/*
* if we are a Commodore Amiga A4091 or possibly an A4000T
*/
int
afscmatch(struct device *pdp, struct cfdata *cfp, void *auxp)
{
struct zbus_args *zap;
siop_regmap_p rp;
u_long temp, scratch;
zap = auxp;
if (zap->manid == 514 && zap->prodid == 84)
return(1); /* It's an A4091 SCSI card */
if (!is_a4000() || !matchname("afsc", auxp))
return(0); /* Not on an A4000 or not A4000T SCSI */
rp = ztwomap(0xdd0040);
if (badaddr((void *)__UNVOLATILE(&rp->siop_scratch)) ||
badaddr((void *)__UNVOLATILE(&rp->siop_temp))) {
return(0);
}
scratch = rp->siop_scratch;
temp = rp->siop_temp;
rp->siop_scratch = 0xdeadbeef;
rp->siop_temp = 0xaaaa5555;
if (rp->siop_scratch != 0xdeadbeef || rp->siop_temp != 0xaaaa5555)
return(0);
rp->siop_scratch = scratch;
rp->siop_temp = temp;
if (rp->siop_scratch != scratch || rp->siop_temp != temp)
return(0);
return(1);
}
void
mfcsattach(device_t parent, device_t self, void *aux)
{
int unit;
struct mfcs_softc *sc;
struct mfc_softc *scc;
struct mfc_args *ma;
struct mfc_regs *rp;
sc = device_private(self);
sc->sc_dev = self;
scc = device_private(parent);
ma = aux;
printf (": input fifo %d output fifo %d\n", SERIBUF_SIZE,
SEROBUF_SIZE);
unit = ma->unit;
mfcs_active |= 1 << unit;
sc->rptr = sc->wptr = sc->inbuf;
sc->sc_mfc = scc;
sc->sc_regs = rp = scc->sc_regs;
sc->sc_duart = (struct duart_regs *) ((unit & 1) ?
__UNVOLATILE(&rp->du_mr1b) : __UNVOLATILE(&rp->du_mr1a));
sc->mfcs_si = softint_establish(SOFTINT_SERIAL, mfcs_intr_soft, sc);
/*
* should have only one vbl routine to handle all ports?
*/
sc->vbl_node.function = (void (*) (void *)) mfcsmint;
sc->vbl_node.data = (void *) unit;
add_vbl_function(&sc->vbl_node, 1, (void *) unit);
}
void
db_cpu_cmd(db_expr_t addr, bool have_addr, db_expr_t count, const char *modif)
{
struct cpu_info *ci;
if (!have_addr) {
cpu_debug_dump();
return;
}
if ((addr < 0) || (addr >= sparc_ncpus)) {
db_printf("%ld: CPU out of range\n", addr);
return;
}
ci = cpus[addr];
if (ci == NULL) {
db_printf("CPU %ld not configured\n", addr);
return;
}
if (ci != curcpu()) {
if (!(ci->flags & CPUFLG_PAUSED)) {
db_printf("CPU %ld not paused\n", addr);
return;
}
}
if (ci->ci_ddb_regs == 0) {
db_printf("CPU %ld has no saved regs\n", addr);
return;
}
db_printf("using CPU %ld", addr);
ddb_regp = __UNVOLATILE(ci->ci_ddb_regs);
ddb_cpuinfo = ci;
}
static void
nouveaufb_attach_task(struct nouveau_task *task)
{
struct nouveaufb_softc *const sc = container_of(task,
struct nouveaufb_softc, sc_attach_task);
const struct nouveaufb_attach_args *const nfa = &sc->sc_nfa;
const struct drmfb_attach_args da = {
.da_dev = sc->sc_dev,
.da_fb_helper = nfa->nfa_fb_helper,
.da_fb_sizes = &nfa->nfa_fb_sizes,
.da_fb_vaddr = __UNVOLATILE(nfa->nfa_fb_ptr),
.da_params = &nouveaufb_drmfb_params,
};
int error;
error = drmfb_attach(&sc->sc_drmfb, &da);
if (error) {
aprint_error_dev(sc->sc_dev, "failed to attach drmfb: %d\n",
error);
return;
}
if (!pmf_device_register1(sc->sc_dev, NULL, NULL, &nouveaufb_shutdown))
aprint_error_dev(sc->sc_dev,
"failed to register shutdown handler\n");
sc->sc_attached = true;
}
static bool
nouveaufb_shutdown(device_t self, int flags)
{
struct nouveaufb_softc *const sc = device_private(self);
return drmfb_shutdown(&sc->sc_drmfb, flags);
}
static paddr_t
nouveaufb_drmfb_mmapfb(struct drmfb_softc *drmfb, off_t offset, int prot)
{
struct nouveaufb_softc *const sc = container_of(drmfb,
struct nouveaufb_softc, sc_drmfb);
struct drm_fb_helper *const helper = sc->sc_nfa.nfa_fb_helper;
struct nouveau_fbdev *const fbdev = container_of(helper,
struct nouveau_fbdev, helper);
struct nouveau_bo *const nvbo = fbdev->nouveau_fb.nvbo;
const unsigned num_pages __diagused = nvbo->bo.num_pages;
int flags = 0;
KASSERT(0 <= offset);
KASSERT(offset < (num_pages << PAGE_SHIFT));
if (ISSET(nvbo->bo.mem.placement, TTM_PL_FLAG_WC))
flags |= BUS_SPACE_MAP_PREFETCHABLE;
return bus_space_mmap(nvbo->bo.bdev->memt, nvbo->bo.mem.bus.base,
nvbo->bo.mem.bus.offset + offset, prot, flags);
}
void
xf86DisableIO()
{
if (ioBase != MAP_FAILED) {
munmap(__UNVOLATILE(ioBase), 0x10000);
ioBase = MAP_FAILED;
}
}
/* Get serial number of the card. */
static char *
p5bus_cardsn(void)
{
char *snr, *sn;
sn = kmem_zalloc(P5_SN_LEN + 1, KM_SLEEP);
snr = (char *)__UNVOLATILE(ztwomap(P5_ROM_OFF));
memcpy(sn, snr, P5_SN_LEN);
return sn;
}
/*
* Initialize
*/
void
tv_init(struct ite_softc *ip)
{
short i;
/*
* initialize private variables
*/
tv_top = 0;
for (i = 0; i < PLANELINES; i++)
tv_row[i] = (void *)__UNVOLATILE(&IODEVbase->tvram[ROWOFFSET(i)]);
/* shadow ANK font */
memcpy(kern_font, (void *)&IODEVbase->cgrom0_8x16, 256 * FONTHEIGHT);
ite_set_glyph();
/* set font address cache */
for (i = 0; i < 256; i++)
tv_font[i] = &kern_font[i * FONTHEIGHT];
for (i = 0x21; i < 0x30; i++)
tv_kfont[i] = &IODEVbase->cgrom0_16x16[KFONTBASE(i-0x21)];
for (; i < 0x50; i++)
tv_kfont[i] = &IODEVbase->cgrom1_16x16[KFONTBASE(i-0x30)];
for (; i < 0x7f; i++)
tv_kfont[i] = &IODEVbase->cgrom2_16x16[KFONTBASE(i-0x50)];
/*
* initialize part of ip
*/
ip->cols = ip->grf->g_display.gd_dwidth / FONTWIDTH;
ip->rows = ip->grf->g_display.gd_dheight / FONTHEIGHT;
/* set draw routine dynamically */
ip->isw->ite_putc = tv_putc;
ip->isw->ite_cursor = tv_cursor;
ip->isw->ite_clear = tv_clear;
ip->isw->ite_scroll = tv_scroll;
/*
* Intialize colormap
*/
#define RED (0x1f << 6)
#define BLUE (0x1f << 1)
#define GREEN (0x1f << 11)
IODEVbase->tpalet[0] = 0; /* black */
IODEVbase->tpalet[1] = 1 | RED; /* red */
IODEVbase->tpalet[2] = 1 | GREEN; /* green */
IODEVbase->tpalet[3] = 1 | RED | GREEN; /* yellow */
IODEVbase->tpalet[4] = 1 | BLUE; /* blue */
IODEVbase->tpalet[5] = 1 | BLUE | RED; /* magenta */
IODEVbase->tpalet[6] = 1 | BLUE | GREEN; /* cyan */
IODEVbase->tpalet[7] = 1 | BLUE | RED | GREEN; /* white */
}
int
pthread_barrier_wait(pthread_barrier_t *barrier)
{
pthread_mutex_t *interlock;
pthread_t self;
unsigned int gen;
if (barrier->ptb_magic != _PT_BARRIER_MAGIC)
return EINVAL;
/*
* A single arbitrary thread is supposed to return
* PTHREAD_BARRIER_SERIAL_THREAD, and everone else
* is supposed to return 0. Since pthread_barrier_wait()
* is not a cancellation point, this is trivial; we
* simply elect that the thread that causes the barrier
* to be satisfied gets the special return value. Note
* that this final thread does not actually need to block,
* but instead is responsible for waking everyone else up.
*/
self = pthread__self();
interlock = pthread__hashlock(barrier);
pthread_mutex_lock(interlock);
if (barrier->ptb_curcount + 1 == barrier->ptb_initcount) {
barrier->ptb_generation++;
barrier->ptb_curcount = 0;
pthread__unpark_all(&barrier->ptb_waiters, self,
interlock);
pthread_mutex_unlock(interlock);
return PTHREAD_BARRIER_SERIAL_THREAD;
}
barrier->ptb_curcount++;
gen = barrier->ptb_generation;
for (;;) {
PTQ_INSERT_TAIL(&barrier->ptb_waiters, self, pt_sleep);
self->pt_sleepobj = &barrier->ptb_waiters;
(void)pthread__park(self, interlock, &barrier->ptb_waiters,
NULL, 0, __UNVOLATILE(&interlock->ptm_waiters));
if (__predict_true(gen != barrier->ptb_generation)) {
break;
}
pthread_mutex_lock(interlock);
if (gen != barrier->ptb_generation) {
pthread_mutex_unlock(interlock);
break;
}
}
return 0;
}
/**
* radeon_ring_init - init driver ring struct.
*
* @rdev: radeon_device pointer
* @ring: radeon_ring structure holding ring information
* @ring_size: size of the ring
* @rptr_offs: offset of the rptr writeback location in the WB buffer
* @nop: nop packet for this ring
*
* Initialize the driver information for the selected ring (all asics).
* Returns 0 on success, error on failure.
*/
int radeon_ring_init(struct radeon_device *rdev, struct radeon_ring *ring, unsigned ring_size,
unsigned rptr_offs, u32 nop)
{
int r;
ring->ring_size = ring_size;
ring->rptr_offs = rptr_offs;
ring->nop = nop;
/* Allocate ring buffer */
if (ring->ring_obj == NULL) {
r = radeon_bo_create(rdev, ring->ring_size, PAGE_SIZE, true,
RADEON_GEM_DOMAIN_GTT,
NULL, &ring->ring_obj);
if (r) {
dev_err(rdev->dev, "(%d) ring create failed\n", r);
return r;
}
r = radeon_bo_reserve(ring->ring_obj, false);
if (unlikely(r != 0))
return r;
r = radeon_bo_pin(ring->ring_obj, RADEON_GEM_DOMAIN_GTT,
&ring->gpu_addr);
if (r) {
radeon_bo_unreserve(ring->ring_obj);
dev_err(rdev->dev, "(%d) ring pin failed\n", r);
return r;
}
r = radeon_bo_kmap(ring->ring_obj,
(void **)__UNVOLATILE(&ring->ring));
radeon_bo_unreserve(ring->ring_obj);
if (r) {
dev_err(rdev->dev, "(%d) ring map failed\n", r);
return r;
}
}
ring->ptr_mask = (ring->ring_size / 4) - 1;
ring->ring_free_dw = ring->ring_size / 4;
if (rdev->wb.enabled) {
u32 index = RADEON_WB_RING0_NEXT_RPTR + (ring->idx * 4);
ring->next_rptr_gpu_addr = rdev->wb.gpu_addr + index;
ring->next_rptr_cpu_addr = &rdev->wb.wb[index/4];
}
if (radeon_debugfs_ring_init(rdev, ring)) {
DRM_ERROR("Failed to register debugfs file for rings !\n");
}
radeon_ring_lockup_update(rdev, ring);
return 0;
}
/* Non-privileged console interrupt routine */
static int
xencons_handler(void *arg)
{
struct xencons_softc *sc = arg;
XENCONS_RING_IDX cons, prod, len;
int s = spltty();
if (sc->polling) {
splx(s);
return 1;
}
#define XNC_IN (xencons_interface->in)
cons = xencons_interface->in_cons;
prod = xencons_interface->in_prod;
xen_rmb();
while (cons != prod) {
if (MASK_XENCONS_IDX(cons, XNC_IN) <
MASK_XENCONS_IDX(prod, XNC_IN))
len = MASK_XENCONS_IDX(prod, XNC_IN) -
MASK_XENCONS_IDX(cons, XNC_IN);
else
len = sizeof(XNC_IN) - MASK_XENCONS_IDX(cons, XNC_IN);
xencons_tty_input(sc, __UNVOLATILE(
&XNC_IN[MASK_XENCONS_IDX(cons, XNC_IN)]), len);
if (__predict_false(xencons_interface->in_cons != cons)) {
/* catch up with xenconscn_getc() */
cons = xencons_interface->in_cons;
prod = xencons_interface->in_prod;
xen_rmb();
} else {
cons += len;
xen_wmb();
xencons_interface->in_cons = cons;
xen_wmb();
}
}
hypervisor_notify_via_evtchn(xen_start_info.console.domU.evtchn);
splx(s);
return 1;
#undef XNC_IN
}
static void
gencp_acafh_attach(device_t parent, device_t self, void *aux)
{
struct gencp_softc *sc;
struct bus_space_tag cpb_bst;
struct clockportbus_attach_args cpb_aa;
struct acafhbus_attach_args *aaa_aa;
aaa_aa = aux;
sc = device_private(self);
sc->sc_dev = self;
sc->cpb_aa = &cpb_aa;
/* Set the address and bus access methods. */
cpb_bst.base = (bus_addr_t) __UNVOLATILE(ztwomap(aaa_aa->aaa_pbase));
cpb_bst.absm = &amiga_bus_stride_4;
sc->cpb_aa->cp_iot = &cpb_bst;
gencp_attach(sc);
}
/*
* RETINA_SPEED_HACK code seems to work on some boards and on others
* it causes text to smear horizontally
*/
void
rh_scroll(struct ite_softc *ip, int sy, int sx, int count, int dir)
{
#ifndef RETINA_SPEED_HACK
u_long *fb = (u_long *)__UNVOLATILE(ip->grf->g_fbkva);
#endif
rh_cursor(ip, ERASE_CURSOR);
if (dir == SCROLL_UP) {
#ifdef RETINA_SPEED_HACK
screen_up(ip, sy - count, ip->bottom_margin, count);
#else
bcopy(fb + sy * ip->cols, fb + (sy - count) * ip->cols,
4 * (ip->bottom_margin - sy + 1) * ip->cols);
rh_clear(ip, ip->bottom_margin + 1 - count, 0, count, ip->cols);
#endif
} else if (dir == SCROLL_DOWN) {
#ifdef RETINA_SPEED_HACK
screen_down(ip, sy, ip->bottom_margin, count);
#else
bcopy(fb + sy * ip->cols, fb + (sy + count) * ip->cols,
4 * (ip->bottom_margin - sy - count + 1) * ip->cols);
rh_clear(ip, sy, 0, count, ip->cols);
#endif
} else if (dir == SCROLL_RIGHT) {
RZ3AlphaCopy(ip->grf, sx, sy, sx + count, sy,
ip->cols - (sx + count), 1);
RZ3AlphaErase(ip->grf, sx, sy, count, 1);
} else {
RZ3AlphaCopy(ip->grf, sx + count, sy, sx, sy,
ip->cols - (sx + count), 1);
RZ3AlphaErase(ip->grf, ip->cols - count, sy, count, 1);
}
#ifndef RETINA_SPEED_HACK
rh_cursor(ip, !ERASE_CURSOR);
#endif
}
void
xencons_start(struct tty *tp)
{
struct clist *cl;
int s;
s = spltty();
if (tp->t_state & (TS_TIMEOUT | TS_BUSY | TS_TTSTOP))
goto out;
tp->t_state |= TS_BUSY;
splx(s);
/*
* We need to do this outside spl since it could be fairly
* expensive and we don't want our serial ports to overflow.
*/
cl = &tp->t_outq;
if (xendomain_is_dom0()) {
int len, r;
u_char buf[XENCONS_BURST+1];
len = q_to_b(cl, buf, XENCONS_BURST);
while (len > 0) {
r = HYPERVISOR_console_io(CONSOLEIO_write, len, buf);
if (r <= 0)
break;
len -= r;
}
} else {
XENCONS_RING_IDX cons, prod, len;
#define XNC_OUT (xencons_interface->out)
cons = xencons_interface->out_cons;
prod = xencons_interface->out_prod;
xen_rmb();
while (prod != cons + sizeof(xencons_interface->out)) {
if (MASK_XENCONS_IDX(prod, XNC_OUT) <
MASK_XENCONS_IDX(cons, XNC_OUT)) {
len = MASK_XENCONS_IDX(cons, XNC_OUT) -
MASK_XENCONS_IDX(prod, XNC_OUT);
} else {
len = sizeof(XNC_OUT) -
MASK_XENCONS_IDX(prod, XNC_OUT);
}
len = q_to_b(cl, __UNVOLATILE(
&XNC_OUT[MASK_XENCONS_IDX(prod, XNC_OUT)]), len);
if (len == 0)
break;
prod = prod + len;
}
xen_wmb();
xencons_interface->out_prod = prod;
xen_wmb();
hypervisor_notify_via_evtchn(xen_start_info.console.domU.evtchn);
#undef XNC_OUT
}
s = spltty();
tp->t_state &= ~TS_BUSY;
if (ttypull(tp)) {
tp->t_state |= TS_TIMEOUT;
callout_schedule(&tp->t_rstrt_ch, 1);
}
out:
splx(s);
}
static enum segstat_t shm_query(volatile struct shmTime *shm_in, struct shm_stat_t *shm_stat)
/* try to grab a sample from the specified SHM segment */
{
volatile struct shmTime shmcopy, *shm = shm_in;
volatile int cnt;
unsigned int cns_new, rns_new;
/*
* This is the main routine. It snatches the time from the shm
* board and tacks on a local timestamp.
*/
if (shm == NULL) {
shm_stat->status = NO_SEGMENT;
return NO_SEGMENT;
}
/*@-type@*//* splint is confused about struct timespec */
shm_stat->tvc.tv_sec = shm_stat->tvc.tv_nsec = 0;
{
time_t now;
time(&now);
shm_stat->tvc.tv_sec = now;
}
/* relying on word access to be atomic here */
if (shm->valid == 0) {
shm_stat->status = NOT_READY;
return NOT_READY;
}
cnt = shm->count;
/*
* This is proof against concurrency issues if either
* (a) the memory_barrier() call works on this host, or
* (b) memset compiles to an uninterruptible single-instruction bitblt.
*/
memory_barrier();
memcpy(__UNVOLATILE(&shmcopy), __UNVOLATILE(shm), sizeof(struct shmTime));
shm->valid = 0;
memory_barrier();
/*
* Clash detection in case neither (a) nor (b) was true.
* Not supported in mode 0, and word access to the count field
* must be atomic for this to work.
*/
if (shmcopy.mode > 0 && cnt != shm->count) {
shm_stat->status = CLASH;
return shm_stat->status;
}
shm_stat->status = OK;
shm_stat->mode = shmcopy.mode;
switch (shmcopy.mode) {
case 0:
shm_stat->tvr.tv_sec = shmcopy.receiveTimeStampSec;
shm_stat->tvr.tv_nsec = shmcopy.receiveTimeStampUSec * 1000;
rns_new = shmcopy.receiveTimeStampNSec;
shm_stat->tvt.tv_sec = shmcopy.clockTimeStampSec;
shm_stat->tvt.tv_nsec = shmcopy.clockTimeStampUSec * 1000;
cns_new = shmcopy.clockTimeStampNSec;
/* Since the following comparisons are between unsigned
** variables they are always well defined, and any
** (signed) underflow will turn into very large unsigned
** values, well above the 1000 cutoff.
**
** Note: The usecs *must* be a *truncated*
** representation of the nsecs. This code will fail for
** *rounded* usecs, and the logic to deal with
** wrap-arounds in the presence of rounded values is
** much more convoluted.
*/
if ( ((cns_new - (unsigned)shm_stat->tvt.tv_nsec) < 1000)
&& ((rns_new - (unsigned)shm_stat->tvr.tv_nsec) < 1000)) {
shm_stat->tvt.tv_nsec = cns_new;
shm_stat->tvr.tv_nsec = rns_new;
}
/* At this point shm_stat->tvr and shm_stat->tvt contain valid ns-level
** timestamps, possibly generated by extending the old
** us-level timestamps
*/
break;
case 1:
shm_stat->tvr.tv_sec = shmcopy.receiveTimeStampSec;
shm_stat->tvr.tv_nsec = shmcopy.receiveTimeStampUSec * 1000;
rns_new = shmcopy.receiveTimeStampNSec;
shm_stat->tvt.tv_sec = shmcopy.clockTimeStampSec;
shm_stat->tvt.tv_nsec = shmcopy.clockTimeStampUSec * 1000;
cns_new = shmcopy.clockTimeStampNSec;
/* See the case above for an explanation of the
** following test.
*/
if ( ((cns_new - (unsigned)shm_stat->tvt.tv_nsec) < 1000)
&& ((rns_new - (unsigned)shm_stat->tvr.tv_nsec) < 1000)) {
shm_stat->tvt.tv_nsec = cns_new;
shm_stat->tvr.tv_nsec = rns_new;
}
/* At this point shm_stat->tvr and shm_stat->tvt contains valid ns-level
** timestamps, possibly generated by extending the old
** us-level timestamps
*/
break;
default:
shm_stat->status = BAD_MODE;
break;
}
/*@-type@*/
/*
* leap field is not a leap offset but a leap notification code.
* The values are magic numbers used by NTP and set by GPSD, if at all, in
* the subframe code.
*/
shm_stat->leap = shmcopy.leap;
shm_stat->precision = shmcopy.precision;
return shm_stat->status;
}
/*
* How Command Block List Processing is done.
*
* A running CBL is never manipulated. If there is a CBL already running,
* further CMDs are deferred until the current list is done. A new list is
* setup when the old one has finished.
* This eases programming. To manipulate a running CBL it is necessary to
* suspend the Command Unit to avoid race conditions. After a suspend
* is sent we have to wait for an interrupt that ACKs the suspend. Then
* we can manipulate the CBL and resume operation. I am not sure that this
* is more effective than the current, much simpler approach. => KISS
* See i82596CA data sheet page 26.
*
* A CBL is running or on the way to be set up when (sc->sc_next_cb != 0).
*
* A CBL may consist of TX CMDs, and _only_ TX CMDs.
* A TX CBL is running or on the way to be set up when
* ((sc->sc_next_cb != 0) && (sc->sc_next_tbd != 0)).
*
* A CBL may consist of other non-TX CMDs like IAS or CONF, and _only_
* non-TX CMDs.
*
* This comes mostly through the way how an Ethernet driver works and
* because running CBLs are not manipulated when they are on the way. If
* if_start() is called there will be TX CMDs enqueued so we have a running
* CBL and other CMDs from e.g. if_ioctl() will be deferred and vice versa.
*
* The Multicast Setup Command is special. A MCS needs more space than
* a single CB has. Actual space requirement depends on the length of the
* multicast list. So we always defer MCS until other CBLs are finished,
* then we setup a CONF CMD in the first CB. The CONF CMD is needed to
* turn ALLMULTI on the hardware on or off. The MCS is the 2nd CB and may
* use all the remaining space in the CBL and the Transmit Buffer Descriptor
* List. (Therefore CBL and TBDL must be continuous in physical and virtual
* memory. This is guaranteed through the definitions of the list offsets
* in i82596reg.h and because it is only a single DMA segment used for all
* lists.) When ALLMULTI is enabled via the CONF CMD, the MCS is run with
* a multicast list length of 0, thus disabling the multicast filter.
* A deferred MCS is signaled via ((sc->sc_flags & IEE_WANT_MCAST) != 0)
*/
void
iee_cb_setup(struct iee_softc *sc, uint32_t cmd)
{
struct iee_cb *cb = SC_CB(sc, sc->sc_next_cb);
struct ifnet *ifp = &sc->sc_ethercom.ec_if;
struct ether_multistep step;
struct ether_multi *enm;
memset(cb, 0, sc->sc_cb_sz);
cb->cb_cmd = cmd;
switch (cmd & IEE_CB_CMD) {
case IEE_CB_CMD_NOP: /* NOP CMD */
break;
case IEE_CB_CMD_IAS: /* Individual Address Setup */
memcpy(__UNVOLATILE(cb->cb_ind_addr), CLLADDR(ifp->if_sadl),
ETHER_ADDR_LEN);
break;
case IEE_CB_CMD_CONF: /* Configure */
memcpy(__UNVOLATILE(cb->cb_cf), sc->sc_cf, sc->sc_cf[0]
& IEE_CF_0_CNT_M);
break;
case IEE_CB_CMD_MCS: /* Multicast Setup */
if (sc->sc_next_cb != 0) {
sc->sc_flags |= IEE_WANT_MCAST;
return;
}
sc->sc_flags &= ~IEE_WANT_MCAST;
if ((sc->sc_cf[8] & IEE_CF_8_PRM) != 0) {
/* Need no multicast filter in promisc mode. */
iee_cb_setup(sc, IEE_CB_CMD_CONF | IEE_CB_S | IEE_CB_EL
| IEE_CB_I);
return;
}
/* Leave room for a CONF CMD to en/dis-able ALLMULTI mode */
cb = SC_CB(sc, sc->sc_next_cb + 1);
cb->cb_cmd = cmd;
cb->cb_mcast.mc_size = 0;
ETHER_FIRST_MULTI(step, &sc->sc_ethercom, enm);
while (enm != NULL) {
if (memcmp(enm->enm_addrlo, enm->enm_addrhi,
ETHER_ADDR_LEN) != 0 || cb->cb_mcast.mc_size
* ETHER_ADDR_LEN + 2 * sc->sc_cb_sz >
sc->sc_cb_sz * IEE_NCB +
sc->sc_tbd_sz * IEE_NTBD * IEE_NCB) {
cb->cb_mcast.mc_size = 0;
break;
}
memcpy(__UNVOLATILE(&cb->cb_mcast.mc_addrs[
cb->cb_mcast.mc_size * ETHER_ADDR_LEN]),
enm->enm_addrlo, ETHER_ADDR_LEN);
ETHER_NEXT_MULTI(step, enm);
cb->cb_mcast.mc_size++;
}
if (cb->cb_mcast.mc_size == 0) {
/* Can't do exact mcast filtering, do ALLMULTI mode. */
ifp->if_flags |= IFF_ALLMULTI;
sc->sc_cf[11] &= ~IEE_CF_11_MCALL;
} else {
/* disable ALLMULTI and load mcast list */
ifp->if_flags &= ~IFF_ALLMULTI;
sc->sc_cf[11] |= IEE_CF_11_MCALL;
/* Mcast setup may need more than sc->sc_cb_sz bytes. */
bus_dmamap_sync(sc->sc_dmat, sc->sc_shmem_map,
sc->sc_cb_off,
sc->sc_cb_sz * IEE_NCB +
sc->sc_tbd_sz * IEE_NTBD * IEE_NCB,
BUS_DMASYNC_PREWRITE);
}
iee_cb_setup(sc, IEE_CB_CMD_CONF);
break;
case IEE_CB_CMD_TR: /* Transmit */
cb->cb_transmit.tx_tbd_addr =
IEE_SWAPA32(IEE_PHYS_SHMEM(sc->sc_tbd_off
+ sc->sc_tbd_sz * sc->sc_next_tbd));
cb->cb_cmd |= IEE_CB_SF; /* Always use Flexible Mode. */
break;
case IEE_CB_CMD_TDR: /* Time Domain Reflectometry */
break;
case IEE_CB_CMD_DUMP: /* Dump */
break;
case IEE_CB_CMD_DIAG: /* Diagnose */
break;
default:
/* can't happen */
break;
}
cb->cb_link_addr = IEE_SWAPA32(IEE_PHYS_SHMEM(sc->sc_cb_off +
sc->sc_cb_sz * (sc->sc_next_cb + 1)));
IEE_CBSYNC(sc, sc->sc_next_cb,
BUS_DMASYNC_PREREAD|BUS_DMASYNC_PREWRITE);
sc->sc_next_cb++;
ifp->if_timer = 5;
}