int misc_init_r(void)
{
u8 mac_addr[EFUSE_MAC_SIZE];
char serial[EFUSE_SN_SIZE];
ssize_t len;
/* Set RMII mode */
out_le32(GXBB_ETH_REG_0, GXBB_ETH_REG_0_INVERT_RMII_CLK |
GXBB_ETH_REG_0_CLK_EN);
/* Use Internal PHY */
out_le32(GXBB_ETH_REG_2, 0x10110181);
out_le32(GXBB_ETH_REG_3, 0xe40908ff);
/* Enable power and clock gate */
setbits_le32(GXBB_GCLK_MPEG_1, GXBB_GCLK_MPEG_1_ETH);
clrbits_le32(GXBB_MEM_PD_REG_0, GXBB_MEM_PD_REG_0_ETH_MASK);
if (!eth_env_get_enetaddr("ethaddr", mac_addr)) {
len = meson_sm_read_efuse(EFUSE_MAC_OFFSET,
mac_addr, EFUSE_MAC_SIZE);
if (len == EFUSE_MAC_SIZE && is_valid_ethaddr(mac_addr))
eth_env_set_enetaddr("ethaddr", mac_addr);
}
if (!env_get("serial#")) {
len = meson_sm_read_efuse(EFUSE_SN_OFFSET, serial,
EFUSE_SN_SIZE);
if (len == EFUSE_SN_SIZE)
env_set("serial#", serial);
}
return 0;
}
int misc_init_r(void)
{
u8 mac_addr[EFUSE_MAC_SIZE];
char serial[EFUSE_SN_SIZE];
ssize_t len;
meson_gx_eth_init(PHY_INTERFACE_MODE_RMII,
MESON_GXL_USE_INTERNAL_RMII_PHY);
/* Enable power and clock gate */
setbits_le32(GX_GCLK_MPEG_1, GX_GCLK_MPEG_1_ETH);
clrbits_le32(GX_MEM_PD_REG_0, GX_MEM_PD_REG_0_ETH_MASK);
if (!eth_env_get_enetaddr("ethaddr", mac_addr)) {
len = meson_sm_read_efuse(EFUSE_MAC_OFFSET,
mac_addr, EFUSE_MAC_SIZE);
if (len == EFUSE_MAC_SIZE && is_valid_ethaddr(mac_addr))
eth_env_set_enetaddr("ethaddr", mac_addr);
}
if (!env_get("serial#")) {
len = meson_sm_read_efuse(EFUSE_SN_OFFSET, serial,
EFUSE_SN_SIZE);
if (len == EFUSE_SN_SIZE)
env_set("serial#", serial);
}
return 0;
}
int misc_init_r(void)
{
u8 mac_addr[EFUSE_MAC_SIZE];
char serial[EFUSE_SN_SIZE];
ssize_t len;
meson_gx_eth_init(PHY_INTERFACE_MODE_RGMII, 0);
/* Reset PHY on GPIOZ_14 */
clrbits_le32(GX_GPIO_EN(3), BIT(14));
clrbits_le32(GX_GPIO_OUT(3), BIT(14));
mdelay(10);
setbits_le32(GX_GPIO_OUT(3), BIT(14));
if (!eth_env_get_enetaddr("ethaddr", mac_addr)) {
len = meson_sm_read_efuse(EFUSE_MAC_OFFSET,
mac_addr, EFUSE_MAC_SIZE);
if (len == EFUSE_MAC_SIZE && is_valid_ethaddr(mac_addr))
eth_env_set_enetaddr("ethaddr", mac_addr);
}
if (!env_get("serial#")) {
len = meson_sm_read_efuse(EFUSE_SN_OFFSET, serial,
EFUSE_SN_SIZE);
if (len == EFUSE_SN_SIZE)
env_set("serial#", serial);
}
return 0;
}
int show_board_info(void)
{
unsigned char ethaddr[6];
if (read_tdx_cfg_block()) {
printf("Missing Toradex config block\n");
checkboard();
return 0;
}
/* board serial-number */
sprintf(tdx_serial_str, "%08u", tdx_serial);
sprintf(tdx_board_rev_str, "V%1d.%1d%c",
tdx_hw_tag.ver_major,
tdx_hw_tag.ver_minor,
(char)tdx_hw_tag.ver_assembly + 'A');
env_set("serial#", tdx_serial_str);
/*
* Check if environment contains a valid MAC address,
* set the one from config block if not
*/
if (!eth_env_get_enetaddr("ethaddr", ethaddr))
eth_env_set_enetaddr("ethaddr", (u8 *)&tdx_eth_addr);
#ifdef CONFIG_TDX_CFG_BLOCK_2ND_ETHADDR
if (!eth_env_get_enetaddr("eth1addr", ethaddr)) {
/*
* Secondary MAC address is allocated from block
* 0x100000 higher then the first MAC address
*/
memcpy(ethaddr, &tdx_eth_addr, 6);
ethaddr[3] += 0x10;
eth_env_set_enetaddr("eth1addr", ethaddr);
}
#endif
printf("Model: Toradex %s %s, Serial# %s\n",
toradex_modules[tdx_hw_tag.prodid],
tdx_board_rev_str,
tdx_serial_str);
return 0;
}
int ft_board_setup(void *blob, bd_t *bd)
{
u32 baseboard_rev;
int nodeoffset;
uint8_t enetaddr[6];
char baseboard_name[16];
int err;
fdt_shrink_to_minimum(blob, 0); /* Make room for new properties */
/* MAC addr */
if (eth_env_get_enetaddr("ethaddr", enetaddr)) {
fdt_find_and_setprop(blob,
"/soc/aips-bus@02100000/ethernet@02188000",
"local-mac-address", enetaddr, 6, 1);
}
if (eth_env_get_enetaddr("eth1addr", enetaddr)) {
fdt_find_and_setprop(blob, "/eth@pcie", "local-mac-address",
enetaddr, 6, 1);
}
fdt_fixup_mtdparts(blob, nodes, ARRAY_SIZE(nodes));
baseboard_rev = cl_eeprom_get_board_rev(0);
err = cl_eeprom_get_product_name((uchar *)baseboard_name, 0);
if (err || baseboard_rev == 0)
return 0; /* Assume not an early revision SB-FX6m baseboard */
if (!strncmp("SB-FX6m", baseboard_name, 7) && baseboard_rev <= 120) {
nodeoffset = fdt_path_offset(blob, USDHC3_PATH);
fdt_delprop(blob, nodeoffset, "cd-gpios");
fdt_find_and_setprop(blob, USDHC3_PATH, "broken-cd",
NULL, 0, 1);
fdt_find_and_setprop(blob, USDHC3_PATH, "keep-power-in-suspend",
NULL, 0, 1);
}
return 0;
}
static int handle_mac_address(char *env_var, uint eeprom_bus)
{
unsigned char enetaddr[6];
int rc;
rc = eth_env_get_enetaddr(env_var, enetaddr);
if (rc)
return 0;
rc = cl_eeprom_read_mac_addr(enetaddr, eeprom_bus);
if (rc)
return rc;
if (!is_valid_ethaddr(enetaddr))
return -1;
return eth_env_set_enetaddr(env_var, enetaddr);
}
/*
* Routine: handle_mac_address
* Description: prepare MAC address for on-board Ethernet.
*/
static int handle_mac_address(void)
{
uchar enetaddr[6];
int rv;
rv = eth_env_get_enetaddr("ethaddr", enetaddr);
if (rv)
return 0;
rv = cl_eeprom_read_mac_addr(enetaddr, CONFIG_SYS_I2C_EEPROM_BUS);
if (rv)
get_efuse_mac_addr(enetaddr);
if (!is_valid_ethaddr(enetaddr))
return -1;
return eth_env_set_enetaddr("ethaddr", enetaddr);
}
/*
* Routine: handle_mac_address
* Description: prepare MAC address for on-board Ethernet.
*/
static int handle_mac_address(void)
{
unsigned char enetaddr[6];
int rc;
rc = eth_env_get_enetaddr("ethaddr", enetaddr);
if (rc)
return 0;
rc = cl_eeprom_read_mac_addr(enetaddr, CONFIG_SYS_I2C_EEPROM_BUS);
if (rc)
return rc;
if (!is_valid_ethaddr(enetaddr))
return -1;
return eth_env_set_enetaddr("ethaddr", enetaddr);
}
/*
* cl_som_imx7_handle_mac_address() - set Ethernet MAC address environment.
*
* @env_var: MAC address environment variable
* @eeprom_bus: I2C bus of the environment EEPROM
*
* @return: 0 on success, < 0 on failure
*/
static int cl_som_imx7_handle_mac_address(char *env_var, uint eeprom_bus)
{
int ret;
unsigned char enetaddr[6];
ret = eth_env_get_enetaddr(env_var, enetaddr);
if (ret)
return 0;
ret = cl_eeprom_read_mac_addr(enetaddr, eeprom_bus);
if (ret)
return ret;
ret = is_valid_ethaddr(enetaddr);
if (!ret)
return -1;
return eth_env_set_enetaddr(env_var, enetaddr);
}
int board_eth_init(bd_t *bis)
{
int rv, n = 0;
uint8_t mac_addr[6];
uint32_t mac_hi, mac_lo;
const char *devname;
if (!eth_env_get_enetaddr("ethaddr", mac_addr)) {
/* try reading mac address from efuse */
mac_lo = readl(&cdev->macid0l);
mac_hi = readl(&cdev->macid0h);
mac_addr[0] = mac_hi & 0xFF;
mac_addr[1] = (mac_hi & 0xFF00) >> 8;
mac_addr[2] = (mac_hi & 0xFF0000) >> 16;
mac_addr[3] = (mac_hi & 0xFF000000) >> 24;
mac_addr[4] = mac_lo & 0xFF;
mac_addr[5] = (mac_lo & 0xFF00) >> 8;
if (is_valid_ethaddr(mac_addr))
eth_env_set_enetaddr("ethaddr", mac_addr);
}
int misc_init_r(void)
{
#if defined(CONFIG_CMD_NET)
uchar mac_id[6];
if (!eth_env_get_enetaddr("ethaddr", mac_id) && !i2c_read_mac(mac_id))
eth_env_set_enetaddr("ethaddr", mac_id);
#endif
env_set("verify", "n");
#if defined(CONFIG_SPEAR_USBTTY)
env_set("stdin", "usbtty");
env_set("stdout", "usbtty");
env_set("stderr", "usbtty");
#ifndef CONFIG_SYS_NO_DCACHE
dcache_enable();
#endif
#endif
return 0;
}
/*
* Routine: handle_mac_address
* Description: prepare MAC address for on-board Ethernet.
*/
static int cm_t3517_handle_mac_address(void)
{
unsigned char enetaddr[6];
int ret;
ret = eth_env_get_enetaddr("ethaddr", enetaddr);
if (ret)
return 0;
ret = cl_eeprom_read_mac_addr(enetaddr, CONFIG_SYS_I2C_EEPROM_BUS);
if (ret) {
ret = am3517_get_efuse_enetaddr(enetaddr);
if (ret)
return ret;
}
if (!is_valid_ethaddr(enetaddr))
return -1;
return eth_env_set_enetaddr("ethaddr", enetaddr);
}
int board_eth_init(bd_t *bis)
{
uint8_t mac_addr[6];
uint32_t mac_hi, mac_lo;
struct ctrl_dev *cdev = (struct ctrl_dev *)CTRL_DEVICE_BASE;
if (!eth_env_get_enetaddr("ethaddr", mac_addr)) {
printf("<ethaddr> not set. Reading from E-fuse\n");
/* try reading mac address from efuse */
mac_lo = readl(&cdev->macid0l);
mac_hi = readl(&cdev->macid0h);
mac_addr[0] = mac_hi & 0xFF;
mac_addr[1] = (mac_hi & 0xFF00) >> 8;
mac_addr[2] = (mac_hi & 0xFF0000) >> 16;
mac_addr[3] = (mac_hi & 0xFF000000) >> 24;
mac_addr[4] = mac_lo & 0xFF;
mac_addr[5] = (mac_lo & 0xFF00) >> 8;
if (is_valid_ethaddr(mac_addr))
eth_env_set_enetaddr("ethaddr", mac_addr);
else
printf("Unable to read MAC address. Set <ethaddr>\n");
}
int misc_init_r(void)
{
u8 mac_addr[EFUSE_MAC_SIZE];
char serial[EFUSE_SN_SIZE];
ssize_t len;
meson_eth_init(PHY_INTERFACE_MODE_RMII, 0);
if (!eth_env_get_enetaddr("ethaddr", mac_addr)) {
len = meson_sm_read_efuse(EFUSE_MAC_OFFSET,
mac_addr, EFUSE_MAC_SIZE);
if (len == EFUSE_MAC_SIZE && is_valid_ethaddr(mac_addr))
eth_env_set_enetaddr("ethaddr", mac_addr);
}
if (!env_get("serial#")) {
len = meson_sm_read_efuse(EFUSE_SN_OFFSET, serial,
EFUSE_SN_SIZE);
if (len == EFUSE_SN_SIZE)
env_set("serial#", serial);
}
return 0;
}
/* ETHER Enable */
gpio_request(GPIO_FN_ETH_CRS_DV, NULL);
gpio_request(GPIO_FN_ETH_RX_ER, NULL);
gpio_request(GPIO_FN_ETH_RXD0, NULL);
gpio_request(GPIO_FN_ETH_RXD1, NULL);
gpio_request(GPIO_FN_ETH_LINK, NULL);
gpio_request(GPIO_FN_ETH_REFCLK, NULL);
gpio_request(GPIO_FN_ETH_MDIO, NULL);
gpio_request(GPIO_FN_ETH_TXD1, NULL);
gpio_request(GPIO_FN_ETH_TX_EN, NULL);
gpio_request(GPIO_FN_ETH_TXD0, NULL);
gpio_request(GPIO_FN_ETH_MDC, NULL);
gpio_request(GPIO_FN_IRQ0, NULL);
mstp_clrbits_le32(PUPR5, PUPR5, PUPR5_ETH & ~PUPR5_ETH_MAGIC);
gpio_request(GPIO_GP_5_22, NULL); /* PHY_RST */
mstp_clrbits_le32(PUPR5, PUPR5, PUPR5_ETH_MAGIC);
gpio_direction_output(GPIO_GP_5_22, 0);
mdelay(20);
gpio_set_value(GPIO_GP_5_22, 1);
udelay(1);
return 0;
}
#define CXR24 0xEE7003C0 /* MAC address high register */
#define CXR25 0xEE7003C8 /* MAC address low register */
int board_eth_init(bd_t *bis)
{
#ifdef CONFIG_SH_ETHER
int ret = -ENODEV;
u32 val;
unsigned char enetaddr[6];
ret = sh_eth_initialize(bis);
if (!eth_env_get_enetaddr("ethaddr", enetaddr))
return ret;
/* Set Mac address */
val = enetaddr[0] << 24 | enetaddr[1] << 16 |
enetaddr[2] << 8 | enetaddr[3];
writel(val, CXR24);
val = enetaddr[4] << 8 | enetaddr[5];
writel(val, CXR25);
return ret;
#else
return 0;
#endif
}
static int initr_ethaddr(void)
{
bd_t *bd = gd->bd;
/* kept around for legacy kernels only ... ignore the next section */
eth_env_get_enetaddr("ethaddr", bd->bi_enetaddr);
#ifdef CONFIG_HAS_ETH1
eth_env_get_enetaddr("eth1addr", bd->bi_enet1addr);
#endif
#ifdef CONFIG_HAS_ETH2
eth_env_get_enetaddr("eth2addr", bd->bi_enet2addr);
#endif
#ifdef CONFIG_HAS_ETH3
eth_env_get_enetaddr("eth3addr", bd->bi_enet3addr);
#endif
#ifdef CONFIG_HAS_ETH4
eth_env_get_enetaddr("eth4addr", bd->bi_enet4addr);
#endif
#ifdef CONFIG_HAS_ETH5
eth_env_get_enetaddr("eth5addr", bd->bi_enet5addr);
#endif
return 0;
}
int misc_init_r(void)
{
dspwake();
#if defined(CONFIG_MAC_ADDR_IN_SPIFLASH) || defined(CONFIG_MAC_ADDR_IN_EEPROM)
uchar env_enetaddr[6];
int enetaddr_found;
enetaddr_found = eth_env_get_enetaddr("ethaddr", env_enetaddr);
#ifdef CONFIG_MAC_ADDR_IN_SPIFLASH
int spi_mac_read;
uchar buff[6];
spi_mac_read = get_mac_addr(buff);
/*
* MAC address not present in the environment
* try and read the MAC address from SPI flash
* and set it.
*/
if (!enetaddr_found) {
if (!spi_mac_read) {
if (is_valid_ethaddr(buff)) {
if (eth_env_set_enetaddr("ethaddr", buff)) {
printf("Warning: Failed to "
"set MAC address from SPI flash\n");
}
} else {
printf("Warning: Invalid "
"MAC address read from SPI flash\n");
}
}
} else {
/*
* MAC address present in environment compare it with
* the MAC address in SPI flash and warn on mismatch
*/
if (!spi_mac_read && is_valid_ethaddr(buff) &&
memcmp(env_enetaddr, buff, 6))
printf("Warning: MAC address in SPI flash don't match "
"with the MAC address in the environment\n");
printf("Default using MAC address from environment\n");
}
#endif
uint8_t enetaddr[8];
int eeprom_mac_read;
/* Read Ethernet MAC address from EEPROM */
eeprom_mac_read = dvevm_read_mac_address(enetaddr);
/*
* MAC address not present in the environment
* try and read the MAC address from EEPROM flash
* and set it.
*/
if (!enetaddr_found) {
if (eeprom_mac_read)
/* Set Ethernet MAC address from EEPROM */
davinci_sync_env_enetaddr(enetaddr);
} else {
/*
* MAC address present in environment compare it with
* the MAC address in EEPROM and warn on mismatch
*/
if (eeprom_mac_read && memcmp(enetaddr, env_enetaddr, 6))
printf("Warning: MAC address in EEPROM don't match "
"with the MAC address in the environment\n");
printf("Default using MAC address from environment\n");
}
#endif
return 0;
}
/*
* Interpreter command to boot VxWorks from a memory image. The image can
* be either an ELF image or a raw binary. Will attempt to setup the
* bootline and other parameters correctly.
*/
int do_bootvx(cmd_tbl_t *cmdtp, int flag, int argc, char * const argv[])
{
unsigned long addr; /* Address of image */
unsigned long bootaddr = 0; /* Address to put the bootline */
char *bootline; /* Text of the bootline */
char *tmp; /* Temporary char pointer */
char build_buf[128]; /* Buffer for building the bootline */
int ptr = 0;
#ifdef CONFIG_X86
ulong base;
struct e820_info *info;
struct e820_entry *data;
struct efi_gop_info *gop;
struct vesa_mode_info *vesa = &mode_info.vesa;
#endif
/*
* Check the loadaddr variable.
* If we don't know where the image is then we're done.
*/
if (argc < 2)
addr = load_addr;
else
addr = simple_strtoul(argv[1], NULL, 16);
#if defined(CONFIG_CMD_NET)
/*
* Check to see if we need to tftp the image ourselves
* before starting
*/
if ((argc == 2) && (strcmp(argv[1], "tftp") == 0)) {
if (net_loop(TFTPGET) <= 0)
return 1;
printf("Automatic boot of VxWorks image at address 0x%08lx ...\n",
addr);
}
#endif
/*
* This should equate to
* NV_RAM_ADRS + NV_BOOT_OFFSET + NV_ENET_OFFSET
* from the VxWorks BSP header files.
* This will vary from board to board
*/
#if defined(CONFIG_SYS_VXWORKS_MAC_PTR)
tmp = (char *)CONFIG_SYS_VXWORKS_MAC_PTR;
eth_env_get_enetaddr("ethaddr", (uchar *)build_buf);
memcpy(tmp, build_buf, 6);
#else
puts("## Ethernet MAC address not copied to NV RAM\n");
#endif
#ifdef CONFIG_X86
/*
* Get VxWorks's physical memory base address from environment,
* if we don't specify it in the environment, use a default one.
*/
base = env_get_hex("vx_phys_mem_base", VXWORKS_PHYS_MEM_BASE);
data = (struct e820_entry *)(base + E820_DATA_OFFSET);
info = (struct e820_info *)(base + E820_INFO_OFFSET);
memset(info, 0, sizeof(struct e820_info));
info->sign = E820_SIGNATURE;
info->entries = install_e820_map(E820MAX, data);
info->addr = (info->entries - 1) * sizeof(struct e820_entry) +
E820_DATA_OFFSET;
/*
* Explicitly clear the bootloader image size otherwise if memory
* at this offset happens to contain some garbage data, the final
* available memory size for the kernel is insane.
*/
*(u32 *)(base + BOOT_IMAGE_SIZE_OFFSET) = 0;
/*
* Prepare compatible framebuffer information block.
* The VESA mode has to be 32-bit RGBA.
*/
if (vesa->x_resolution && vesa->y_resolution) {
gop = (struct efi_gop_info *)(base + EFI_GOP_INFO_OFFSET);
gop->magic = EFI_GOP_INFO_MAGIC;
gop->info.version = 0;
gop->info.width = vesa->x_resolution;
gop->info.height = vesa->y_resolution;
gop->info.pixel_format = EFI_GOT_RGBA8;
gop->info.pixels_per_scanline = vesa->bytes_per_scanline / 4;
gop->fb_base = vesa->phys_base_ptr;
gop->fb_size = vesa->bytes_per_scanline * vesa->y_resolution;
}
#endif
/*
* Use bootaddr to find the location in memory that VxWorks
* will look for the bootline string. The default value is
* (LOCAL_MEM_LOCAL_ADRS + BOOT_LINE_OFFSET) as defined by
* VxWorks BSP. For example, on PowerPC it defaults to 0x4200.
*/
tmp = env_get("bootaddr");
if (!tmp) {
#ifdef CONFIG_X86
bootaddr = base + X86_BOOT_LINE_OFFSET;
#else
printf("## VxWorks bootline address not specified\n");
return 1;
#endif
}
if (!bootaddr)
bootaddr = simple_strtoul(tmp, NULL, 16);
/*
* Check to see if the bootline is defined in the 'bootargs' parameter.
* If it is not defined, we may be able to construct the info.
*/
bootline = env_get("bootargs");
if (!bootline) {
tmp = env_get("bootdev");
if (tmp) {
strcpy(build_buf, tmp);
ptr = strlen(tmp);
} else {
printf("## VxWorks boot device not specified\n");
}
tmp = env_get("bootfile");
if (tmp)
ptr += sprintf(build_buf + ptr, "host:%s ", tmp);
else
ptr += sprintf(build_buf + ptr, "host:vxWorks ");
/*
* The following parameters are only needed if 'bootdev'
* is an ethernet device, otherwise they are optional.
*/
tmp = env_get("ipaddr");
if (tmp) {
ptr += sprintf(build_buf + ptr, "e=%s", tmp);
tmp = env_get("netmask");
if (tmp) {
u32 mask = env_get_ip("netmask").s_addr;
ptr += sprintf(build_buf + ptr,
":%08x ", ntohl(mask));
} else {
ptr += sprintf(build_buf + ptr, " ");
}
}
tmp = env_get("serverip");
if (tmp)
ptr += sprintf(build_buf + ptr, "h=%s ", tmp);
tmp = env_get("gatewayip");
if (tmp)
ptr += sprintf(build_buf + ptr, "g=%s ", tmp);
tmp = env_get("hostname");
if (tmp)
ptr += sprintf(build_buf + ptr, "tn=%s ", tmp);
tmp = env_get("othbootargs");
if (tmp) {
strcpy(build_buf + ptr, tmp);
ptr += strlen(tmp);
}
bootline = build_buf;
}
memcpy((void *)bootaddr, bootline, max(strlen(bootline), (size_t)255));
flush_cache(bootaddr, max(strlen(bootline), (size_t)255));
printf("## Using bootline (@ 0x%lx): %s\n", bootaddr, (char *)bootaddr);
/*
* If the data at the load address is an elf image, then
* treat it like an elf image. Otherwise, assume that it is a
* binary image.
*/
if (valid_elf_image(addr))
addr = load_elf_image_phdr(addr);
else
puts("## Not an ELF image, assuming binary\n");
printf("## Starting vxWorks at 0x%08lx ...\n", addr);
dcache_disable();
#if defined(CONFIG_ARM64) && defined(CONFIG_ARMV8_PSCI)
armv8_setup_psci();
smp_kick_all_cpus();
#endif
#ifdef CONFIG_X86
/* VxWorks on x86 uses stack to pass parameters */
((asmlinkage void (*)(int))addr)(0);
#else
((void (*)(int))addr)(0);
#endif
puts("## vxWorks terminated\n");
return 1;
}
static void ftgmac100_set_mac_from_env(struct eth_device *dev)
{
eth_env_get_enetaddr("ethaddr", dev->enetaddr);
ftgmac100_set_mac(dev, dev->enetaddr);
}
