx_fec_priv *fec = (mpc5xxx_fec_priv *)dev->priv;
FEC_RBD *pRbd = &fec->rbdBase[fec->rbdIndex];
volatile FEC_RBD *pRbd = &fec->rbdBase[fec->rbdIndex];
unsigned long ievent;
int frame_length, len = 0;
NBUF *frame;
uchar buff[FEC_MAX_PKT_SIZE];
// printf("%s\n", __FUNCTION__);
/*
* Check if any critical events have happened
*/
ievent = readl(&fec->eth->ievent);
writel(ievent, &fec->eth->ievent);
ievent = fec->eth->ievent;
fec->eth->ievent = ievent;
if (ievent & (FEC_IEVENT_BABT | FEC_IEVENT_XFIFO_ERROR |
FEC_IEVENT_RFIFO_ERROR)) {
/* BABT, Rx/Tx FIFO errors */
mpc5xxx_fec_halt(dev);
mpc5xxx_fec_init(dev);
printf("some error: 0x%08x\n", ievent);
return 0;
}
if (ievent & FEC_IEVENT_HBERR) {
/* Heartbeat error */
writel(0x00000001 | readl(&fec->eth->x_cntrl), &fec->eth->x_cntrl);
fec->eth->x_cntrl |= 0x00000001;
}
if (ievent & FEC_IEVENT_GRA) {
/* Graceful stop complete */
if (readl(&fec->eth->x_cntrl) & 0x00000001) {
if (fec->eth->x_cntrl & 0x00000001) {
mpc5xxx_fec_halt(dev);
writel(~0x00000001 & readl(&fec->eth->x_cntrl), &fec->eth->x_cntrl);
fec->eth->x_cntrl &= ~0x00000001;
mpc5xxx_fec_init(dev);
}
}
@ -695,49 +632,37 @@ static int mpc5xxx_fec_recv(struct eth_device *dev)
if (!(pRbd->status & FEC_RBD_EMPTY)) {
if ((pRbd->status & FEC_RBD_LAST) && !(pRbd->status & FEC_RBD_ERR) &&
((pRbd->dataLength - 4) > 14)) {
printf("read from %d (0x%08x) rbd=0x%08x", fec->rbdIndex, pRbd->dataPointer, pRbd);
/*
* Get buffer address and size
*/
frame = (NBUF *)pRbd->dataPointer;
frame_length = pRbd->dataLength - 4;
printf(" len=%d\n", frame_length);
#define DEBUG_RX_HEADER
#ifdef DEBUG_RX_HEADER
{
printf("recv data hdr:\n");
memory_display(frame->data, 0, frame_length, 1);
int i;
printf("recv data hdr:");
for (i = 0; i < 14; i++)
printf("%02x ", *(frame->head + i));
printf("\n");
}
#endif
/*
* Fill the buffer and pass it to upper layers
*/
#ifdef CONFIG_MPC5200
memcpy(buff, frame->head, 14);
memcpy(buff + 14, frame->data, frame_length);
#endif
#ifdef CONFIG_ARCH_IMX27
memcpy(buff, frame->data, frame_length);
#endif
NetReceive(buff, frame_length);
len = frame_length;
} else {
if (pRbd->status & FEC_RBD_ERR) {
printf("error frame: 0x%08x 0x%08x\n", pRbd, pRbd->status);
}
}
/*
* free the current buffer, restart the engine and move
* forward to the next buffer
* Reset buffer descriptor as empty
*/
mpc5xxx_fec_rbd_clean(fec->rbdIndex == (FEC_RBD_NUM - 1) ? 1 : 0, pRbd);
mpc5xxx_fec_rx_task_enable(fec);
fec->rbdIndex = (fec->rbdIndex + 1) % FEC_RBD_NUM;
mpc5xxx_fec_rbd_clean(fec, pRbd);
}
// SDMA_CLEAR_IEVENT (FEC_RECV_TASK_NO);
SDMA_CLEAR_IEVENT (FEC_RECV_TASK_NO);
return len;
}
@ -747,11 +672,6 @@ int mpc5xxx_fec_probe(struct device_d *dev)
struct eth_device *edev;
mpc5xxx_fec_priv *fec;
printf("%s\n", __FUNCTION__);
#ifdef CONFIG_ARCH_IMX27
PCCR0 |= PCCR0_FEC_EN;
#endif
edev = (struct eth_device *)malloc(sizeof(struct eth_device));
dev->type_data = edev;
fec = (mpc5xxx_fec_priv *)malloc(sizeof(*fec));
@ -762,40 +682,19 @@ int mpc5xxx_fec_probe(struct device_d *dev)
edev->send = mpc5xxx_fec_send,
edev->recv = mpc5xxx_fec_recv,
edev->halt = mpc5xxx_fec_halt,
edev->get_ethaddr = mpc5xxx_fec_get_hwaddr,
edev->set_ethaddr = mpc5xxx_fec_set_hwaddr,
edev->get_ethaddr = mpc5xxx_fec_get_ethaddr,
edev->set_ethaddr = mpc5xxx_fec_set_ethaddr,
fec->eth = (ethernet_regs *)dev->map_base;
#ifdef CONFIG_MPC5200
fec->tbdBase = (FEC_TBD *)FEC_BD_BASE;
fec->rbdBase = (FEC_RBD *)(FEC_BD_BASE + FEC_TBD_NUM * sizeof(FEC_TBD));
#endif
#ifdef CONFIG_ARCH_IMX27
/* Reset chip. FIXME: shouldn't it be done for mpc5200 aswell? */
writel(1, &fec->eth->ecntrl);
while(readl(&fec->eth->ecntrl) & 1) {
udelay(10);
}
{
unsigned long base;
base = ((unsigned long)xzalloc(sizeof(FEC_TBD) + 32) + 31) & ~0x1f;
fec->tbdBase = (FEC_TBD *)base;
writel(fec->tbdBase, &fec->eth->etdsr);
base = ((unsigned long)xzalloc(FEC_RBD_NUM * sizeof(FEC_RBD) + 32) + 31) & ~0x1f;
fec->rbdBase = (FEC_RBD *)base;
writel(fec->rbdBase, &fec->eth->erdsr);
}
#endif
fec->xcv_type = pdata->xcv_type;
sprintf(dev->name, "FEC ETHERNET");
#ifdef CONFIG_MPC5200
loadtask(0, 2);
#endif
if (fec->xcv_type != SEVENWIRE) {
fec->miiphy.read = fec5xxx_miiphy_read;
fec->miiphy.write = fec5xxx_miiphy_write;
@ -824,8 +723,3 @@ static int mpc5xxx_fec_register(void)
device_initcall(mpc5xxx_fec_register);
/**
* @file
* @brief Network driver for FreeScale's FEC implementation.
* This type of hardware can be found on MPC52xx and i.MX27 CPUs
*/

View File

@ -15,194 +15,188 @@ typedef unsigned long uint32;
typedef unsigned short uint16;
typedef unsigned char uint8;
/**
* Layout description of the FEC
*/
typedef struct ethernet_register_set {
/* [10:2]addr = 00 */
/* Control and status Registers (offset 000-1FF) */
uint32 fec_id; /* MBAR_ETH + 0x000 */
uint32 ievent; /* MBAR_ETH + 0x004 */
uint32 imask; /* MBAR_ETH + 0x008 */
volatile uint32 fec_id; /* MBAR_ETH + 0x000 */
volatile uint32 ievent; /* MBAR_ETH + 0x004 */
volatile uint32 imask; /* MBAR_ETH + 0x008 */
uint32 RES0[1]; /* MBAR_ETH + 0x00C */
uint32 r_des_active; /* MBAR_ETH + 0x010 */
uint32 x_des_active; /* MBAR_ETH + 0x014 */
uint32 r_des_active_cl; /* MBAR_ETH + 0x018 */
uint32 x_des_active_cl; /* MBAR_ETH + 0x01C */
uint32 ivent_set; /* MBAR_ETH + 0x020 */
uint32 ecntrl; /* MBAR_ETH + 0x024 */
volatile uint32 RES0[1]; /* MBAR_ETH + 0x00C */
volatile uint32 r_des_active; /* MBAR_ETH + 0x010 */
volatile uint32 x_des_active; /* MBAR_ETH + 0x014 */
volatile uint32 r_des_active_cl; /* MBAR_ETH + 0x018 */
volatile uint32 x_des_active_cl; /* MBAR_ETH + 0x01C */
volatile uint32 ivent_set; /* MBAR_ETH + 0x020 */
volatile uint32 ecntrl; /* MBAR_ETH + 0x024 */
uint32 RES1[6]; /* MBAR_ETH + 0x028-03C */
uint32 mii_data; /* MBAR_ETH + 0x040 */
uint32 mii_speed; /* MBAR_ETH + 0x044 */
uint32 mii_status; /* MBAR_ETH + 0x048 */
volatile uint32 RES1[6]; /* MBAR_ETH + 0x028-03C */
volatile uint32 mii_data; /* MBAR_ETH + 0x040 */
volatile uint32 mii_speed; /* MBAR_ETH + 0x044 */
volatile uint32 mii_status; /* MBAR_ETH + 0x048 */
uint32 RES2[5]; /* MBAR_ETH + 0x04C-05C */
uint32 mib_data; /* MBAR_ETH + 0x060 */
uint32 mib_control; /* MBAR_ETH + 0x064 */
volatile uint32 RES2[5]; /* MBAR_ETH + 0x04C-05C */
volatile uint32 mib_data; /* MBAR_ETH + 0x060 */
volatile uint32 mib_control; /* MBAR_ETH + 0x064 */
uint32 RES3[6]; /* MBAR_ETH + 0x068-7C */
uint32 r_activate; /* MBAR_ETH + 0x080 */
uint32 r_cntrl; /* MBAR_ETH + 0x084 */
uint32 r_hash; /* MBAR_ETH + 0x088 */
uint32 r_data; /* MBAR_ETH + 0x08C */
uint32 ar_done; /* MBAR_ETH + 0x090 */
uint32 r_test; /* MBAR_ETH + 0x094 */
uint32 r_mib; /* MBAR_ETH + 0x098 */
uint32 r_da_low; /* MBAR_ETH + 0x09C */
uint32 r_da_high; /* MBAR_ETH + 0x0A0 */
volatile uint32 RES3[6]; /* MBAR_ETH + 0x068-7C */
volatile uint32 r_activate; /* MBAR_ETH + 0x080 */
volatile uint32 r_cntrl; /* MBAR_ETH + 0x084 */
volatile uint32 r_hash; /* MBAR_ETH + 0x088 */
volatile uint32 r_data; /* MBAR_ETH + 0x08C */
volatile uint32 ar_done; /* MBAR_ETH + 0x090 */
volatile uint32 r_test; /* MBAR_ETH + 0x094 */
volatile uint32 r_mib; /* MBAR_ETH + 0x098 */
volatile uint32 r_da_low; /* MBAR_ETH + 0x09C */
volatile uint32 r_da_high; /* MBAR_ETH + 0x0A0 */
uint32 RES4[7]; /* MBAR_ETH + 0x0A4-0BC */
uint32 x_activate; /* MBAR_ETH + 0x0C0 */
uint32 x_cntrl; /* MBAR_ETH + 0x0C4 */
uint32 backoff; /* MBAR_ETH + 0x0C8 */
uint32 x_data; /* MBAR_ETH + 0x0CC */
uint32 x_status; /* MBAR_ETH + 0x0D0 */
uint32 x_mib; /* MBAR_ETH + 0x0D4 */
uint32 x_test; /* MBAR_ETH + 0x0D8 */
uint32 fdxfc_da1; /* MBAR_ETH + 0x0DC */
uint32 fdxfc_da2; /* MBAR_ETH + 0x0E0 */
uint32 paddr1; /* MBAR_ETH + 0x0E4 */
uint32 paddr2; /* MBAR_ETH + 0x0E8 */
uint32 op_pause; /* MBAR_ETH + 0x0EC */
volatile uint32 RES4[7]; /* MBAR_ETH + 0x0A4-0BC */
volatile uint32 x_activate; /* MBAR_ETH + 0x0C0 */
volatile uint32 x_cntrl; /* MBAR_ETH + 0x0C4 */
volatile uint32 backoff; /* MBAR_ETH + 0x0C8 */
volatile uint32 x_data; /* MBAR_ETH + 0x0CC */
volatile uint32 x_status; /* MBAR_ETH + 0x0D0 */
volatile uint32 x_mib; /* MBAR_ETH + 0x0D4 */
volatile uint32 x_test; /* MBAR_ETH + 0x0D8 */
volatile uint32 fdxfc_da1; /* MBAR_ETH + 0x0DC */
volatile uint32 fdxfc_da2; /* MBAR_ETH + 0x0E0 */
volatile uint32 paddr1; /* MBAR_ETH + 0x0E4 */
volatile uint32 paddr2; /* MBAR_ETH + 0x0E8 */
volatile uint32 op_pause; /* MBAR_ETH + 0x0EC */
uint32 RES5[4]; /* MBAR_ETH + 0x0F0-0FC */
uint32 instr_reg; /* MBAR_ETH + 0x100 */
uint32 context_reg; /* MBAR_ETH + 0x104 */
uint32 test_cntrl; /* MBAR_ETH + 0x108 */
uint32 acc_reg; /* MBAR_ETH + 0x10C */
uint32 ones; /* MBAR_ETH + 0x110 */
uint32 zeros; /* MBAR_ETH + 0x114 */
uint32 iaddr1; /* MBAR_ETH + 0x118 */
uint32 iaddr2; /* MBAR_ETH + 0x11C */
uint32 gaddr1; /* MBAR_ETH + 0x120 */
uint32 gaddr2; /* MBAR_ETH + 0x124 */
uint32 random; /* MBAR_ETH + 0x128 */
uint32 rand1; /* MBAR_ETH + 0x12C */
uint32 tmp; /* MBAR_ETH + 0x130 */
volatile uint32 RES5[4]; /* MBAR_ETH + 0x0F0-0FC */
volatile uint32 instr_reg; /* MBAR_ETH + 0x100 */
volatile uint32 context_reg; /* MBAR_ETH + 0x104 */
volatile uint32 test_cntrl; /* MBAR_ETH + 0x108 */
volatile uint32 acc_reg; /* MBAR_ETH + 0x10C */
volatile uint32 ones; /* MBAR_ETH + 0x110 */
volatile uint32 zeros; /* MBAR_ETH + 0x114 */
volatile uint32 iaddr1; /* MBAR_ETH + 0x118 */
volatile uint32 iaddr2; /* MBAR_ETH + 0x11C */
volatile uint32 gaddr1; /* MBAR_ETH + 0x120 */
volatile uint32 gaddr2; /* MBAR_ETH + 0x124 */
volatile uint32 random; /* MBAR_ETH + 0x128 */
volatile uint32 rand1; /* MBAR_ETH + 0x12C */
volatile uint32 tmp; /* MBAR_ETH + 0x130 */
uint32 RES6[3]; /* MBAR_ETH + 0x134-13C */
uint32 fifo_id; /* MBAR_ETH + 0x140 */
uint32 x_wmrk; /* MBAR_ETH + 0x144 */
uint32 fcntrl; /* MBAR_ETH + 0x148 */
uint32 r_bound; /* MBAR_ETH + 0x14C */
uint32 r_fstart; /* MBAR_ETH + 0x150 */
uint32 r_count; /* MBAR_ETH + 0x154 */
uint32 r_lag; /* MBAR_ETH + 0x158 */
uint32 r_read; /* MBAR_ETH + 0x15C */
uint32 r_write; /* MBAR_ETH + 0x160 */
uint32 x_count; /* MBAR_ETH + 0x164 */
uint32 x_lag; /* MBAR_ETH + 0x168 */
uint32 x_retry; /* MBAR_ETH + 0x16C */
uint32 x_write; /* MBAR_ETH + 0x170 */
uint32 x_read; /* MBAR_ETH + 0x174 */
volatile uint32 RES6[3]; /* MBAR_ETH + 0x134-13C */
volatile uint32 fifo_id; /* MBAR_ETH + 0x140 */
volatile uint32 x_wmrk; /* MBAR_ETH + 0x144 */
volatile uint32 fcntrl; /* MBAR_ETH + 0x148 */
volatile uint32 r_bound; /* MBAR_ETH + 0x14C */
volatile uint32 r_fstart; /* MBAR_ETH + 0x150 */
volatile uint32 r_count; /* MBAR_ETH + 0x154 */
volatile uint32 r_lag; /* MBAR_ETH + 0x158 */
volatile uint32 r_read; /* MBAR_ETH + 0x15C */
volatile uint32 r_write; /* MBAR_ETH + 0x160 */
volatile uint32 x_count; /* MBAR_ETH + 0x164 */
volatile uint32 x_lag; /* MBAR_ETH + 0x168 */
volatile uint32 x_retry; /* MBAR_ETH + 0x16C */
volatile uint32 x_write; /* MBAR_ETH + 0x170 */
volatile uint32 x_read; /* MBAR_ETH + 0x174 */
uint32 RES7[2]; /* MBAR_ETH + 0x178-17C */
uint32 fm_cntrl; /* MBAR_ETH + 0x180 */
#define erdsr fm_cntrl
uint32 rfifo_data; /* MBAR_ETH + 0x184 */
#define etdsr rfifo_data
uint32 rfifo_status; /* MBAR_ETH + 0x188 */
#define emrbr rfifo_status
uint32 rfifo_cntrl; /* MBAR_ETH + 0x18C */
uint32 rfifo_lrf_ptr; /* MBAR_ETH + 0x190 */
uint32 rfifo_lwf_ptr; /* MBAR_ETH + 0x194 */
uint32 rfifo_alarm; /* MBAR_ETH + 0x198 */
uint32 rfifo_rdptr; /* MBAR_ETH + 0x19C */
uint32 rfifo_wrptr; /* MBAR_ETH + 0x1A0 */
uint32 tfifo_data; /* MBAR_ETH + 0x1A4 */
uint32 tfifo_status; /* MBAR_ETH + 0x1A8 */
uint32 tfifo_cntrl; /* MBAR_ETH + 0x1AC */
uint32 tfifo_lrf_ptr; /* MBAR_ETH + 0x1B0 */
uint32 tfifo_lwf_ptr; /* MBAR_ETH + 0x1B4 */
uint32 tfifo_alarm; /* MBAR_ETH + 0x1B8 */
uint32 tfifo_rdptr; /* MBAR_ETH + 0x1BC */
uint32 tfifo_wrptr; /* MBAR_ETH + 0x1C0 */
volatile uint32 RES7[2]; /* MBAR_ETH + 0x178-17C */
volatile uint32 fm_cntrl; /* MBAR_ETH + 0x180 */
volatile uint32 rfifo_data; /* MBAR_ETH + 0x184 */
volatile uint32 rfifo_status; /* MBAR_ETH + 0x188 */
volatile uint32 rfifo_cntrl; /* MBAR_ETH + 0x18C */
volatile uint32 rfifo_lrf_ptr; /* MBAR_ETH + 0x190 */
volatile uint32 rfifo_lwf_ptr; /* MBAR_ETH + 0x194 */
volatile uint32 rfifo_alarm; /* MBAR_ETH + 0x198 */
volatile uint32 rfifo_rdptr; /* MBAR_ETH + 0x19C */
volatile uint32 rfifo_wrptr; /* MBAR_ETH + 0x1A0 */
volatile uint32 tfifo_data; /* MBAR_ETH + 0x1A4 */
volatile uint32 tfifo_status; /* MBAR_ETH + 0x1A8 */
volatile uint32 tfifo_cntrl; /* MBAR_ETH + 0x1AC */
volatile uint32 tfifo_lrf_ptr; /* MBAR_ETH + 0x1B0 */
volatile uint32 tfifo_lwf_ptr; /* MBAR_ETH + 0x1B4 */
volatile uint32 tfifo_alarm; /* MBAR_ETH + 0x1B8 */
volatile uint32 tfifo_rdptr; /* MBAR_ETH + 0x1BC */
volatile uint32 tfifo_wrptr; /* MBAR_ETH + 0x1C0 */
uint32 reset_cntrl; /* MBAR_ETH + 0x1C4 */
uint32 xmit_fsm; /* MBAR_ETH + 0x1C8 */
volatile uint32 reset_cntrl; /* MBAR_ETH + 0x1C4 */
volatile uint32 xmit_fsm; /* MBAR_ETH + 0x1C8 */
uint32 RES8[3]; /* MBAR_ETH + 0x1CC-1D4 */
uint32 rdes_data0; /* MBAR_ETH + 0x1D8 */
uint32 rdes_data1; /* MBAR_ETH + 0x1DC */
uint32 r_length; /* MBAR_ETH + 0x1E0 */
uint32 x_length; /* MBAR_ETH + 0x1E4 */
uint32 x_addr; /* MBAR_ETH + 0x1E8 */
uint32 cdes_data; /* MBAR_ETH + 0x1EC */
uint32 status; /* MBAR_ETH + 0x1F0 */
uint32 dma_control; /* MBAR_ETH + 0x1F4 */
uint32 des_cmnd; /* MBAR_ETH + 0x1F8 */
uint32 data; /* MBAR_ETH + 0x1FC */
volatile uint32 RES8[3]; /* MBAR_ETH + 0x1CC-1D4 */
volatile uint32 rdes_data0; /* MBAR_ETH + 0x1D8 */
volatile uint32 rdes_data1; /* MBAR_ETH + 0x1DC */
volatile uint32 r_length; /* MBAR_ETH + 0x1E0 */
volatile uint32 x_length; /* MBAR_ETH + 0x1E4 */
volatile uint32 x_addr; /* MBAR_ETH + 0x1E8 */
volatile uint32 cdes_data; /* MBAR_ETH + 0x1EC */
volatile uint32 status; /* MBAR_ETH + 0x1F0 */
volatile uint32 dma_control; /* MBAR_ETH + 0x1F4 */
volatile uint32 des_cmnd; /* MBAR_ETH + 0x1F8 */
volatile uint32 data; /* MBAR_ETH + 0x1FC */
/* MIB COUNTERS (Offset 200-2FF) */
uint32 rmon_t_drop; /* MBAR_ETH + 0x200 */
uint32 rmon_t_packets; /* MBAR_ETH + 0x204 */
uint32 rmon_t_bc_pkt; /* MBAR_ETH + 0x208 */
uint32 rmon_t_mc_pkt; /* MBAR_ETH + 0x20C */
uint32 rmon_t_crc_align; /* MBAR_ETH + 0x210 */
uint32 rmon_t_undersize; /* MBAR_ETH + 0x214 */
uint32 rmon_t_oversize; /* MBAR_ETH + 0x218 */
uint32 rmon_t_frag; /* MBAR_ETH + 0x21C */
uint32 rmon_t_jab; /* MBAR_ETH + 0x220 */
uint32 rmon_t_col; /* MBAR_ETH + 0x224 */
uint32 rmon_t_p64; /* MBAR_ETH + 0x228 */
uint32 rmon_t_p65to127; /* MBAR_ETH + 0x22C */
uint32 rmon_t_p128to255; /* MBAR_ETH + 0x230 */
uint32 rmon_t_p256to511; /* MBAR_ETH + 0x234 */
uint32 rmon_t_p512to1023; /* MBAR_ETH + 0x238 */
uint32 rmon_t_p1024to2047; /* MBAR_ETH + 0x23C */
uint32 rmon_t_p_gte2048; /* MBAR_ETH + 0x240 */
uint32 rmon_t_octets; /* MBAR_ETH + 0x244 */
uint32 ieee_t_drop; /* MBAR_ETH + 0x248 */
uint32 ieee_t_frame_ok; /* MBAR_ETH + 0x24C */
uint32 ieee_t_1col; /* MBAR_ETH + 0x250 */
uint32 ieee_t_mcol; /* MBAR_ETH + 0x254 */
uint32 ieee_t_def; /* MBAR_ETH + 0x258 */
uint32 ieee_t_lcol; /* MBAR_ETH + 0x25C */
uint32 ieee_t_excol; /* MBAR_ETH + 0x260 */
uint32 ieee_t_macerr; /* MBAR_ETH + 0x264 */
uint32 ieee_t_cserr; /* MBAR_ETH + 0x268 */
uint32 ieee_t_sqe; /* MBAR_ETH + 0x26C */
uint32 t_fdxfc; /* MBAR_ETH + 0x270 */
uint32 ieee_t_octets_ok; /* MBAR_ETH + 0x274 */
volatile uint32 rmon_t_drop; /* MBAR_ETH + 0x200 */
volatile uint32 rmon_t_packets; /* MBAR_ETH + 0x204 */
volatile uint32 rmon_t_bc_pkt; /* MBAR_ETH + 0x208 */
volatile uint32 rmon_t_mc_pkt; /* MBAR_ETH + 0x20C */
volatile uint32 rmon_t_crc_align; /* MBAR_ETH + 0x210 */
volatile uint32 rmon_t_undersize; /* MBAR_ETH + 0x214 */
volatile uint32 rmon_t_oversize; /* MBAR_ETH + 0x218 */
volatile uint32 rmon_t_frag; /* MBAR_ETH + 0x21C */
volatile uint32 rmon_t_jab; /* MBAR_ETH + 0x220 */
volatile uint32 rmon_t_col; /* MBAR_ETH + 0x224 */
volatile uint32 rmon_t_p64; /* MBAR_ETH + 0x228 */
volatile uint32 rmon_t_p65to127; /* MBAR_ETH + 0x22C */
volatile uint32 rmon_t_p128to255; /* MBAR_ETH + 0x230 */
volatile uint32 rmon_t_p256to511; /* MBAR_ETH + 0x234 */
volatile uint32 rmon_t_p512to1023; /* MBAR_ETH + 0x238 */
volatile uint32 rmon_t_p1024to2047; /* MBAR_ETH + 0x23C */
volatile uint32 rmon_t_p_gte2048; /* MBAR_ETH + 0x240 */
volatile uint32 rmon_t_octets; /* MBAR_ETH + 0x244 */
volatile uint32 ieee_t_drop; /* MBAR_ETH + 0x248 */
volatile uint32 ieee_t_frame_ok; /* MBAR_ETH + 0x24C */
volatile uint32 ieee_t_1col; /* MBAR_ETH + 0x250 */
volatile uint32 ieee_t_mcol; /* MBAR_ETH + 0x254 */
volatile uint32 ieee_t_def; /* MBAR_ETH + 0x258 */
volatile uint32 ieee_t_lcol; /* MBAR_ETH + 0x25C */
volatile uint32 ieee_t_excol; /* MBAR_ETH + 0x260 */
volatile uint32 ieee_t_macerr; /* MBAR_ETH + 0x264 */
volatile uint32 ieee_t_cserr; /* MBAR_ETH + 0x268 */
volatile uint32 ieee_t_sqe; /* MBAR_ETH + 0x26C */
volatile uint32 t_fdxfc; /* MBAR_ETH + 0x270 */
volatile uint32 ieee_t_octets_ok; /* MBAR_ETH + 0x274 */
uint32 RES9[2]; /* MBAR_ETH + 0x278-27C */
uint32 rmon_r_drop; /* MBAR_ETH + 0x280 */
uint32 rmon_r_packets; /* MBAR_ETH + 0x284 */
uint32 rmon_r_bc_pkt; /* MBAR_ETH + 0x288 */
uint32 rmon_r_mc_pkt; /* MBAR_ETH + 0x28C */
uint32 rmon_r_crc_align; /* MBAR_ETH + 0x290 */
uint32 rmon_r_undersize; /* MBAR_ETH + 0x294 */
uint32 rmon_r_oversize; /* MBAR_ETH + 0x298 */
uint32 rmon_r_frag; /* MBAR_ETH + 0x29C */
uint32 rmon_r_jab; /* MBAR_ETH + 0x2A0 */
volatile uint32 RES9[2]; /* MBAR_ETH + 0x278-27C */
volatile uint32 rmon_r_drop; /* MBAR_ETH + 0x280 */
volatile uint32 rmon_r_packets; /* MBAR_ETH + 0x284 */
volatile uint32 rmon_r_bc_pkt; /* MBAR_ETH + 0x288 */
volatile uint32 rmon_r_mc_pkt; /* MBAR_ETH + 0x28C */
volatile uint32 rmon_r_crc_align; /* MBAR_ETH + 0x290 */
volatile uint32 rmon_r_undersize; /* MBAR_ETH + 0x294 */
volatile uint32 rmon_r_oversize; /* MBAR_ETH + 0x298 */
volatile uint32 rmon_r_frag; /* MBAR_ETH + 0x29C */
volatile uint32 rmon_r_jab; /* MBAR_ETH + 0x2A0 */
uint32 rmon_r_resvd_0; /* MBAR_ETH + 0x2A4 */
volatile uint32 rmon_r_resvd_0; /* MBAR_ETH + 0x2A4 */
uint32 rmon_r_p64; /* MBAR_ETH + 0x2A8 */
uint32 rmon_r_p65to127; /* MBAR_ETH + 0x2AC */
uint32 rmon_r_p128to255; /* MBAR_ETH + 0x2B0 */
uint32 rmon_r_p256to511; /* MBAR_ETH + 0x2B4 */
uint32 rmon_r_p512to1023; /* MBAR_ETH + 0x2B8 */
uint32 rmon_r_p1024to2047; /* MBAR_ETH + 0x2BC */
uint32 rmon_r_p_gte2048; /* MBAR_ETH + 0x2C0 */
uint32 rmon_r_octets; /* MBAR_ETH + 0x2C4 */
uint32 ieee_r_drop; /* MBAR_ETH + 0x2C8 */
uint32 ieee_r_frame_ok; /* MBAR_ETH + 0x2CC */
uint32 ieee_r_crc; /* MBAR_ETH + 0x2D0 */
uint32 ieee_r_align; /* MBAR_ETH + 0x2D4 */
uint32 r_macerr; /* MBAR_ETH + 0x2D8 */
uint32 r_fdxfc; /* MBAR_ETH + 0x2DC */
uint32 ieee_r_octets_ok; /* MBAR_ETH + 0x2E0 */
volatile uint32 rmon_r_p64; /* MBAR_ETH + 0x2A8 */
volatile uint32 rmon_r_p65to127; /* MBAR_ETH + 0x2AC */
volatile uint32 rmon_r_p128to255; /* MBAR_ETH + 0x2B0 */
volatile uint32 rmon_r_p256to511; /* MBAR_ETH + 0x2B4 */
volatile uint32 rmon_r_p512to1023; /* MBAR_ETH + 0x2B8 */
volatile uint32 rmon_r_p1024to2047; /* MBAR_ETH + 0x2BC */
volatile uint32 rmon_r_p_gte2048; /* MBAR_ETH + 0x2C0 */
volatile uint32 rmon_r_octets; /* MBAR_ETH + 0x2C4 */
volatile uint32 ieee_r_drop; /* MBAR_ETH + 0x2C8 */
volatile uint32 ieee_r_frame_ok; /* MBAR_ETH + 0x2CC */
volatile uint32 ieee_r_crc; /* MBAR_ETH + 0x2D0 */
volatile uint32 ieee_r_align; /* MBAR_ETH + 0x2D4 */
volatile uint32 r_macerr; /* MBAR_ETH + 0x2D8 */
volatile uint32 r_fdxfc; /* MBAR_ETH + 0x2DC */
volatile uint32 ieee_r_octets_ok; /* MBAR_ETH + 0x2E0 */
uint32 RES10[6]; /* MBAR_ETH + 0x2E4-2FC */
volatile uint32 RES10[6]; /* MBAR_ETH + 0x2E4-2FC */
uint32 RES11[64]; /* MBAR_ETH + 0x300-3FF */
volatile uint32 RES11[64]; /* MBAR_ETH + 0x300-3FF */
} ethernet_regs;
#define FEC_IEVENT_HBERR 0x80000000
@ -245,12 +239,8 @@ typedef struct ethernet_register_set {
#define FEC_ECNTRL_RESET 0x00000001
#define FEC_ECNTRL_ETHER_EN 0x00000002
#ifdef CONFIG_MPC5200
/**
* Receive & Transmit Buffer Descriptor definitions
* Big endian layout
*/
typedef struct {
/* Receive & Transmit Buffer Descriptor definitions */
typedef struct BufferDescriptor {
uint16 status;
uint16 dataLength;
uint32 dataPointer;
@ -261,58 +251,33 @@ typedef struct {
uint16 dataLength;
uint32 dataPointer;
} FEC_TBD;
#endif
#ifdef CONFIG_ARCH_IMX27
/**
* Receive & Transmit Buffer Descriptor definitions
* Little endian layout
*/
typedef struct {
uint16 dataLength;
uint16 status;
uint32 dataPointer;
} FEC_RBD;
/* private structure */
typedef struct {
uint16 dataLength;
uint16 status;
uint32 dataPointer;
} FEC_TBD;
#endif
/**
* private structure
*/
typedef struct {
ethernet_regs *eth;
xceiver_type xcv_type; /** transceiver type */
FEC_RBD *rbdBase; /** RBD ring */
FEC_TBD *tbdBase; /** TBD ring */
uint16 rbdIndex; /** next receive BD to read */
xceiver_type xcv_type; /* transceiver type */
FEC_RBD *rbdBase; /* RBD ring */
FEC_TBD *tbdBase; /* TBD ring */
uint16 rbdIndex; /* next receive BD to read */
uint16 tbdIndex; /* next transmit BD to send */
uint16 usedTbdIndex; /* next transmit BD to clean */
uint16 cleanTbdNum; /* the number of available transmit BDs */
struct miiphy_device miiphy;
} mpc5xxx_fec_priv;
/**
* buffer alignment on request
*/
#define RDB_ALIGNMENT 16
/* Ethernet parameter area */
#define FEC_TBD_BASE (FEC_PARAM_BASE + 0x00)
#define FEC_TBD_NEXT (FEC_PARAM_BASE + 0x04)
#define FEC_RBD_BASE (FEC_PARAM_BASE + 0x08)
#define FEC_RBD_NEXT (FEC_PARAM_BASE + 0x0c)
/**
* Numbers of buffer descriptos for receiving
*/
#define FEC_RBD_NUM 64 /* The user can adjust this value */
/* BD Numer definitions */
#define FEC_TBD_NUM 48 /* The user can adjust this value */
#define FEC_RBD_NUM 32 /* The user can adjust this value */
/**
* define the packet size limit
*/
/* packet size limit */
#define FEC_MAX_PKT_SIZE 1536
/* RBD bits definitions */
@ -353,8 +318,3 @@ typedef struct {
#define FEC_MII_DATA_PA_SHIFT 23 /* MII PHY address bits */
#endif /* __MPC5XXX_FEC_H */
/**
* @file
* @brief Definitions for the FEC driver (MPC52xx and i-MX27)
*/

View File

@ -0,0 +1,14 @@
#ifndef __INCLUDE_ASM_ARCH_FEC_H
#define __INCLUDE_ASM_ARCH_FEC_H
struct mpc5xxx_fec_platform_data {
ulong xcv_type;
};
typedef enum {
SEVENWIRE, /* 7-wire */
MII10, /* MII 10Mbps */
MII100 /* MII 100Mbps */
} xceiver_type;
#endif /* __INCLUDE_ASM_ARCH_FEC_H */