The driver runs as two independent, single-threaded flows of control. One
is the send-packet routine, which enforces single-threaded use by the
-dev->priv->lock spinlock. The other thread is the interrupt handler, which
-is single threaded by the hardware and interrupt handling software.
+netdev_priv(dev)->lock spinlock. The other thread is the interrupt handler,
+which is single threaded by the hardware and interrupt handling software.
The send packet thread has partial control over the Tx ring. It locks the
-dev->priv->lock whenever it's queuing a Tx packet. If the next slot in the ring
-is not available it stops the transmit queue by calling netif_stop_queue.
+netdev_priv(dev)->lock whenever it's queuing a Tx packet. If the next slot in
+the ring is not available it stops the transmit queue by
+calling netif_stop_queue.
The interrupt handler has exclusive control over the Rx ring and records stats
from the Tx ring. After reaping the stats, it marks the Tx queue entry as
work_done = rhine_rx(dev, budget);
if (work_done < budget) {
- netif_rx_complete(dev, napi);
+ netif_rx_complete(napi);
iowrite16(IntrRxDone | IntrRxErr | IntrRxEmpty| IntrRxOverflow |
IntrRxDropped | IntrRxNoBuf | IntrTxAborted |
.ndo_get_stats = rhine_get_stats,
.ndo_set_multicast_list = rhine_set_rx_mode,
.ndo_validate_addr = eth_validate_addr,
+ .ndo_set_mac_address = eth_mac_addr,
.ndo_do_ioctl = netdev_ioctl,
.ndo_tx_timeout = rhine_tx_timeout,
#ifdef CONFIG_NET_POLL_CONTROLLER
IntrPCIErr | IntrStatsMax | IntrLinkChange,
ioaddr + IntrEnable);
- netif_rx_schedule(dev, &rp->napi);
+ netif_rx_schedule(&rp->napi);
}
if (intr_status & (IntrTxErrSummary | IntrTxDone)) {