};
static inline void adf702x_mac_init(void)
{
- random_ether_addr(adf7021_platform_data.mac_addr);
+ eth_random_addr(adf7021_platform_data.mac_addr);
}
#else
static inline void adf702x_mac_init(void) {}
if (have_fuse_mac)
memcpy(addr, c6x_fuse_mac, 6);
else
- random_ether_addr(addr);
+ eth_random_addr(addr);
}
/* adjust for specific EMAC device */
&dev_addr[4], &dev_addr[5]) != 6) {
pr_warning("cannot parse mac address, "
"using random address\n");
- random_ether_addr(dev_addr);
+ eth_random_addr(dev_addr);
}
} else
- random_ether_addr(dev_addr);
+ eth_random_addr(dev_addr);
}
/*****************************************************************************
* Generates an Ethernet MAC address that is highly likely to be unique for
* this particular system on a network with other systems of the same type.
*
- * The problem we are solving is that, when random_ether_addr() is used to
+ * The problem we are solving is that, when eth_random_addr() is used to
* generate MAC addresses at startup, there isn't much entropy for the random
* number generator to use and the addresses it produces are fairly likely to
* be the same as those of other identical systems on the same local network.
* Still, this does give us something to work with.
*
* The approach we take is:
- * 1. If we can't get the RF MAC Address, just call random_ether_addr.
+ * 1. If we can't get the RF MAC Address, just call eth_random_addr.
* 2. Use the 24-bit NIC-specific bits of the RF MAC address as the last 24
* bits of the new address. This is very likely to be unique, except for
* the current box.
if (!have_rfmac) {
pr_warning("rfmac not available on command line; "
"generating random MAC address\n");
- random_ether_addr(addr);
+ eth_random_addr(addr);
}
else {